Stationeers Community Wiki - User contributions [en]

Solar Logic Circuits Guide

2026-03-27T02:56:06Z

Starviking: /* Two-chip Vertical tracking (Moon only) */

[[Category:Tutorials]][[Category:Solar power]]

== Disclaimer ==

Due to the frequency of game updates, all solutions are subject to change and may or may not be functional.

The designs on this page are valid as of v0.2.5906.26015 (2025-09-16)

Guides in this section calls out the [[sensor]] and Solar Panel being placed in a specific orientation, but not all guides use the same orientation. When follow a a guide please be sure to place your sensor and solar panel as described in the guide.

==Types of Tracking==
There are two components to solar tracking, Horizontal position and Vertical position. A solar panel can be positioned using only one of these factors (single axis tracking) or both of these factors (dual axis tracking). Depending on the geometry of sun's sky tack on a particular planet single axis tracking can be very efficient. The solar inclination on The [[Moon]] is 0° so single axis solar tracking can be 100% efficient.

== Geometry Of [[Solar Panel|Solar Panels]] and [[Sensors#Daylight Sensor|Daylight Sensors]] ==

The Horizontal and Vertcal angle measured by the daylight sensor is different from the Solar panels coordinates system. In order to point the solar panel correctly either the angle read from the daylight sensor will need to be recalculated using a Math Unit, or the daylight sensor and solar panel will need to have a different orientation. The Vertical angle measured by the daylight sensor is also different from the Solar panels coordinates system.

If the daylight sensor is positioned horizontally the solar panel's data port should be 90° clockwise from the daylight sensor's Data Port. This will give a Horizontal angles without needing to additional Logic and math. Obtaining a Vertical angle will require additional Logic and Math.

<gallery>
daylight sensor horizontal.png|Geometry of values measured by daylight sensor in horizontal (yaw) mode
daylight sensor vertical.png|Geometry of values measured by daylight sensor in vertical (pitch) mode
solar panel yaw-Horizontal setting.png|Effect of setting horizontal rotation of a solar panel
</gallery>

==Solar tracking using Logic Chips ==

===Two-chip Vertical tracking (Moon only)===
[[File:Vertical Tracking (Moon Only).png|thumb|Two-Chip Vertical tracking usable on the Moon only.]]
Because the sun passes directly East to West with zero solar offset on the moon, it can be tracked using only 2 logic chips.

'''What do you need:'''
* [[Solar_Panel|Solar Panel (Dual)]]
* [[Kit (Logic I/O)]] x2
* [[Sensors|Kit (Sensor)]] > [[Sensors#Daylight Sensor|Daylight Sensor]]
* [[Cables|Cable]]
* [[Power_Controller|Area Power Controller]] X1

Place the Solar panel with the data port facing sunrise. Place the Daylight Sensor vertically on the wall with the data port facing down and the sensor facing sunrise. Build a Logic reader and a Batch Writer from the 2 [[Logic I/O]] Kits. Set the Logic Reader to read the Vertical Angle from the Daylight Sensor. Set the Batch Writer to Read the Reader and output the Vertical Angle to the [[Solar Panel (Dual)]]. Manually rotate the Solar Panel to 270°. Add an Area [[Power Controller]] to make sure the Logic Chips do not lose power.

==Two-chip Horizontal tracking==
[[File:Horizontal Tracking.png|thumb|Two-Chip Horizontal Tracking, stand alone.]]
With the daylight sensor and solar panel correctly positioned, the solar panel can tack the sun's horizontal track using only 2 chips. On [[Mars]] this can yield approximately 80% efficient solar tracking if the solar panel is manually positioned at 45° vertical. Two-chip Horizontal and two-chip Vertical tracking cannot be combined.

'''What do you need:'''
* [[Solar_Panel|Solar Panel (Dual)]]
* [[Kit (Logic I/O)]] x2
* [[Sensors|Kit (Sensor)]] > [[Sensors#Daylight Sensor|Daylight Sensor]]
* [[Cables|Cable]]
* [[Power_Controller|Area Power Controller]] X1

Place the Solar panel with the data port facing sunrise. Place the Daylight Sensor horizontally with the data port facing North and the sensor facing up. Build a Logic reader and a Batch Writer from the 2 [[Logic I/O]] Kits. Set the Logic reader to read the Horizontal Angle from the Daylight Sensor. Set the Batch Writer to Read the Reader and output the Horizontal Angle to the [[Solar Panel (Dual)]]. Manually lower the Solar Panel to 45°. Add an Area [[Power Controller]] to make sure the Logic Chips do not lose power.

==Four Chip Vertical tracking==
[[File:Vertical Tracking Two Axis.png|thumb|Four-Chip Vertical Tracking, stand alone.]]
Vertical tracking requires two additional chips, a Logic Memory and a Math Unit. There are two different method of obtaining the correct vertical solar angle. Either (90-Solar angle) or (Solar angle+90).

'''What do you need:'''
* [[Solar_Panel|Solar Panel (Dual)]]
* [[Kit (Logic I/O)]] x2
* [[Kit (Logic Processor)]]
* [[Kit (Logic Memory)]]
* [[Sensors|Kit (Sensor)]] > [[Sensors#Daylight Sensor|Daylight Sensor]]
* [[Cables|Cable]]
* [[Power_Controller|Area Power Controller]] X1

Place the Solar panel with the data port facing sunrise. Place the Daylight Sensor horizontally with the data port facing North and the sensor facing up. Build a Logic Reader and a Batch Writer from the 2 [[Logic I/O]] Kits. Build a Math Unit from the [[Logic Processor]] kit and place the Logic Memory. Set the Logic Reader to read the Vertical Angle from the Daylight Sensor. Set the Logic Memory to 90. Set the left input of the Math Unit to read the Logic Memory. Set the right input of the Math Unit to read the Logic Reader. Set the bottom output of the Math Unit to subtract. Set the Batch Writer to read the Math unit and output the Vertical Angle to the [[Solar Panel (Dual)]]. Rotate the Solar Panel to 270°. Add an Area [[Power Controller]] to make sure the Logic Chips do not lose power.

==Combined Solar Tracking==
[[File:Combined Tracking Two Axis.png|thumb|Combined Vertical and Horizontal tracking .]]
Two-Chip Horizontal Tracking can be built independently and later upgraded by combining it with Four-Chip Vertical Tracking. In this way a simple yet functional solar power system can be constructed in the early game. Later the system can be upgraded to become more efficient. This is useful for Brutal Starts as it costs fewer resources and takes less [[time]] to get a functioning solar power setup.

'''What do you need:'''
* Build the Two-Chip Horizontal Tracking as shown above.
* Build the Four-Chip Vertical Tracking as shown above.
* The daylight sensor and [[Area Power Controller|area power controller]] can be shared between the two setups.
* Labelling the Logic Chips and Daylight Sensor will simplify setup
* If a labeler is unavailable the two logic networks can be built and configured separately so there is no overlap in component names.

== Six-chip dual-axis tracking ==
To get a "100%" accurate solar [[tracker]] on [[planets]] with an offset solar arc, you need to include the Horizontal component to the solar angle.

'''What do you need:'''
* [[Kit (Logic I/O)]] x4
* [[Kit (Logic Processor)]]
* [[Kit (Logic Memory)]]
* [[Sensors|Kit (Sensor)]] > [[Sensors#Daylight Sensor|Daylight Sensor]]

Place the [[Daylight Sensor]] facing up, '''with the [[Data Port]] facing north (0 degrees).'''

{| class="wikitable"
|-
! '''Horizontal'''
|-
! '''Chip''' !! '''Chip label''' !! '''IN''' !! '''VAR''' !! '''OUT'''
|-
| [[Logic]] Reader || Horizontal Reader || Daylight Sensor || Horizontal ||
|-
| Batch Writer || Horizontal Writer || Horizontal Reader || Horizontal || [[Solar Panel]]
|-
! '''Vertical'''
|-
! '''Chip''' !! '''Chip label''' !! '''IN''' !! '''VAR''' !! '''OUT'''
|-
| Logic Reader || Vertical Reader || Daylight Sensor || Vertical ||
|-
| Batch Writer || Vertical Writer || Vertical Correction Math || Vertical || Solar Panel
|-
! '''Chip''' !! '''Chip label''' !! '''Value'''
|-
| [[Logic Memory]] || Vertical Correction Memory || 90
|-
! '''Chip''' !! '''Chip label''' !! '''IN 1''' !! '''IN 2''' !! '''OUT'''
|-
| Logic Math || Vertical Correction Math || Vertical Reader || Vertical Correction Memory || Add
|}

[[File:2022-10-02 Two-axis solar tracking.png|Accurate two-axis solar tracking]]

The panels should align themselves to the sun, you make sure to '''put the [[Power]] Port on the panels facing east (east - 90 degrees).''' If you've already built the panels and logic with the Power Port facing west, swapping the direction of the sensor so that its Data Port faces south will allow the setup to work with no additional changes.

== Solar tracking using Integrated Circuits ==
Using [[Integrated_Circuit_(IC10)|Intergrated Logic Chips]] to track the sun will result in a much smaller logic set up, but the implementation might be a bit daunting at first. Conceptually the logic involved is the same.

* The orientation of the Solar Panel and Daylight Senor are the same.
* The Horizontal angle will need to be read from the Daylight Sensor
* The Vertical angle will need to be read for the Daylight Sensor
* The Vertical angle will need to be corrected.
** The following correction must be applied. (Vertical Angel + 90 = Vertical Angle{corrected}
* The Horizontal Angle will need to be sent to the Solar Panel
* The Vertical Angle will need to be sent to the Solar Panel
* Begin the process again

'''What you need:'''
* [[Integrated Circuit (IC10)]]
* [[Kit (IC Housing)]]
* [[Sensors|Kit (Sensor)]] > [[Sensors#Daylight Sensor|Daylight Sensor]]

And if you don't already have one set up:
* [[Kit (Computer)]]
* [[Motherboard (IC Editor)|IC Editor Motherboard]]

Place the '''Daylight Sensor''' facing up, note which direction the Data Port is facing, and which direction the solar panel Power Port is facing. These two directions are needed in the code. The '''Daylight Sensor''' is connected to the '''d0''' screw, that's all you need.

A simple code example can be found here: https://stationeering.com/tools/ic/_2FpmwojGnBq<br>
This code is considered "inefficient" since it's hard-coded to spam all types of [[solar panels]], even if you don't have them.

A better code example can be found here: https://stationeering.com/tools/ic/_2FpoBEcd3QK<br>
It targets the solar-panel types on '''d2''' and (optionally) '''d3''', so it's less spammy. It also has an option for a display ('''Kit ([[Console]])''') on '''d1''' that shows the sum of power output from both types of panels

== duality of orientation ==

Due to the coordinate system used by solar panels, it is actually possible to capture peak sunlight using two different (but related) H,V coordinates.

[[File:stationeers-solar-duality.svg|frameless|panels using different control logic to accomplish the same goal]]

This screenshot shows two sets of solar panels, each with its own daylight sensor. Each sensor is oriented differently to properly match its panel and formulas. The panel on the right uses panel.horizontal = daysensor.horizontal; panel.vertical = 90-daysensor.vertical; while the panel on the left uses panel.horizontal = daysensor.horizontal; panel.vertical = daysensor.vertical + 90. They both achieve the same orientation.

Solar Panel

2026-03-27T02:54:53Z

Starviking: /* Description */ Added link to logic guide

[[Category:Solar power]] [[Category:Power]]

[[Category:Machines]]
[[Category:Items]]
{{Itembox
| name = Kit (Solar Panel Basic)
| image = [[File:ItemKitSolarPanel.png]]
| createdwith = [[Electronics Printer]]
| cost = 10g [[Iron]], 2g [[Gold]], 10g [[Copper]]
| constructs = [[Solar Panel (Flat)]], [[Solar Panel (Angled)]]
| stacks = 5
| prefabhash = 844961456
| prefabname = ItemKitSolarPanelBasic
}}
{{Itembox
| name = Kit (Solar Panel)
| image = [[File:ItemKitSolarPanel.png]]
| createdwith = [[Electronics Printer]]
| cost = 5g [[Gold]], 20g [[Copper]], 15g [[Steel]]
| constructs = [[Solar Panel (Dual)]], [[Solar Panel]]
| stacks = 5
| prefabhash = -1924492105
| prefabname = ItemKitSolarPanel
}}
{{Itembox
| name = Kit (Solar Panel Basic Heavy)
| image = [[File:ItemKitSolarPanel.png]]
| createdwith = [[Electronics Printer]] (Tier Two)
| cost = 10g [[Copper]], 10g [[Steel]], 2g [[Electrum]], 10g [[Invar]]
| constructs = [[Solar Panel (Heavy Flat)]], [[Solar Panel (Heavy Angled)]]
| stacks = 5
| prefabhash = -528695432
| prefabname = x
}}
{{Itembox
| name = Kit (Solar Panel Heavy)
| image = [[File:ItemKitSolarPanel.png]]
| createdwith = [[Electronics Printer]] (Tier Two)
| cost = 20g [[Copper]], 10g [[Steel]], 5g [[Electrum]], 15g [[Astroloy]]
| constructs = [[Solar Panel (Heavy Dual)]], [[Solar Panel (Heavy)]]
| stacks = 5
| prefabhash = -364868685
| prefabname = x
}}
== Description ==
The '''Solar Panel''' generates [[power]] by absorbing sunlight, depending on solar intensity. Can be manually rotated using a [[Wrench]]. They can be built in two configurations: "dual" configuration with opposite side split power/data ports, or normal configuration with same side combined power/data ports.

Data ports can interact with [[Kit (Logic I/O)|Logic Chips]] or [[Integrated_Circuit_(IC10)|Integrated Circuits]] and [[Sensor#Daylight_Sensor|Daylight Sensors]] to [[Solar Logic Circuits Guide|automatically rotate the panel to face the sun]].

At the extreme attitude settings (0/100) the solar panel still faces 15 degrees above the horizon. Thus the total arc of vertical rotation is only 150 degrees from input values 0-100.

Can also be destroyed by [[Storm|storms]], or left with very little health. Best course of action is to remove the solar panels when you are notified of a [[storm]] by a [[Weather Station]], Which allows you to replace them once the [[storm]] is over.

During [[Solar Storms]] Solar Panels output more [[energy]]. Due to this, unexpected cable burnings and power shortages can happen.

They can be repaired with [[Duct Tape]], or by dissembling them and reassembling them. You could even cover them with windows to protect them from [[Storm|storms]] at the cost of some efficiency of the panels themselves being lost. And Heavy Solar Panels are a more expensive version that do not take [[storm]] damage but it is debatable if its worth making the tier 2 metal [[Astroloy]] to prevent [[storm]] damage whilst retaining maximum efficiency.

== Types of Solar Panel Kit ==

{{Structurebox
| name = Solar Panel
| power_usage = 0W to 500W generated
| placed_with_item = [[Kit (Solar Panel)]]
| placed_on_grid = Large Grid
| const_with_item1 = [[Glass Sheets|Glass Sheet]]
| decon_with_tool1 = [[Hand Drill]]
| item_rec1 = [[Kit (Solar Panel)]]
| decon_with_tool2 = [[Crowbar]]
| item_rec2 = [[Glass Sheets|Glass Sheet]]
| prefab_hash = -2045627372
| prefab_name = StructureSolarPanel
}}
{{Structurebox
| name = Solar Panel (Dual)
| power_usage = 0W to 500W generated
| placed_with_item = [[Kit (Solar Panel)]]
| placed_on_grid = Large Grid
| const_with_item1 = [[Glass Sheets|Glass Sheet]]
| decon_with_tool1 = [[Hand Drill]]
| item_rec1 = [[Kit (Solar Panel)]]
| decon_with_tool2 = [[Crowbar]]
| item_rec2 = [[Glass Sheets|Glass Sheet]]
| prefab_hash = -539224550
| prefab_name = StructureSolarPanelDual
}}
== Printed with the Electronics Printer (Tier One) ==
These are useful early on when resources are limited.
*'''Kit (Solar Panel Basic)''' don't have [[logic]] inputs so they can't be set up to automatically track the sun and spend most of their [[time]] at reduced power output. The position of Basic Solar Panel greatly effects the amount of energy the will collect.
*The position of '''Kit (Solar Panels)''' can be set manually using the [[Wrench|Wrench]]. In addition they have logic inputs and can be [[Solar Logic Circuits Guide|programmed to automatically track the sun]] for optimal power output.

== Printed with the Electronics Printer (Tier Two) ==
Heavy Solar Panels are protected against [[Storm|storm]] damage, but are more expensive to build. Note that not all [[planets]] have storms.

*'''Kit (Solar Panel Basic Heavy)''' are similar to Basic Solar Panels and do not have logic inputs.
*'''Kit (Solar Panel Heavy)''' are similar to Solar Panels and have logic inputs.
==Comparison==
{| class="wikitable"
|-
! Name of Construction !! Kit to Build !! Programmable Angle !! Immune to Storms !! Combined Power/Data Ports
|-
| Solar Panel (Flat) || Kit (Solar Panel Basic) || No || No || N/A
|-
| Solar Panel (Angled) || Kit (Solar Panel Basic) || No || No || N/A
|-
| Solar Panel || Kit (Solar Panel) || '''Yes''' || No || '''Yes'''
|-
| Solar Panel (Dual) || Kit (Solar Panel) || '''Yes'''|| No || No
|-
| Solar Panel (Heavy Flat) || Kit (Solar Panel Basic Heavy) || No || '''Yes'''|| N/A
|-
| Solar Panel (Heavy Angled) || Kit (Solar Panel Basic Heavy) || No || '''Yes'''|| N/A
|-
| Solar Panel (Heavy) || Kit (Solar Panel Heavy) || '''Yes'''|| '''Yes'''|| '''Yes'''
|-
| Solar Panel (Heavy Dual) || Kit (Solar Panel Heavy) || '''Yes'''|| '''Yes'''|| No
|-
|}

==Power Output==
{| class="wikitable"
|-
! [[World]] !! Solar Energy !! % of Earth !! Solar Angle
|-
| [[Worlds#Moon|Moon]] || 750W || 100% || 0°
|-
| [[Worlds#Mars|Mars]] || 550W || 51% || 8°
|-
| [[Worlds#Europa|Europa]] || 210W || 28% || 32°
|-
| [[Worlds#Mimas|Mimas]] || 90W || 12% || 126°
|-
| [[Worlds#Vulcan|Vulcan]] || 500W-1.2KW || 160% || 48°
|-
| [[Worlds#Venus|Venus]] || 1.15KW || 150% || 0°
|-
|}

==Usage==
===Positioning===

Pay close attention to the positioning of your solar panel since their automation will depend heavily on it. Any user-made scripts and guides will assume the solar panel is oriented with the [[Data Port|data port]] facing in a particular direction. Be sure to orient the panels with the [[Data Port|data port]] facing the same way as the guide you are following.

[[File:Solar panel yaw-Horizontal setting.png|400x300px|solar panel horizontal rotation]]

===Control===

Basic Solar panels can be manually positioned during construction to capture the most solar energy over the course of the day. On the [[Moon]] the best orientation is either a flat horizontal orientation or a 45° configuration facing East or West. On [[Mars]] the best Orientation is a 45° orientation facing south.

Solar panel can be manually pointed using the Wrench or automatically positioned by writing the desired position to [[Data Port|Data port]]. When setting up an automatic positioning system the orientation of the [[Data Port|Data port]] is a vary important factor for both the Daylight [[sensor]] and the Solar Panel.
Detailed information can be found in the [[Solar_Logic_Circuits_Guide|Solar Logic Circuits Guide]].

==Notes==
After placement be sure to install one [[Glass Sheets|Glass Sheet]] to make it functional.

See [[Sensors]] and [[Solar_Logic_Circuits_Guide|Solar Logic Circuits Guide]] for panel automation using logic [[circuits]].

{{Data Network Header}}

{{Data Parameters}}
{| class="wikitable"
|-
! Parameter Name !! Data Type !! Description
|-
| Horizontal || Degrees || Set the horizontal rotation of the Solar Panel (clockwise, 0-360°, [[Data Port|data port]] is at 270°)
|-
| Vertical || Degrees || Sets the vertical angle of the Solar Panel (As of at least version 0.2.3263.16264, solar panels accept input in degrees above the horizon instead of in percent, so the solar panels travel between inputs of 15 and 165, with 90 being straight up. Previously, this was supposedly a Percentage "accepting 0-100% which translates to 15°-165°, 50%=90° =zenith")
|-
| On || Boolean || Turns the solar panel on or off
|}

{{Data Outputs}}
{| class="wikitable"
|-
! Output Name !! Data Type !! Description
|-
| Charge || W || Returns the power generated in Watts
|-
| Horizontal || degrees || Returns the horizontal rotation of the Solar Panel
|-
| Vertical || % || Returns the vertical angle of the Solar Panel
|-
| Maximum || W || Maximum possible power for this planet
|-
| Ratio || || How close to maximum current performance is, 1.0 means panel is perfectly directed and unobstructed
|-
| On || Boolean || Returns the on/off state of the solar panel
|}

Advanced Furnace

2026-03-22T07:23:11Z

Starviking: /* Dirty fuel */

[[Category:Machines]]
{{Itembox
| name = Kit (Advanced Furnace)
| image = [[File:{{#setmainimage:ItemKitAdvancedFurnace.png}}]]
| prefabhash = -616758353
| prefabname = ItemKitAdvancedFurnace
| stacks = 1
| slot_class = SlotClass.None
| sorting_class = SortingClass.Kits
| recipe_machine1 = Electronics Printer (Tier Two)
| recipe_cost1 = 5g [[Gold]], 25g [[Copper]], 30g [[Steel]], 15g [[Electrum]], 8g [[Solder]], 6g [[Silicon]]
| constructs = [[Advanced Furnace]]
}}
{{Structurebox
| name = Advanced Furnace
| image = [[File:StructureAdvancedFurnace.png]]
| prefab_hash = 545937711
| prefab_name = StructureAdvancedFurnace
| power_usage = 100W
| placed_on_grid = Small Grid
| decon_with_tool1 = [[Hand Drill]]
| placed_with_item = [[Kit (Advanced Furnace)]]
| item_rec1 = [[Kit (Advanced Furnace)]]
| decon_with_tool2 = [[Wire Cutters]]
| const_with_item1 = 1 x [[Electronic Parts]]
| item_rec2 = 1 x [[Electronic Parts]]
| decon_with_tool3 = [[Angle Grinder]]
| const_with_tool2 = [[Welding Torch]]
| const_with_item2 = 5 x [[Steel Sheets]]
| item_rec3 = 5 x [[Steel Sheets]]
| decon_with_tool4 = [[Hand Drill]]
| const_with_tool3 = [[Screwdriver]]
}}
== Description ==
{{Description|The advanced furnace comes with integrated inlet and outlet pumps for controlling the unit's internal pressure.}}

The '''Advanced Furnace''' is used to create advanced alloys, but can be used in the same way as the basic furnace—to process ores and create basic alloys. In addition making more advance alloy the Advanced furnace feature [[power]] and data connections, allowing it's operation to be automated. The maximum safe [[pressure]] for the furnace is 60 MPa, once this pressure is exceeded the furnace will, in short order, explode. The furnace contains two embedded [[Pipe Volume Pump|volume pumps]] to control flow in and out, in order to use them, the furnace must be powered, and setting both to zero will put the furnace in a state of quiescence, but the furnace will slowly lose pressure and temperature. The capacity of the furnace is in excess of 5kg of materials so it is possible to make a full 500g ingot of an advanced alloy in one go.

In the early game, a regular [[Furnace]] will be easier to make and operate. While the advanced furnace is feature several additional features it's operation is similar to the basic furnace (add [[fuel]], ignite, add ore). The most common setups for advanced furnaces are:

* Ice only smelting
* Gaseous fueling
* hot and cold mixing

== Smelting ==

=== Required conditions for smelting ===
The following table shows the pressure and temperature conditions required to smelt various [[ores]] and alloys.

{{:Advanced Furnace/Recipes}}

=== Advanced alloy recipes ===
==== Ice only smelting ====

One of the simplest method for making Alloys is by manually loading Ices into the input slot of the furnace and igniting the fuel mixture.
<ref>[https://steamcommunity.com/sharedfiles/filedetails/?id=3291778232], The BFF, Bottle Fed Furnace.</ref>While this method produces crude fuel mixtures and the amount of fuel is not as precisely controlled as gaseous fueling, all basic and advanced alloys can be made using this method. The procedure is as follows.

* Prepare the ice and ores by splitting them into the the correct amounts and arranging them in you [[backpack]] or [[Mining Belt|mining belt]].

* When all the components are ready load the first set of ice chunks into the furnace.If the the ice does not melt on it's own (the input slot stays closed) press the button on the furnace's face to melt the ice.

* Load the second ice into the furnace. As soon as you press the button on the front of the furnace the fuel mixture will ignite.

* As soon as the furnace is lit quickly load the ores into the furnace. After all the ores are loaded wait for the button to turn green indicating the mixture has reached the correct temperature and pressure.

* Pull the lever to eject the finished alloy.

<div style="overflow-x: auto;">
{| class="wikitable"
! colspan="1" rowspan="1" |Alloy
! colspan="1" rowspan="1" |Ingredients
! colspan="1" rowspan="1" |Chunks
! colspan="1" rowspan="1" |Temperature
! colspan="1" rowspan="1" |Pressure
|-
| <div class="stationeers-icon">[[File:ItemStelliteIngot.png|link=Ingot (Stellite)]] <div class="stationeers-icon-text">50</div></div>'''[[Ingot (Stellite)|Stellite]]'''
|<div class="stationeers-icon">[[File:ItemSilverOre.png|link=Ore (Silver)]] <div class="stationeers-icon-text">50</div></div> '''[[Ore (Silver)|Silver Ore]]'''<br><div class="stationeers-icon">[[File:ItemCobaltOre.png|link=Ore (Cobalt)]] <div class="stationeers-icon-text">50</div></div>'''[[Ore (Cobalt)|Cobalt Ore]]''' <br> <div class="stationeers-icon">[[File:ItemSiliconOre.png|link=Ore (Silicon)]] <div class="stationeers-icon-text">100</div></div>'''[[Ore (Silicon)|Silicon Ore]]'''
|<div class="stationeers-icon">[[File:ItemVolatiles.png|link=Ice_(Volatiles)]] <div class="stationeers-icon-text">4</div></div>'''[[Ice_(Volatiles)|Volatiles]]''' <br> <div class="stationeers-icon">[[File:ItemOxite.png|link=Ice_(Oxite)]] <div class="stationeers-icon-text">2</div></div>'''[[Ice_(Oxite)|Oxite]]'''
|1.82 kK
|16.1 MPa
|-
| <div class="stationeers-icon">[[File:ItemInconelIngot.png|link=Ingot (Inconel)]] <div class="stationeers-icon-text">50</div></div>'''[[Ingot (Inconel)|Inconel]]'''
|<div class="stationeers-icon">[[File:ItemGoldOre.png|link=Ore (Gold)]] <div class="stationeers-icon-text">100</div></div> '''[[Ore (Gold)|Gold Ore]]'''<br><div class="stationeers-icon">[[File:ItemNickelOre.png|link=Ore (Nickel)]] <div class="stationeers-icon-text">50</div></div> '''[[Ore (Nickel)|Nickel Ore]]'''<br><div class="stationeers-icon">[[File:ItemSteelIngot.png|link=Ingot (Steel)]]<div class="stationeers-icon-text">50</div></div> '''[[Ingot (Steel)|Steel Ingot]]'''
|<div class="stationeers-icon">[[File:ItemVolatiles.png|link=Ice_(Volatiles)]] <div class="stationeers-icon-text">14</div></div>'''[[Ice_(Volatiles)|Volatiles]]''' <br> <div class="stationeers-icon">[[File:ItemOxite.png|link=Ice_(Oxite)]] <div class="stationeers-icon-text">7</div></div>'''[[Ice_(Oxite)|Oxite]]'''
|1.7 kK
|24.0 MPa +++
|-
|<div class="stationeers-icon">[[File:ItemAstroloyIngot.png|link=Ingot (Astroloy)]] <div class="stationeers-icon-text">50</div></div>'''[[Ingot (Astroloy)|Astroloy]]'''
|<div class="stationeers-icon">[[File:ItemSteelIngot.png|link=Ingot (Steel)]] <div class="stationeers-icon-text">100</div></div> '''[[Ingot (Steel)|Steel Ingot]]'''<br><div class="stationeers-icon">[[File:ItemCopperOre.png|link=Ore (Copper)]] <div class="stationeers-icon-text">50</div></div> '''[[Ore (Copper)|Copper Ore]]'''<br><div class="stationeers-icon">[[File:ItemCobaltOre.png|link=Ore (Cobalt)]] <div class="stationeers-icon-text">50</div></div> '''[[Ore (Cobalt)|Cobalt Ore]]'''
|<div class="stationeers-icon">[[File:ItemVolatiles.png|link=Ice_(Volatiles)]] <div class="stationeers-icon-text">18</div></div>'''[[Ice_(Volatiles)|Volatiles]]''' <br> <div class="stationeers-icon">[[File:ItemOxite.png|link=Ice_(Oxite)]] <div class="stationeers-icon-text">9</div></div>'''[[Ice_(Oxite)|Oxite]]'''
|1.85 kK
|31.6 MPa
|-
|<div class="stationeers-icon">[[File:ItemHastelloyIngot.png|link=Ingot (Hastelloy)]] <div class="stationeers-icon-text">50</div></div>'''[[Ingot (Hastelloy)|Hastelloy]]'''
|<div class="stationeers-icon">[[File:ItemSilverOre.png|link=Ore (Silver)]] <div class="stationeers-icon-text">100</div></div> '''[[Ore (Silver)|Silver Ore]]'''<br><div class="stationeers-icon">[[File:ItemNickelOre.png|link=Ore (Nickel)]] <div class="stationeers-icon-text">50</div></div> '''[[Ore (Nickel)|Nickel Ore]]''' <br><div class="stationeers-icon">[[File:ItemCobaltOre.png|link=Ore (Cobalt)]] <div class="stationeers-icon-text">50</div></div> '''[[Ore (Cobalt)|Cobalt Ore]]'''
|<div class="stationeers-icon">[[File:ItemVolatiles.png|link=Ice_(Volatiles)]] <div class="stationeers-icon-text">5</div></div>'''[[Ice_(Volatiles)|Volatiles]]''' <br> <div class="stationeers-icon">[[File:ItemOxite.png|link=Ice_(Oxite)]] <div class="stationeers-icon-text">86</div></div>'''[[Ice_(Oxite)|Oxite]]''' ^^^
|972 K
|26.43 MPa
|-
|<div class="stationeers-icon">[[File:ItemWaspaloyIngot.png|link=Ingot (Waspaloy)]] <div class="stationeers-icon-text">50</div></div>'''[[Ingot (Waspaloy)|Waspaloy]]'''
|<div class="stationeers-icon">[[File:ItemLeadOre.png|link=Ore (Lead)]] <div class="stationeers-icon-text">100</div></div> '''[[Ore (Lead)|Lead Ore]]''' <br><div class="stationeers-icon">[[File:ItemSilverOre.png|link=Ore (Silver)]] <div class="stationeers-icon-text">50</div></div>'''[[Ore (Silver)|Silver Ore]]'''<br><div class="stationeers-icon">[[File:ItemNickelOre.png|link=Ore (Nickel)]] <div class="stationeers-icon-text">50</div></div> '''[[Ore (Nickel)|Nickel Ore]]'''
|<div class="stationeers-icon">[[File:ItemVolatiles.png|link=Ice_(Volatiles)]] <div class="stationeers-icon-text">8</div></div>'''[[Ice_(Volatiles)|Volatiles]]''' <br> <div class="stationeers-icon">[[File:ItemOxite.png|link=Ice_(Oxite)]] <div class="stationeers-icon-text">300</div></div>'''[[Ice_(Oxite)|Oxite]]''' ^^^
|705 K
|51.5 MPa
|}
</div>

Note that at least one gas [[pipe]] must be connected to both the input and output gas lines to avoid error conditions.

+++ For [[Inconel]] the mixture pressure may overshoot the range slightly, either make the alloy when the pressure rises into the range, or a short wait will be necessary in order for the pressure to drop back into range.

^^^ The excess Oxites are necessary in order to limit the temperature of the mixture, however they can be substituted with other inert gasses.

==== Gaseous Fueling ====
[[File:ICE_CRUSHER.png|thumb|'''A basic [[Fuel#Basic_Ice_Crusher_Setup|ice crushing]], gas collection and measuring setup''']]
In this setup fuel is pumped into the furnace from either pre-measured canisters or pumped into the furnace in measured amounts. Fuel can be any number of [[Fuel#Fuel_Combustion|gas mixtures]].

* Prepare the gas mixture by pumping the indicated amount into a portable [[Gas Canister|gas canister]], or directly into the furnace. Prepare the ores by splitting them into the the correct amounts and arranging them in you [[backpack]] or [[Mining Belt|mining belt]].

* Do not use degas the ores or use an ingot in place of an ore. [[Stellite]], [[Hastelloy]] and [[Waspaloy]] all rely on the [[nitrous|nitrous oxide]] produced from the [[silver]] ore and [[lead]] ore used in their production.

* When all the components are ready load the first set of ice chunks into the furnace. If the the ice does not melt on it's own (the input slot stays closed) press the button on the furnace's face to melt the ice.

* After the fuel mixture is loaded into the furnace the first ore can be loaded into the input slot. As soon as you press the button on the front of the furnace the fuel mixture will ignite and the ore will begin to process.

* As soon as the furnace is lit quickly load the remaining ores into the furnace. After all the ores are loaded wait for the button to turn green indicating the mixture has reached the correct temperature and pressure.

* Pull the lever to eject the finished alloy.

* Using more or less ore or gas will result in an different pressure and temperature. Using Ingotsinstead of Ore chunks will result in an different pressure and temperature.

====Dirty fuel====
[[Fuel#Dirty_Fuel|Dirty Fuel]] is a 2:1 mixture of Volatile and Oxites gases. The table below shows the correct pressures of to load into a [[canister]], but currently omits [[Hydrogen]] and [[Nitrogen]] quantities.

<div style="overflow-x: auto;">
{| class="wikitable"
! colspan="1" rowspan="1" |Canister Pressure @ 0°C
! colspan="1" rowspan="1" |Primary Gases
! colspan="1" rowspan="1" |Ingredients
! colspan="1" rowspan="1" |Temperature
! colspan="1" rowspan="1" |Pressure
! colspan="1" rowspan="1" |Alloy
|-
|<div class="stationeers-icon">[[File:ItemGasCanisterFuel.png|link=Fuel]] <div class="stationeers-icon-text"></div> </div>'''[[Fuel#Dirty_Fuel|Dirty Fuel]]''' <br> ''' &emsp; &ensp; 4,500 KPa'''<br>
|<div class="stationeers-icon">[[File:Icon-Methane.png|link=Volatiles]] <div class="stationeers-icon-text"></div></div>'''73.6 Mols''' '''[[Volatiles|Volatiles]]''' <br> <div class="stationeers-icon">[[File:Icon-oxygen.png|link=Oxygen]] <div class="stationeers-icon-text"></div></div>'''41.4 Mols''' '''[[Oxygen|Oxygen]]''' <br> <br>
|<div class="stationeers-icon">[[File:ItemSilverOre.png|link=Ore (Silver)]] <div class="stationeers-icon-text">50</div></div> '''[[Ore (Silver)|Silver Ore]]'''<br><div class="stationeers-icon">[[File:ItemCobaltOre.png|link=Ore (Cobalt)]] <div class="stationeers-icon-text">50</div></div>'''[[Ore (Cobalt)|Cobalt Ore]]''' <br> <div class="stationeers-icon">[[File:ItemSiliconOre.png|link=Ore (Silicon)]] <div class="stationeers-icon-text">100</div></div>'''[[Ore (Silicon)|Silicon Ore]]'''
|'''1.55 kK'''
|'''18.1 MPa'''
|<div class="stationeers-icon">[[File:ItemStelliteIngot.png|link=Ingot (Stellite)]] <div class="stationeers-icon-text">50</div></div>'''[[Ingot (Stellite)|Stellite]]'''
|-
|<div class="stationeers-icon">[[File:ItemGasCanisterFuel.png|link=Fuel]] <div class="stationeers-icon-text"></div> </div> '''[[Fuel#Dirty_Fuel|Dirty Fuel]]''' <br> '''(2x) 8,500 KPa''' <br>
|<div class="stationeers-icon">[[File:Icon-Methane.png|link=Volatiles]] <div class="stationeers-icon-text"></div></div>'''278 Mols''' '''[[Volatiles|Volatiles]]''' <br> <div class="stationeers-icon">[[File:Icon-oxygen.png|link=Oxygen]] <div class="stationeers-icon-text"></div></div>'''156 Mols''' '''[[Oxygen|Oxygen]]''' <br> <br>
|<div class="stationeers-icon">[[File:ItemGoldOre.png|link=Ore (Gold)]] <div class="stationeers-icon-text">100</div></div> '''[[Ore (Gold)|Gold Ore]]'''<br><div class="stationeers-icon">[[File:ItemNickelOre.png|link=Ore (Nickel)]] <div class="stationeers-icon-text">50</div></div> '''[[Ore (Nickel)|Nickel Ore]]'''<br><div class="stationeers-icon">[[File:ItemSteelIngot.png|link=Ingot (Steel)]]<div class="stationeers-icon-text">50</div></div> '''[[Ingot (Steel)|Steel Ingot]]'''
|'''1.68 kK'''
|'''23.7 MPa'''
| <div class="stationeers-icon">[[File:ItemInconelIngot.png|link=Ingot (Inconel)]] <div class="stationeers-icon-text">50</div></div>'''[[Ingot (Inconel)|Inconel]]'''
|-
|<div class="stationeers-icon">[[File:ItemGasCanisterFuel.png|link=Fuel]] <div class="stationeers-icon-text"></div> </div> '''[[Fuel#Dirty_Fuel|Dirty Fuel]]''' <br> '''(3x) 7,333 KPa'''<br>
|<div class="stationeers-icon">[[File:Icon-Methane.png|link=Volatiles]] <div class="stationeers-icon-text"></div></div>'''360 Mols''' '''[[Volatiles|Volatiles]]''' <br> <div class="stationeers-icon">[[File:Icon-oxygen.png|link=Oxygen]] <div class="stationeers-icon-text"></div></div>'''202 Mols''' '''[[Oxygen|Oxygen]]'''<br> <br>
|<div class="stationeers-icon">[[File:ItemSteelIngot.png|link=Ingot (Steel)]] <div class="stationeers-icon-text">100</div></div> '''[[Ingot (Steel)|Steel Ingot]]'''<br><div class="stationeers-icon">[[File:ItemCopperOre.png|link=Ore (Copper)]] <div class="stationeers-icon-text">50</div></div> '''[[Ore (Copper)|Copper Ore]]'''<br><div class="stationeers-icon">[[File:ItemCobaltOre.png|link=Ore (Cobalt)]] <div class="stationeers-icon-text">50</div></div> '''[[Ore (Cobalt)|Cobalt Ore]]'''
|'''1.850 kK'''
|'''31.5 MPa'''
|<div class="stationeers-icon">[[File:ItemAstroloyIngot.png|link=Ingot (Astroloy)]] <div class="stationeers-icon-text">50</div></div>'''[[Ingot (Astroloy)|Astroloy]]'''
|-
|<div class="stationeers-icon">[[File:ItemGasCanisterFuel.png|link=Fuel]] <div class="stationeers-icon-text"></div></div> '''[[Fuel#Dirty_Fuel|Dirty Fuel]]''' <br>''' &emsp; &ensp; 5,500 KPa'''<br> <br><div class="stationeers-icon">[[File:ItemGasCanisterCarbonDioxide.png|link=Carbon_Dioxide]] <div class="stationeers-icon-text"></div></div>'''[[Carbon_Dioxide|Pressurant]]'''<br>''' (8x) 9,000 KPa'''
|<div class="stationeers-icon">[[File:Icon-Methane.png|link=Volatiles]] <div class="stationeers-icon-text"></div></div>'''89.9 Mols''' '''[[Volatiles|Volatiles]]''' <br> <div class="stationeers-icon">[[File:Icon-oxygen.png|link=Oxygen]] <div class="stationeers-icon-text"></div></div>'''50.6 Mols''' '''[[Oxygen|Oxygen]]''' <br> <br> <div class="stationeers-icon">[[File:ItemGasCanisterCarbonDioxide.png|link=Carbon_Dioxide]] <div class="stationeers-icon-text"></div></div>'''2,010 Mols''' '''[[Carbon_Dioxide|Pressurant]] ^^^'''
|<div class="stationeers-icon">[[File:ItemSilverOre.png|link=Ore (Silver)]] <div class="stationeers-icon-text">100</div></div> '''[[Ore (Silver)|Silver Ore]]'''<br><div class="stationeers-icon">[[File:ItemNickelOre.png|link=Ore (Nickel)]] <div class="stationeers-icon-text">50</div></div> '''[[Ore (Nickel)|Nickel Ore]]''' <br><div class="stationeers-icon">[[File:ItemCobaltOre.png|link=Ore (Cobalt)]] <div class="stationeers-icon-text">50</div></div> '''[[Ore (Cobalt)|Cobalt Ore]]'''
|'''995 K'''
|'''25.5 MPa'''
|<div class="stationeers-icon">[[File:ItemHastelloyIngot.png|link=Ingot (Hastelloy)]] <div class="stationeers-icon-text">50</div></div>'''[[Ingot (Hastelloy)|Hastelloy]]'''
|-
|<div class="stationeers-icon">[[File:ItemGasCanisterFuel.png|link=Fuel]] <div class="stationeers-icon-text"></div></div> '''[[Fuel#Dirty_Fuel|Dirty Fuel]]'''</div> <br>''' (2x) 9,000 KPa'''<br> <br><div class="stationeers-icon">[[File:ItemGasCanisterCarbonDioxide.png|link=Carbon_Dioxide]] <div class="stationeers-icon-text"></div></div>'''[[Carbon_Dioxide|Pressurant]]'''<br>'''(22x) 10,000 KPa'''
|<div class="stationeers-icon">[[File:Icon-Methane.png|link=Volatiles]] <div class="stationeers-icon-text"></div></div>'''295 Mols''' '''[[Volatiles|Volatiles]]''' <br> <div class="stationeers-icon">[[File:Icon-oxygen.png|link=Oxygen]] <div class="stationeers-icon-text"></div></div>'''166 Mols''' '''[[Oxygen|Oxygen]]''' <br> <br> <div class="stationeers-icon">[[File:ItemGasCanisterCarbonDioxide.png|link=Carbon_Dioxide]] <div class="stationeers-icon-text"></div></div>'''7,050 Mols''' '''[[Carbon_Dioxide|Pressurant]] ^^^'''
|<div class="stationeers-icon">[[File:ItemLeadOre.png|link=Ore (Lead)]] <div class="stationeers-icon-text">100</div></div> '''[[Ore (Lead)|Lead Ore]]''' <br><div class="stationeers-icon">[[File:ItemSilverOre.png|link=Ore (Silver)]] <div class="stationeers-icon-text">50</div></div>'''[[Ore (Silver)|Silver Ore]]'''<br><div class="stationeers-icon">[[File:ItemNickelOre.png|link=Ore (Nickel)]] <div class="stationeers-icon-text">50</div></div> '''[[Ore (Nickel)|Nickel Ore]]'''
|'''669 K'''
|'''50.3 MPa'''
|<div class="stationeers-icon">[[File:ItemWaspaloyIngot.png|link=Ingot (Waspaloy)]] <div class="stationeers-icon-text">50</div></div>'''[[Ingot (Waspaloy)|Waspaloy]]'''
|}

^^^ These recipes use CO<sub>2</sub> @ 0°C as a pressurant. Other pressurants such as Nitrogen, Pollutants, and Oxygen are possible, but they may result in different outcomes.

=== Fuel mixing ===
[[File:Advanced-furnace-gas-mixing.png|thumb|rudimentary setup for mixing H<sub>2</sub>, O<sub>2</sub>, and dilutant]]
In this setup, the furnace's input is connected to a [[Gas Mixer|gas mixer]] to provide fuel, and often a dilutant (used to increase the pressure without spending extra fuel). The [[Furnace temperature and pressure math]] article contains formulas useful for crafting recipes to hit temperature and pressure targets.

=== Hot and cold mixing ===
This setup involves external [[tank|tanks]] of hot and cold gasses, which are then mixed to achieve a target temperature and pumped into the furnace to achieve the target pressure. On most [[worlds]] maintaining a cold [[tank]] is quite easy (because the [[atmosphere]] on most worlds is below the temperature needed to smelt ore). Maintaining a hot tank is a little trickier, and either involves a lot of [[energy]] spent on [[Pipe Heater]]s, or an auxiliary furnace to combust fuel and pipe the exhaust into an insulated tank. Another easier option is to have the entire setup, furnace, [[pipes]] and tanks, in an enclosed vacuum chamber, so heat remains in the gases. Note that the outside atmosphere on worlds with no air doesn't count, it must be an enclosed chamber with all air pumped out

{{Data Network Header}}

{{Data Parameters|
{{Data Parameters/row|Power|Boolean|w=0|Can be read to return if the Advanced Furnace is correctly powered or not, set via the power system, return 1 if powered and 0 if not|multiple=2|0|Unpowered|1|Powered}}
{{Data Parameters/row|Open|Integer|1 if device is open, otherwise 0}}
{{Data Parameters/row|Mode|Integer|The Advanced Furnace's smelting result.|multiple=2|0|Invalid|1|Valid}}
{{Data Parameters/row|Error|Boolean|w=0|1 if device is in error state, otherwise 0|multiple=2|0|<p></p>|1|Error}}
{{Data Parameters/row|Pressure|Float|w=0|The current pressure reading of the Advanced Furnace}}
{{Data Parameters/row|Temperature|Integer|w=0|The current temperature reading of the Advanced Furnace}}
{{Data Parameters/row|Activate|Integer|Activates the Advanced Furnace when set to 1. Deactivates when set to 0.}}
{{Data Parameters/row|Lock|Boolean|Disable manual operation of the Advanced Furnace.|multiple=2|0|Unlocked|1|Locked}}
{{Data Parameters/row|Setting|Integer|A variable setting that can be read or written.}}
{{Data Parameters/row|Reagents|Integer|w=0|Total number of reagents recorded by the Advanced Furnace}}
{{Data Parameters/row|RatioOxygen|Float|w=0|The ratio of [[Oxygen]] in device atmosphere|0.0 to 1.0}}
{{Data Parameters/row|RatioCarbonDioxide|Float|w=0|The ratio of [[Carbon Dioxide]] in device atmosphere|0.0 to 1.0}}
{{Data Parameters/row|RatioNitrogen|Float|w=0|The ratio of [[Nitrogen]] in device atmosphere|0.0 to 1.0}}
{{Data Parameters/row|RatioPollutant|Float|w=0|The ratio of [[Pollutant]] in device atmosphere|0.0 to 1.0}}
{{Data Parameters/row|RatioVolatiles|Float|w=0|The ratio of [[Volatiles]] in device atmosphere|0.0 to 1.0}}
{{Data Parameters/row|RatioWater|Float|w=0|The ratio of [[Water]] in device atmosphere|0.0 to 1.0}}
{{Data Parameters/row|Maximum|Float|w=0|Maximum setting of the Advanced Furnace}}
{{Data Parameters/row|Ratio|Float|w=0|Context specific value depending on device, 0 to 1 based ratio|0.0 to 1.0}}
{{Data Parameters/row|On|Boolean|The current state of the Advanced Furnace.|multiple=2|0|Off|1|On}}
{{Data Parameters/row|RequiredPower|Integer|w=0|Idle operating power quantity, does not necessarily include extra demand power}}
{{Data Parameters/row|RecipeHash|Integer|w=0|Current hash of the recipe the Advanced Furnace is set to produce}}
{{Data Parameters/row|ClearMemory|Integer|r=0|When set to 1, clears the counter memory (e.g. ExportCount). Will set itself back to 0 when actioned}}
{{Data Parameters/row|ExportCount|Integer|w=0|How many items exported since last ClearMemory}}
{{Data Parameters/row|ImportCount|Integer|w=0|How many items imported since last ClearMemory}}
{{Data Parameters/row|TotalMoles|Float|w=0|Returns the total moles of the Advanced Furnace}}
{{Data Parameters/row|RatioNitrousOxide|Float|w=0|The ratio of [[Nitrous Oxide]] in device atmosphere|0.0 to 1.0}}
{{Data Parameters/row|PrefabHash|Integer|w=0|The hash of the structure}}
{{Data Parameters/row|SettingInput|Integer|The input setting for the Advanced Furnace}}
{{Data Parameters/row|SettingOutput|Integer|The output setting for the Advanced Furnace}}
{{Data Parameters/row|Combustion|Boolean|w=0|Assess if the atmosphere is on fire. Returns 1 if atmosphere is on fire, 0 if not.|0 or 1}}
{{Data Parameters/row|RatioLiquidNitrogen|Float|w=0|The ratio of [[Nitrogen#Liquid|Liquid Nitrogen]] in device atmosphere|0.0 to 1.0}}
{{Data Parameters/row|RatioLiquidOxygen|Float|w=0|The ratio of [[Oxygen#Liquid|Liquid Oxygen]] in device's Atmosphere|0.0 to 1.0}}
{{Data Parameters/row|RatioLiquidVolatiles|Float|w=0|The ratio of [[Volatiles#Liquid|Liquid Volatiles]] in device's Atmosphere|0.0 to 1.0}}
{{Data Parameters/row|RatioSteam|Float|w=0|The ratio of [[Steam]] in device's Atmosphere|0.0 to 1.0}}
{{Data Parameters/row|RatioLiquidCarbonDioxide|Float|w=0|The ratio of [[Carbon Dioxide#Liquid|Liquid Carbon Dioxide]] in device's Atmosphere|0.0 to 1.0}}
{{Data Parameters/row|RatioLiquidPollutant|Float|w=0|The ratio of [[Pollutant#Liquid|Liquid Pollutant]] in device's Atmosphere|0.0 to 1.0}}
{{Data Parameters/row|RatioLiquidNitrousOxide|Float|w=0|The ratio of [[Nitrous Oxide#Liquid|Liquid Nitrous Oxide]] in device's Atmosphere|0.0 to 1.0}}
{{Data Parameters/row|ReferenceId|Integer|w=0|Unique Reference Identifier for this object}}
{{Data Parameters/row|RatioHydrogen|Float|w=0|DEPRECATED|0.0 to 1.0}}
{{Data Parameters/row|RatioLiquidHydrogen|Float|w=0|DEPRECATED|0.0 to 1.0}}
{{Data Parameters/row|RatioPollutedWater|Float|w=0|The ratio of polluted water in device atmosphere|0.0 to 1.0}}
{{Data Parameters/row|NameHash|Integer|w=0|Provides the hash value for the name of the object as a 32 bit integer.}}
}}

=== Data Slots ===
These are all parameters, that can be read with a [[Kit_(Logic_I/O)#Slots_Reader|Slots Reader]]. The outputs are listed in the order a Slots Reader's "VAR" setting cycles through them.
{| class="wikitable"
|-
! Number || Name !! Description
|-
| 0? || Import || Import slot.
|-
| 1? || Export || Export slot.
|}

{| class="wikitable"
|-
! Name !! Data Type !! Description
|-
| OccupantHash
|-
| Occupied || Boolean || Returns whether the slot occupied. (0 for no, 1 for yes).
|-
| PrefabHash
|-
| Quantity
|-
| Class
|-
| Damage
|-
|MaxQuantity
|}

Furnace

2026-03-22T07:22:34Z

Starviking: /* Dirty fuel */

[[Category:Machines]]
{{Itembox
| name = Kit (Furnace)
| image = [[File:ItemKitFurnace.png]]
| recipe_machine1 = Autolathe
| recipe_cost1 = 30g [[Iron|Iron]], 10g [[Copper|Copper]]
| recipe_machine2 = Fabricator
| recipe_cost2 = 30g [[Iron|Iron]], 10g [[Copper|Copper]]
| volume = 1000 L

}}

''This article is about the basic furnace. For the advanced version, see [[Advanced Furnace]].
{{Structurebox
| name = Furnace
| image = [[File:Furnace.jpg]]
| prefab_hash = 1947944864
| prefab_name = StructureFurnace
| placed_with_item = [[Kit (Furnace)]]
| placed_on_grid = Small Grid
| const_with_tool1 = [[Wrench]]
| const_with_item1 = 2x [[Iron Sheets]]
| decon_with_tool1 = [[Crowbar]]
| item_rec1 = [[Kit (Furnace)]]
| const_with_tool2 = [[Welding Torch]]
| const_with_item2 = 2x [[Iron Sheets]]
| decon_with_tool2 = [[Crowbar|Crowbar]]
| item_rec2 = 2x [[Iron Sheets]]
| decon_with_tool3 = [[Angle Grinder]]
| item_rec3 = 2x [[Iron Sheets|Iron Sheets]]
}}

== Description ==
The <b>Furnace</b> is used to smelt [[Ore|ore]] into [[ingots]] and alloys using an [[Fuel|fuel mixture]]. Gases can be fed in measured amounts directly into the furnace via the pipe inlet. Alternately [[Ice (Oxite)|Oxite]] and [[Ice (Volatiles)|Volatiles]] can be manually fed into the input slot of the furnace in order to create crude gas mixtures. The Furnace can do everything the [[Arc Furnace]] can do, but without using electricity, and far more efficiently. The furnace can also be used to melt Ices which can then be directly extracted as an easy trick for melting ice.

It features a gas [[pipe]] input port (connected to its internal storage through an internal always-open [[One_Way_Valve_(Gas)|one-way valve]]), a gas pipe output port (which lacks a one-way valve and acts as a bidirectional gas port), and a liquid output port (which acts as an always-open [[Condensation_Valve|condensation valve]]).

The face of the furnace has a button that will ignite any flammable gas mixture inside furnace. If the furnace is cold any ice loaded into the input slot will not melt, however pressing the button will melt a single chunk of ice each [[time]] it is pressed. In addition the button indicates the status of any ingot or alloy mix inside the furnace. If the button is green the ore or alloy mix is within the temperature range required for smelting.

The contents of the furnace can be ejected by pulling the lever on the front. If the contents have not reached the required temperature and [[pressure]] for smelting, they'll come out as [[Reagent Mix]]. Reagent mix can be processed in a [[Centrifuge]] to recover the raw [[ores]]. [[Reagent Mix]] can also be re-smelted if the ingredients and ratios are a valid alloy recipe. This allows an intermission when the resources for reaching the required temperature / pressure are not on hand / need to be gathered first. Effectively, this means that the used metals can be 'reserved' for the intended alloy.

While the Furnace can be used to smelt basic ores and to make simpler alloys, but an [[Advanced Furnace]] will be required for the more complex alloys.

'''Danger''': The furnace is '''not insulated''', so it interacts with the surrounding [[atmosphere]] and can heat rooms to dangerous levels within minutes.

All the alloys the furnace can smelt are easily achieved with ice, and they can also be smelted using gases fed into the furnace through the pipe inputs. Regardless of which method is used the furnace gases must be purged thru a working piping setup (a valve and [[Passive Vent|passive vent]] at bare minimum to vent the internal gasses).

Gaseous [[fuel]] can be premixed and fed into the furnace. This can be done by feeding Volatile ices and Oxite ices in an [[Ice Crusher]] in the correct ratio to produce [[Fuel#Basic_Ice_Crusher_Setup|fuel]]. There are a number of different gases mixtures. <br>The Furnace's output can also be extracted and vented/recycled through a backpressure regulator to maintain furnace pressure. Adding additional gases to the furnace can result in lower temperature if that is desired, but you could also use a volume pump with a lower fuel input setting.

'''Make sure to put the fuel in first, then press the activate button. Afterwards put in the ingredients and wait for the button to turn green. You can verify that the mixture is ready by hovering over the furnce, if "will produce xxxxx" is shown then you can extract the alloy by pulling the lever on the front.''' Also, You MUST put in exact amounts matching the recipe amounts. For instance, you must put in 12 [[iron]] and 4 [[coal]] to make 16 steel. You cannot put in 12 iron and 7 coal. The furnace will on produce a reagent mix if the ingredient ratios are not correct and you will have to eject the mixture or add additional resources to balance the recipe.

== Smelting ==
=== Required conditions for smelting ===
The following table shows the pressure and temperature conditions required to smelt various ores and alloys.
{{:Furnace/Recipes}}

===Alloy recipes===
====Ice only recipes====

Alloys can be made in the furnace by manually loading Ices into the input slot of the furnace and igniting the fuel mixture. While this method produces crude fuel mixtures and the amount of fuel is not as precisely controlled as gaseous fueling, all the basic alloys can be made using this method. The procedure is as follows.
* Prepare the ice and ores by splitting them into the the correct amounts and arranging them in you [[backpack]] or [[Mining Belt|mining belt]].

* When all the components are ready load the first set of ice chunks into the furnace.If the the ice does not melt on it's own (the input slot stays closed) press the button on the furnace's face to melt the ice.

* Load the second ice into the furnace. As soon as you press the button on the front of the furnace the fuel mixture will ignite.

* As soon as the furnace is lit quickly load the ores into the furnace. After all the ores are loaded wait for the button to turn green indicating the mixture has reached the correct temperature and pressure.

* Pull the lever to eject the finished alloy.

<div style="overflow-x: auto;">
{| class="wikitable"
<div style="overflow-x: auto;">
{| class="wikitable"
|-
! colspan="1" rowspan="1" |Ice Chunks
! colspan="1" rowspan="1" |Ingredients
! colspan="1" rowspan="1" |Temperature
! colspan="1" rowspan="1" |Pressure
! colspan="1" rowspan="1" |Alloy
|-
|<div class="stationeers-icon">[[File:ItemVolatiles.png|link=Ice_(Volatiles)]] <div class="stationeers-icon-text">2</div></div>'''[[Ice_(Volatiles)|Volatiles]]''' <br> <div class="stationeers-icon">[[File:ItemOxite.png|link=Ice_(Oxite)]] <div class="stationeers-icon-text">1</div></div>'''[[Ice_(Oxite)|Oxite]]'''
|<div class="stationeers-icon">[[File:ItemIronOre.png|link=Ore (Iron)]] <div class="stationeers-icon-text">150</div> </div> '''[[Ore (Iron)|Iron Ore]]''' <br> <div class="stationeers-icon">[[File:ItemCoalOre.png|link=Ore (Coal)]] <div class="stationeers-icon-text">50</div></div> '''[[Ore (Coal)|Coal]]'''
|950 K
|6.82 MPa
|<div class="stationeers-icon">[[File:ItemSteelIngot.png|link=Ingot (Steel)]] <div class="stationeers-icon-text">200</div></div>'''[[Ingot (Steel)|Steel]]'''
|-
|<div class="stationeers-icon">[[File:ItemVolatiles.png|link=Ice_(Volatiles)]] <div class="stationeers-icon-text">13</div></div>'''[[Ice_(Volatiles)|Volatiles]]'''<br> <div class="stationeers-icon">[[File:ItemOxite.png|link=Ice_(Oxite)]] <div class="stationeers-icon-text">7</div></div>'''[[Ice_(Oxite)|Oxite]]'''
|<div class="stationeers-icon">[[File:ItemCopperOre.png|link=Ore (Copper)]] <div class="stationeers-icon-text">50</div></div> '''[[Ore (Copper)|Copper Ore]]''' <br> <div class="stationeers-icon">[[File:ItemNickelOre.png|link=Ore (Nickel)]] <div class="stationeers-icon-text">50</div></div> '''[[Ore (Nickel)|Nickel Ore]]'''
|1.72 kK
|20.8 MPa
|<div class="stationeers-icon">[[File:ItemConstantanIngot.png|link=Ingot (Constantan)]] <div class="stationeers-icon-text">100</div></div>'''[[Ingot (Constantan)|Constantan]]'''
|-
|<div class="stationeers-icon">[[File:ItemVolatiles.png|link=Ice_(Volatiles)]] <div class="stationeers-icon-text">9</div></div>'''[[Ice_(Volatiles)|Volatiles]]'''<br> <div class="stationeers-icon">[[File:ItemOxite.png|link=Ice_(Oxite)]] <div class="stationeers-icon-text">24</div></div>'''[[Ice_(Oxite)|Oxite]]'''
|<div class="stationeers-icon">[[File:ItemNickelOre.png|link=Ore (Nickel)]] <div class="stationeers-icon-text">50</div></div> '''[[Ore (Nickel)|Nickel Ore]]''' <br> <div class="stationeers-icon">[[File:ItemIronOre.png|link=Ore (Iron)]] <div class="stationeers-icon-text">50</div></div> '''[[Ore (Iron)|Iron Ore]]'''
|1.43 kK
|18.7 MPa
|<div class="stationeers-icon">[[File:ItemInvarIngot.png|link=Ingot (Invar)]] <div class="stationeers-icon-text">100</div></div>'''[[Ingot (Invar)|Invar]]'''
|-
|<div class="stationeers-icon">[[File:ItemVolatiles.png|link=Ice_(Volatiles)]] <div class="stationeers-icon-text">1</div></div>'''[[Ice_(Volatiles)|Volatiles]]''' <br> <div class="stationeers-icon">[[File:ItemOxite.png|link=Ice_(Oxite)]] <div class="stationeers-icon-text">1</div></div>'''[[Ice_(Oxite)|Oxite]]'''
|<div class="stationeers-icon">[[File:ItemSilverIngot.png|link=Ingot (Silver)]] <div class="stationeers-icon-text">50</div></div>'''[[Ingot (Silver)|Silver Ingot]] ***''' <br> <div class="stationeers-icon">[[File:ItemGoldIngot.png|link=Ingot (Gold)]] <div class="stationeers-icon-text">50</div></div>'''[[Ingot (Gold)|Gold Ingot]] ***'''
|1020 K
|840 KPa
|<div class="stationeers-icon">[[File:ItemElectrumIngot.png|link=Ingot (Electrum)]] <div class="stationeers-icon-text">100</div></div>'''[[Ingot (Electrum)|Electrum]]'''
|-
|<div class="stationeers-icon">[[File:ItemVolatiles.png|link=Ice_(Volatiles)]] <div class="stationeers-icon-text">1</div></div>'''[[Ice_(Volatiles)|Volatiles]]''' <br> <div class="stationeers-icon">[[File:ItemNitrice.png|link=Ice_(Nitrice)]] <div class="stationeers-icon-text">2</div></div>'''[[Ice_(Nitrice)|Nitrice]]''' <br> <div class="stationeers-icon">[[File:ItemIce.png|link=Ice_(Water)]] <div class="stationeers-icon-text">4</div></div>'''[[Ice_(Water)|Water Ice]]'''
|<div class="stationeers-icon">[[File:ItemLeadIngot.png|link=Ingot (Lead)]] <div class="stationeers-icon-text">50</div></div>'''[[Ingot (Lead)|Lead Ingot]] ***''' <br> <div class="stationeers-icon">[[File:ItemIronOre.png|link=Ore (Iron)]] <div class="stationeers-icon-text">50</div></div> '''[[Ore (Iron)|Iron Ore]]'''
|526 K
|1.26 MPa
| <div class="stationeers-icon">[[File:ItemSolderIngot.png|link=Ingot (Solder)]] <div class="stationeers-icon-text">100</div></div>'''[[Ingot (Solder)|Solder]]'''
|}
</div>
'''***''' Ingots are used instead of raw ores to prevent the production of extra gases when making these recipes
</div>

====Gaseous Fuel Recipes====
[[File:ICE_CRUSHER.png|thumb|'''A basic [[Fuel#Basic_Ice_Crusher_Setup|ice crushing]], gas collection and measuring setup''']]
In this setup fuel is pumped into the furnace from either pre-measured canisters or pumped into the furnace in measured amounts. Smelting can be accomplished using any number of [[Fuel#Fuel_Combustion|gas mixtures]].

* Prepare the gas mixture by pumping the indicated amount into a portable [[Gas Canister|gas canister]], or directly into the furnace. Prepare the ores by splitting them into the the correct amounts and arranging them in you [[backpack]] or mining belt.

* When all the components are ready load the first set of ice chunks into the furnace. If the the ice does not melt on it's own (the input slot stays closed) press the button on the furnace's face to melt the ice.

* After the fuel mixture is loaded into the furnace the first ore can be loaded into the input slot. As soon as you press the button on the front of the furnace the fuel mixture will ignite and the ore will begin to process.

* As soon as the furnace is lit quickly load the remaining ores into the furnace. After all the ores are loaded wait for the button to turn green indicating the mixture has reached the correct temperature and pressure.

* Pull the lever to eject the finished alloy.

====Dirty fuel====
[[Fuel#Dirty_Fuel|Dirty Fuel]] is a 2:1 mixture of Volatile and Oxites gases. The table below shows the correct pressures of gases to load into a [[canister]], but currently omits [[Hydrogen]] and [[Nitrogen]] quantities.
<div style="overflow-x: auto;">
{| class="wikitable"
! colspan="1" rowspan="1" |Canister Pressure @ 0°C
! colspan="1" rowspan="1" |Primary Gases
! colspan="1" rowspan="1" |Ingredients
! colspan="1" rowspan="1" |Temperature
! colspan="1" rowspan="1" |Pressure
! colspan="1" rowspan="1" |Alloy
|-
|<div class="stationeers-icon">[[File:ItemGasCanisterFuel.png|link=Fuel]] <div class="stationeers-icon-text"></div> </div> '''[[Fuel#Dirty_Fuel|Dirty Fuel]]''' <br>''' &ensp; &emsp;1,500 KPa''' <br>
|<div class="stationeers-icon">[[File:Icon-Methane.png|link=Volatiles]] <div class="stationeers-icon-text"></div></div>'''24.5 Mols''' '''[[Methane|Methane]]''' <br> <div class="stationeers-icon">[[File:Icon-oxygen.png|link=Oxygen]] <div class="stationeers-icon-text"></div></div>'''13.8 Mols''' '''[[Oxygen|Oxygen]]'''
|<div class="stationeers-icon">[[File:ItemIronOre.png|link=Ore (Iron)]] <div class="stationeers-icon-text">75</div> </div> '''[[Ore (Iron)|Iron Ore]]''' <br> <div class="stationeers-icon">[[File:ItemCoalOre.png|link=Ore (Coal)]] <div class="stationeers-icon-text">25</div></div> '''[[Ore (Coal)|Coal]]'''
|'''907 K'''
|'''4.72 MPa'''
|<div class="stationeers-icon">[[File:ItemSteelIngot.png|link=Ingot (Steel)]] <div class="stationeers-icon-text">100</div></div>'''[[Ingot (Steel)|Steel]]'''
|-
|<div class="stationeers-icon">[[File:ItemGasCanisterFuel.png|link=Fuel]] <div class="stationeers-icon-text"></div> </div> '''[[Fuel#Dirty_Fuel|Dirty Fuel]]''' <br> ''' &ensp; &emsp;2,700 KPa''' <br>
|<div class="stationeers-icon">[[File:Icon-Methane.png|link=Volatiles]] <div class="stationeers-icon-text"></div></div>'''44.1 Mols''' '''[[Methane|Methane]]''' <br> <div class="stationeers-icon">[[File:Icon-oxygen.png|link=Oxygen]] <div class="stationeers-icon-text"></div></div>'''24.8 Mols''' '''[[Oxygen|Oxygen]]'''
|<div class="stationeers-icon">[[File:ItemIronOre.png|link=Ore (Iron)]] <div class="stationeers-icon-text">150</div> </div> '''[[Ore (Iron)|Iron Ore]]''' <br> <div class="stationeers-icon">[[File:ItemCoalOre.png|link=Ore (Coal)]] <div class="stationeers-icon-text">50</div></div> '''[[Ore (Coal)|Coal]]'''
|'''907 K'''
|'''9.28 MPa'''
|<div class="stationeers-icon">[[File:ItemSteelIngot.png|link=Ingot (Steel)]] <div class="stationeers-icon-text">200</div></div>'''[[Ingot (Steel)|Steel]]'''
|-
|<div class="stationeers-icon">[[File:ItemGasCanisterFuel.png|link=Fuel]] <div class="stationeers-icon-text"></div> </div> '''[[Fuel#Dirty_Fuel|Dirty Fuel]]'''<br> ''' &emsp; &emsp; 250 KPa''' <br>
|<div class="stationeers-icon">[[File:Icon-Methane.png|link=Volatiles]] <div class="stationeers-icon-text"></div></div>'''4.09 Mols''' '''[[Methane|Methane]]''' <br> <div class="stationeers-icon">[[File:Icon-oxygen.png|link=Oxygen]] <div class="stationeers-icon-text"></div></div>'''2.3 Mols''' '''[[Oxygen|Oxygen]]'''
|<div class="stationeers-icon">[[File:ItemSilverOre.png|link=Ore_(Silver)]] <div class="stationeers-icon-text">50</div></div>'''[[Ore_(Silver)|Silver Ore]]''' <br> <div class="stationeers-icon">[[File:ItemGoldOre.png|link=Ore_(Gold)]] <div class="stationeers-icon-text">50</div></div>'''[[Ore_(Gold)|Gold Ore]]'''
|'''695 K'''
|'''1.62 MPa'''
|<div class="stationeers-icon">[[File:ItemElectrumIngot.png|link=Ingot (Electrum)]] <div class="stationeers-icon-text">100</div></div>'''[[Ingot (Electrum)|Electrum]]'''
|-
| <div class="stationeers-icon">[[File:ItemGasCanisterFuel.png|link=Fuel]] <div class="stationeers-icon-text"></div> </div> '''[[Fuel#Dirty_Fuel|Dirty Fuel]]''' <br> '''&ensp; &emsp; &emsp; 45 KPa'''<br>
|<div class="stationeers-icon">[[File:Icon-Methane.png|link=Volatiles]] <div class="stationeers-icon-text"></div></div>'''0.741 Mols''' '''[[Methane|Methane]]''' <br> <div class="stationeers-icon">[[File:Icon-oxygen.png|link=Oxygen]] <div class="stationeers-icon-text"></div></div>'''0.417 Mols''' '''[[Oxygen|Oxygen]]'''
|<div class="stationeers-icon">[[File:ItemLeadOre.png|link=Ore_(Lead)]] <div class="stationeers-icon-text">50</div></div>'''[[Ore_(Lead)|Lead Ore]]''' <br> <div class="stationeers-icon">[[File:ItemIronOre.png|link=Ore (Iron)]] <div class="stationeers-icon-text">50</div></div> '''[[Ore (Iron)|Iron Ore]]'''
|'''407 K'''
|'''1.07 MPa'''
| <div class="stationeers-icon">[[File:ItemSolderIngot.png|link=Ingot (Solder)]] <div class="stationeers-icon-text">100</div></div>'''[[Ingot (Solder)|Solder]]'''
|-
|<div class="stationeers-icon">[[File:ItemGasCanisterFuel.png|link=Fuel]] <div class="stationeers-icon-text"></div></div> '''[[Fuel#Dirty_Fuel|Dirty Fuel]]''' <br>'''(2x) 7,500 KPa''' <br>'''
|<div class="stationeers-icon">[[File:Icon-Methane.png|link=Volatiles]] <div class="stationeers-icon-text"></div></div>'''245 Mols''' '''[[Methane|Methane]]''' <br> <div class="stationeers-icon">[[File:Icon-oxygen.png|link=Oxygen]] <div class="stationeers-icon-text"></div></div>'''138 Mols''' '''[[Oxygen|Oxygen]]'''
|<div class="stationeers-icon">[[File:ItemCopperOre.png|link=Ore (Copper)]] <div class="stationeers-icon-text">50</div></div> '''[[Ore (Copper)|Copper Ore]]''' <br> <div class="stationeers-icon">[[File:ItemNickelOre.png|link=Ore (Nickel)]] <div class="stationeers-icon-text">50</div></div> '''[[Ore (Nickel)|Nickel Ore]]'''
|'''1.83 kK'''
|'''20.5 MPa'''
|<div class="stationeers-icon">[[File:ItemConstantanIngot.png|link=Ingot (Constantan)]] <div class="stationeers-icon-text">100</div></div>'''[[Ingot (Constantan)|Constantan]]'''
|-
|<div class="stationeers-icon">[[File:ItemGasCanisterFuel.png|link=Fuel]] <div class="stationeers-icon-text"></div></div> '''[[Fuel#Dirty_Fuel|Dirty Fuel]]'''</div> <br>'''(2x) 6,000 KPa''' <br> <br> <br><div class="stationeers-icon">[[File:ItemGasCanisterCarbonDioxide.png|link=Carbon_Dioxide]] <div class="stationeers-icon-text"></div></div>'''[[Carbon_Dioxide|Pressurant]]'''<br> '''(2x) 9,500 KPa'''
|<div class="stationeers-icon">[[File:Icon-Methane.png|link=Volatiles]] <div class="stationeers-icon-text"></div></div>'''196 Mols''' '''[[Methane|Methane]]''' <br> <div class="stationeers-icon">[[File:Icon-oxygen.png|link=Oxygen]] <div class="stationeers-icon-text"></div></div>'''110 Mols''' '''[[Oxygen|Oxygen]]''' <br> <br> <div class="stationeers-icon">[[File:ItemGasCanisterCarbonDioxide.png|link=Carbon_Dioxide]] <div class="stationeers-icon-text"></div></div>'''533 Mols''' '''[[Carbon_Dioxide|Pressurant]] ^^^'''
|<div class="stationeers-icon">[[File:ItemNickelOre.png|link=Ore (Nickel)]] <div class="stationeers-icon-text">50</div></div>'''[[Ore (Nickel)|Nickel Ore]]''' <br> <div class="stationeers-icon">[[File:ItemIronOre.png|link=Ore (Iron)]] <div class="stationeers-icon-text">50</div></div> '''[[Ore (Iron)|Iron Ore]]'''
|'''1.38 kK'''
|'''19.2 MPa'''
|<div class="stationeers-icon">[[File:ItemInvarIngot.png|link=Ingot (Invar)]] <div class="stationeers-icon-text">100</div></div>'''[[Ingot (Invar)|Invar]]'''
|}

'''^^^'''These recipes use CO2 @ 0°C as a pressurant. Other pressurants such as Nitrogen, Pollutants, and [[Oxygen]] are possible, but they may result in different outcomes.

=== Tips ===
*If atmosphere inside and/or around furnace is too cold to melt ice one can press 'activate' button to manually melt one ice per ignition attempt. You will need to press the ignition button for each piece of ice from the first stack that you put in. Until all solid matter was melted the import slot will remain blocked.
*[[Reagent Mix|Reagent Mix]] can be re-melted to continue balancing the recipe should you need to gather more resources or find yourself unable to balance the temperature/pressure manually.
*On [[Vulcan]] the daytime temperatures allow smelting of many basic alloys right from the start by using an [[Active Vent|active vent]], even high enough for [[Steel]]. This will save the very valuable, and limited oxygen of the player, especially on brutal start conditions.
*Placing 50 [[silver]] ore into an ignited furnace will produce 50 Mol of N2O inside the furnace, which can be further burned in the presence of [[volatiles]] resulting in a higher temperature after smelting. This will push the furnace temperature beyond what may be otherwise obtainable (early game daytime Vulcan, for example).

===Additional fuel mixes===
<div style="overflow-x: auto;">
{| class="wikitable"
! colspan="1" rowspan="2" |Prime
! colspan="1" rowspan="2" |FAR
! colspan="2" rowspan="1" |In: Mols
! colspan="3" rowspan="1" |Result
! colspan="4" rowspan="1" |Out: Mols
|-
!H2
!O2
!Press.
!Celcius
!Kelvin
!O2
!H2
!Co2
!X
|-
|100 kPa
|2:1
|29
|14
|2 135
|1 953
|2 216
|1
|3
|82
|33
|-
|200 kPa
|2:1
|59
|29
|4 500
|2 000
|2 273
|1
|5
|169
|80
|-
|200 kPa
|3:1
|65
|21
|3 400
|1 900
|2 173
|2
|26
|118
|52
|-
|200 kPa
|4:1
|72
|18
|3 000
|1 800
|2 273
|1
|40
|99
|42
|-
|200 kPa
|1:1
|43
|43
|3 493
|1 917
|2 190
|22
|2
|127
|59
|-
|200 kPa
|1:4
|17
|68
|1 646
|1 319
|1 592
|63
|2
|50
|18
|-
|300 kPa
|2:1
|86
|42
|6 850
|2 109
|2 382
|2
|7
|242
|115
|-
|902.7 kPa
|2:1
|263
|108
|19.25 MPa
|2 054
|2 357
|70
|7
|767
|151
|-
|1 MPa
|2:1
|291
|120
|21.62 MPa
|2 061
|2 334
|74
|7
|862
|170
|-
|1.497 MPa
|2:1
|408
|204
|35.34 MPa
|2 121
|2 394
|10
|20
|1163
|581
|}
</div>

===Ore Off-Gassing===
Ores being smelted release gases, unless they have been previously sent through a furnace or [[centrifuge]]. However both the centrifuge and arc furnace require additional time and [[energy]] to remove gases from ores, and the gases will be lost. These gases will increase pressure and lower temperature inside the furnace, but can also be beneficial to the smelting process. For example [[Solder]], requires very little fuel to smelt due to the N20 released from the [[Lead]] Ore during smelting. Removing the N20 from the [[Lead Ore|lead ore]] prior to smelting will result in the need for additional fuel to make up for it's loss.

'''CAUTION: As Vol is far more reactive with N2O and burns at a rate of 1:1, rather than 2:1 with O2, be cautious to not add additional volatiles after smelting silver or lead ores. Doing so could lead to rapid spikes in pressure and, not managed properly, could lead to a furnace exploding.'''

<div style="overflow-x: auto;">
{| class="wikitable"
! colspan="1" rowspan="2" |Ore
! colspan="6" rowspan="1" |Out: Mols
|-
| style="text-align:center;"| Vol
| style="text-align:center;"| X
| style="text-align:center;"| N2
| style="text-align:center;"| CO2
| style="text-align:center;"| O2
| style="text-align:center;"| N2O
|-
| <div class="stationeers-icon">[[File:ItemOrganicMaterial.png|link=Biomass]] <div class="stationeers-icon-text">1</div></div> [[Biomass|Biomass]]
| style="text-align:center;"| 8.0
| style="text-align:center;"| 4.0
| style="text-align:center;"| 0.0
| style="text-align:center;"| 0.0
| style="text-align:center;"| 0.0
| style="text-align:center;"| 0.0
|-
| <div class="stationeers-icon">[[File:ItemCoalOre.png|link=Ore (Coal)]] <div class="stationeers-icon-text">1</div></div> [[Ore (Coal)|Coal]]
| style="text-align:center;"| 0.0
| style="text-align:center;"| 3.0
| style="text-align:center;"| 0.0
| style="text-align:center;"| 10.0
| style="text-align:center;"| 0.0
| style="text-align:center;"| 0.0
|-
| <div class="stationeers-icon">[[File:ItemSiliconOre.png|link=Ore (Silicon)]] <div class="stationeers-icon-text">1</div></div> [[Ore (Silicon)|Silicon]]
| style="text-align:center;"| 0.0
| style="text-align:center;"| 1.0
| style="text-align:center;"| 1.0
| style="text-align:center;"| 1.0
| style="text-align:center;"| 0.0
| style="text-align:center;"| 0.0
|-
| <div class="stationeers-icon">[[File:ItemIronOre.png|link=Ore (Iron)]] <div class="stationeers-icon-text">1</div></div> [[Ore (Iron)|Iron]]
| style="text-align:center;"| 0.0
| style="text-align:center;"| 2.0
| style="text-align:center;"| 0.0
| style="text-align:center;"| 0.5
| style="text-align:center;"| 0.0
| style="text-align:center;"| 0.0
|-
| <div class="stationeers-icon">[[File:ItemGoldOre.png|link=Ore (Gold)]] <div class="stationeers-icon-text">1</div></div> [[Ore (Gold)|Gold]]
| style="text-align:center;"| 0.0
| style="text-align:center;"| 2.0
| style="text-align:center;"| 0.5
| style="text-align:center;"| 0.2
| style="text-align:center;"| 0.2
| style="text-align:center;"| 0.0
|-
| <div class="stationeers-icon">[[File:ItemCopperOre.png|link=Ore (Copper)]] <div class="stationeers-icon-text">1</div></div> [[Ore (Copper)|Copper]]
| style="text-align:center;"| 0.0
| style="text-align:center;"| 1.0
| style="text-align:center;"| 0.5
| style="text-align:center;"| 1.0
| style="text-align:center;"| 0.0
| style="text-align:center;"| 0.0
|-
| <div class="stationeers-icon">[[File:ItemSilverOre.png|link=Ore (Silver)]] <div class="stationeers-icon-text">1</div></div> [[Ore (Silver)|Silver]]
| style="text-align:center;"| 0.0
| style="text-align:center;"| 1.0
| style="text-align:center;"| 0.4
| style="text-align:center;"| 0.0
| style="text-align:center;"| 0.0
| style="text-align:center;"| 1.0
|-
| <div class="stationeers-icon">[[File:ItemLeadOre.png|link=Ore (Lead)]] <div class="stationeers-icon-text">1</div></div> [[Ore (Lead)|Lead]]
| style="text-align:center;"| 0.0
| style="text-align:center;"| 2.0
| style="text-align:center;"| 1.0
| style="text-align:center;"| 0.4
| style="text-align:center;"| 0.0
| style="text-align:center;"| 0.4
|-
| <div class="stationeers-icon">[[File:ItemNickelOre.png|link=Ore (Nickel)]] <div class="stationeers-icon-text">1</div></div> [[Ore (Nickel)|Nickel]]
| style="text-align:center;"| 0.0
| style="text-align:center;"| 1.0
| style="text-align:center;"| 0.5
| style="text-align:center;"| 1.0
| style="text-align:center;"| 0.0
| style="text-align:center;"| 0.0
|-
| <div class="stationeers-icon">[[File:ItemCobaltOre.png|link=Ore (Cobalt)]] <div class="stationeers-icon-text">1</div></div> [[Ore (Cobalt)|Cobalt]]
| style="text-align:center;"| 1.0
| style="text-align:center;"| 0.0
| style="text-align:center;"| 3.0
| style="text-align:center;"| 0.0
| style="text-align:center;"| 0.0
| style="text-align:center;"| 0.0
|-
|}
</div>

{{Data Network Header}}

{{Data Parameters}}
{| class="wikitable mw-collapsible"
|-
! Parameter Name !! Data Type !! Description
|-
| Activate || Boolean || Activates the Furnace, when set to 1.
|-
| ClearMemory || Boolean || When set to 1,clears the counter memory(e.g.ExportCount). Will set itself back to 0 when actioned.
|-
| Lock || Boolean || Locks the Furnace, when set to 1. Unlocks it when set to 0.
|-
| Mode|| Integer || Returns whether the Furnace is smelting. (0 for no, 1 for yes).
|-
| Open || Boolean || Opens the Furnace, when set to 1. Closes it, when set to 0.
|-
| Setting || Float || (Unknown) Affects the Setting output.
|}

{{Data Outputs}}
{| class="wikitable mw-collapsible"
|-
! Output Name !! Data Type !! Description
|-
| Activate || Boolean || Returns if the furnace is active.
|-
| Combustion|| Boolean || Returns 1 if the furnace atmosphere is on fire.
|-
| ExportCount || Integer || How many items exported since last ClearMemory.
|-
| ImportCount || Integer || How many items imported since last ClearMemory.
|-
| Lock || Boolean || Returns whether the Furnace is locked.
|-
| Maximum || Integer || (Unknown) Returns 100.
|-
| Mode || Integer || Returns whether the Furnace is smelting. (0 for no, 1 for yes).
|-
| Open || Boolean || Returns whether the Furnace is open. (0 for no, 1 for yes).
|-
| PrefabHash || Integer || The [[hash]] of the structure.
|-
| Pressure || Float || Returns the pressure in the Furnace in kilo pascal.
|-
| Ratio || Float || (Unknown) Returns 0.5.
|-
| RatioCarbonDioxide || Float || Returns a range from 0.0 to 1.0. Returns the percentage ratio of the amount of [[Carbon Dioxide|carbon dioxide]] in the Furnace.
|-
| RatioNitrogen || Float || Returns a range from 0.0 to 1.0. Returns the percentage ratio of the amount of nitrogen in the Furnace.
|-
| RatioNitrousOxide || Float || Returns a range from 0.0 to 1.0. Returns the percentage ratio of the amount of [[nitrous]] oxide in the Furnace.
|-
| RatioOxygen || Float || Returns a range from 0.0 to 1.0. Returns the percentage ratio of the amount of oxygen in the Furnace.
|-
| RatioPollutant || Float || Returns a range from 0.0 to 1.0. Returns the percentage ratio of the amount of [[pollutant]] in the Furnace.
|-
| RatioVolatiles || Float || Returns a range from 0.0 to 1.0. Returns the percentage ratio of the amount of volatiles in the Furnace.
|-
| RatioWater || Float || Returns a range from 0.0 to 1.0. Returns the percentage ratio of the amount of [[water]] in the Furnace.
|-
| [[Reagents]] || Float || Returns the amount of reagents (smeltable ores, not counting ice) in the Furnace, in grams.
|-
| [[RecipeHash]] || int || Current hash of the recipe the device is set to produce.
|-
| Setting || Float || (Unknown) Affected by the Setting parameter.
|-
| Temperature || Float || Returns the temperature in the Furnace in kelvin.
|-
| TotalMoles || Float || Returns the total moles of the furnace.
|}

Fuel

2026-03-22T06:42:34Z

Starviking:

{{Fluidbox
| name = Fuel
| image = [[File:Icon-fuel.png]]
| heatCapacity = 20.86 Joule / mol
| Autoigntemp = 573.15 K
}}
{{Fluidbox
| name = Superfuel
| image = [[File:Icon-nitro.png]]
| heatCapacity = 21.7 Joule / mol
| heatCapacity = 20.86 Joule / mol
| Autoigntemp = 323.15 K
}}

== Description ==
There are two categories of fuel, [[Solid Fuel|solid fuel]] and gas mixtures.
===Solid fuel===
There are currently only two [[Solid Fuel|solid fuels]] available in the game [[Ore (Coal)|Coal]], and [[Charcoal|Charcoal]]. Both can be used to fuel the [[Solid Fuel Generator]].
When burning [[coal]] and [[charcoal]] they produce the following gases.

{| class="wikitable"
|-
! Source !![[Pollutant]] !!CO2
|-
|<div class="stationeers-icon">[[File:ItemCoalOre.png|link=Ore_(Coal)]] <div class="stationeers-icon-text">1</div></div> [[Ore_(Coal)|Coal]] || <div class="stationeers-icon">[[File:Icon-pollutant.png|link=Pollutant]] <div class="stationeers-icon-text"></div></div>3 mol|| <div class="stationeers-icon">[[File:Icon-carbondioxide.png|link=Carbon_Dioxide]] <div class="stationeers-icon-text"></div></div>10 mol
|-
| <div class="stationeers-icon">[[File:ItemCharcoal.png|link=Charcoal]] <div class="stationeers-icon-text">1</div></div> [[Charcoal|Charcoal]] ||<div class="stationeers-icon">[[File:Icon-pollutant.png|link=Pollutant]] <div class="stationeers-icon-text"></div></div>3 mol || <div class="stationeers-icon">[[File:Icon-carbondioxide.png|link=Carbon_Dioxide]] <div class="stationeers-icon-text"></div></div>3 mol
|}

===Gas Fuel===
In order to use gases for fuel you need a combustible gas combined with an oxidizer. There are two flammable gases in the game [[Hydrogen]] and [[Volatiles|Methane]], and there are three oxygen sources; [[Oxygen]],[[Ozone]] and [[Nitrous Oxide]]. This can be done by manually [[Fuel#Making_Fuels|mixing chunks of ice]], or by using a [[Gas Mixer]] .

When using [[Liquid Fuel|liquid fuel]] some heat [[energy]] produced will be spent to evaporate [[Liquid Fuel|liquid fuel]] components.

===Fuel Combustion===
{| class="wikitable"
|-
! colspan="1" rowspan="2"| Fuel
! colspan="1" rowspan="2"| [[Oxidizer]]
! colspan="1" rowspan="2"| Fuel Icon
! colspan="4" rowspan="1"| Combustion products
! colspan="1" rowspan="2"| Heat
|-
! [[Pollutant|Pollutants]]
! [[Nitrogen]]
! [[Carbon Dioxide]]
! [[Water]]
|-
|'''2'''<div class="stationeers-icon">[[File:Icon-Methane.png|link=Methane]] <div class="stationeers-icon-text"></div></div> '''[[Methane]]''' ||'''2'''<div class="stationeers-icon">[[File:Icon-oxygen.png|link=Oxygen]] <div class="stationeers-icon-text"></div></div> '''Oxygen'''||<div class="stationeers-icon">[[File:Icon-fuel.png|link=Fuel]] <div class="stationeers-icon-text"></div></div>
|'''3'''<div class="stationeers-icon">[[File:Icon-pollutant.png|link=Pollutant]] <div class="stationeers-icon-text"></div></div>'''Pollutants'''
|
|'''6'''<div class="stationeers-icon">[[File:Icon-carbondioxide.png|link=Carbon_Dioxide]] <div class="stationeers-icon-text"></div></div>'''Carbon Dioxide'''
|
|572 kJ
|-
|'''1'''<div class="stationeers-icon">[[File:Icon-Methane.png|link=Methane]] <div class="stationeers-icon-text"></div></div> '''Methane''' ||'''1'''<div class="stationeers-icon">[[File:Icon-nitrousoxide.png|link=Nitrous_Oxide]] <div class="stationeers-icon-text"> </div></div>'''Nitrous Oxide''' |||<div class="stationeers-icon">[[File:Icon-nitro.png|link=Fuel]] <div class="stationeers-icon-text"></div></div>
|
|'''2'''<div class="stationeers-icon">[[File:Icon-nitrogen.png|link=Nitrogen]] <div class="stationeers-icon-text"></div></div>'''Nitrogen'''
|'''2'''<div class="stationeers-icon">[[File:Icon-carbondioxide.png|link=Carbon_Dioxide]] <div class="stationeers-icon-text"></div></div>'''Carbon Dioxide'''
|
|572 kJ
|-
|'''3'''<div class="stationeers-icon">[[File:Icon-Methane.png|link=Methane]] <div class="stationeers-icon-text"></div></div> '''Methane''' ||'''2'''<div class="stationeers-icon">[[File:Icon-Ozone.png|link=Ozone]] <div class="stationeers-icon-text"> </div></div>'''Ozone''' |||
|'''3'''<div class="stationeers-icon">[[File:Icon-pollutant.png|link=Pollutant]] <div class="stationeers-icon-text"></div></div>'''Pollutants'''
|
|'''6'''<div class="stationeers-icon">[[File:Icon-carbondioxide.png|link=Carbon_Dioxide]] <div class="stationeers-icon-text"></div></div>'''Carbon Dioxide'''
|'''1'''<div class="stationeers-icon">[[File:Icon-water.png|link=Water]] <div class="stationeers-icon-text"></div></div>'''Water'''
|1716 kJ
|-
|'''2'''<div class="stationeers-icon">[[File:Icon-Hydrogen.png|link=Hydrogen]] <div class="stationeers-icon-text"></div></div> '''[[Hydrogen]]''' ||'''1'''<div class="stationeers-icon">[[File:Icon-oxygen.png|link=Oxygen]] <div class="stationeers-icon-text"> </div></div>'''Oxygen''' |||
|
|
|
|'''3'''<div class="stationeers-icon">[[File:Icon-water.png|link=Water]] <div class="stationeers-icon-text"></div></div>'''Water'''
|612 kJ
|-
|'''1'''<div class="stationeers-icon">[[File:Icon-Hydrogen.png|link=Hydrogen]] <div class="stationeers-icon-text"></div></div> '''Hydrogen''' ||'''1'''<div class="stationeers-icon">[[File:Icon-nitrousoxide.png|link=Nitrous_Oxide]] <div class="stationeers-icon-text"> </div></div>'''Nitrous Oxide''' |||
|
|'''1'''<div class="stationeers-icon">[[File:Icon-nitrogen.png|link=Nitrogen]] <div class="stationeers-icon-text"></div></div>'''Nitrogen'''
|
|'''1'''<div class="stationeers-icon">[[File:Icon-water.png|link=Water]] <div class="stationeers-icon-text"></div></div>'''Water'''
|612 kJ
|-
|'''3'''<div class="stationeers-icon">[[File:Icon-Hydrogen.png|link=Hydrogen]] <div class="stationeers-icon-text"></div></div> '''Hydrogen''' ||'''1'''<div class="stationeers-icon">[[File:Icon-Ozone.png|link=Ozone]] <div class="stationeers-icon-text"> </div></div>'''Ozone''' |||
|
|
|
|'''4'''<div class="stationeers-icon">[[File:Icon-water.png|link=Water]] <div class="stationeers-icon-text"></div></div>'''Water'''
|1836 kJ
|-
|'''1'''<div class="stationeers-icon">[[File:Icon-LiquidAlcohol.png|link=Alcohol]] <div class="stationeers-icon-text"></div></div> '''[[Alcohol]]'''
|'''3'''<div class="stationeers-icon">[[File:Icon-oxygen.png|link=Oxygen]] <div class="stationeers-icon-text"> </div></div>'''Oxygen'''
|
|
|
|'''4'''<div class="stationeers-icon">[[File:Icon-carbondioxide.png|link=Carbon_Dioxide]] <div class="stationeers-icon-text"></div></div>'''Carbon Dioxide'''
|'''2'''<div class="stationeers-icon">[[File:Icon-water.png|link=Water]] <div class="stationeers-icon-text"></div></div>'''Water'''
|564 kJ
|-
|'''1'''<div class="stationeers-icon">[[File:Icon-LiquidAlcohol.png|link=Alcohol]] <div class="stationeers-icon-text"></div></div> '''Alcohol'''
|'''2'''<div class="stationeers-icon">[[File:Icon-nitrousoxide.png|link=Nitrous_Oxide]] <div class="stationeers-icon-text"> </div></div>'''Nitrous Oxide'''
|
|
|'''4'''<div class="stationeers-icon">[[File:Icon-nitrogen.png|link=Nitrogen]] <div class="stationeers-icon-text"></div></div>'''Nitrogen'''
|
|'''2'''<div class="stationeers-icon">[[File:Icon-water.png|link=Water]] <div class="stationeers-icon-text"></div></div>'''Water'''
|1130 kJ
|-
|'''1'''<div class="stationeers-icon">[[File:Icon-LiquidAlcohol.png|link=Alcohol]] <div class="stationeers-icon-text"></div></div> '''Alcohol'''
|'''2'''<div class="stationeers-icon">[[File:Icon-Ozone.png|link=Ozone]] <div class="stationeers-icon-text"> </div></div>'''Ozone'''
|
|
|
|'''4'''<div class="stationeers-icon">[[File:Icon-carbondioxide.png|link=Carbon_Dioxide]] <div class="stationeers-icon-text"></div></div>'''Carbon Dioxide'''
|'''3'''<div class="stationeers-icon">[[File:Icon-water.png|link=Water]] <div class="stationeers-icon-text"></div></div>'''Water'''
|1130 kJ
|}

== Making Fuels ==
Fuel can be mixed in a number of ways, by feeding the ice directly into the input of a furnace, by feeding the ice into an Ice Crusher, by melting the ices in an enclosed space and collecting the gases.

Depending on how exact the proportions of your gas mixture are you will end up with different end temperatures and pressures after ignition.

===Dirty Fuel===
A fuel that can be made easily in the early game is Dirty Fuel. It can be made by mixing Volatile Ice and Oxite at a 2:1 ratio.
{| class="wikitable"
|-
! Source !![[Gas|Gases]]
! Percentage
|-
|<div class="stationeers-icon">[[File:ItemVolatiles.png|link=Ice_(Volatiles)]] <div class="stationeers-icon-text">2</div></div> [[Ice_(Volatiles)|Volatiles]] || <div class="stationeers-icon">[[File:Icon-Methane.png|link=Methane]]<div class="stationeers-icon-text"></div></div>20 mol <br>
<div class="stationeers-icon">[[File:Icon-Hydrogen.png|link=Hydrogen]]<div class="stationeers-icon-text"></div></div>2 mol
|58%
<br>
5.8%
|-
| <div class="stationeers-icon">[[File:ItemOxite.png|link=Oxite]] <div class="stationeers-icon-text">1</div></div> [[Ice_(Oxite)|Oxite]] ||<div class="stationeers-icon">[[File:Icon-oxygen.png|link=Oxygen]] <div class="stationeers-icon-text"></div></div>22.5 mol<br>
<div class="stationeers-icon">[[File:Icon-nitrogen.png|link=Nitrogen]] <div class="stationeers-icon-text"></div></div>2.5 mol
|| 32.6%
<br>
3.26%
|}

This is a simple ratio and will burn fairly well, but will leave some unburned Oxygen. A mixture of 45 Volatile Ice to 22 Oxite will result in an ideal Fuel to oxidizer ratio, but will still contain Nitrogen which will not help with combustion. If more pure fuel mixtures are desired the unused or undesired constituents will need to be filter out, and the fuel mixture will potentially need to be re-balanced. But Dirty Fuel will perform adequately well in the early part of the game.

An alternative recipe uses [[Volatiles]] ice and [[Nitrice]] at a 1:8.8 (5:44) ratio. Although nitrous oxide is a more energetic oxidizer, the large amounts of nitrogen present on Nitrice make the combustion reach lower temperatures and less water is produced.

===Refined Fuels===
Later in the game, or on more advanced planets, gases can be collected, filtered and combined to make pure fuel mixtures. This will require holding [[Tank|Tanks]], [[Filtration]] units, and [[Pipe_Gas_Mixer|Gas Mixers]]. On some [[planets]] gases may be collected directly from the [[atmosphere]]. This can be accomplished with an [[Active_Vent|active vent]], some [[Pipes|pipe]] and a [[Gas Tank Storage|gas tank storage]]. Depending on the atmosphere pollutants or inert gases will need to be removed from the collected gases, a [[Filtration|filtration unit]] and a [[filter]] will be needed for this. On other planets there is no atmosphere and gases will have to be collected by crushing Ices. Crushing Ices is by far the most common source for gases early in the game.

=== Collecting gases ===

This can be accomplished with an [[Active_Vent|active vent]], some [[Pipes|pipe]] and a [[Gas Tank Storage|gas tank storage]]. Raw gases can also be collected from an Ice Crusher setup or by melting them in a furnace.
===Basic Ice Crusher Setup===
A basic [[Ice Crusher]] setup will provide most of your gas collection and mixing needs. Gases can be collected by crushing Ices or by collecting atmospheric gases, if present.

====Parts required====
* 1 x [[Ice Crusher]]
* 5 x [[Pipes]]
* 1 x [[Pipe_Volume_Pump|Volume Pump]]
* 1 x [[Pressure Regulator]]
Optional
* 1 x [[Active Vent]]
With this setup you can collect gases from ices to mix later. You can also pre-mix the gases by adding Volatile ice and Oxite at a 2:1 ratio. You can then load the pre-mixed fuel in canisters in pre-measured amounts using the [[pressure]] regulator.
====Setup====
[[File:ICE_CRUSHER.png|thumb|Combination Ice Crusher, Gas collection, and Gas measuring station, Front View (Caution: Be sure to turn of the pressure regulator, and pump al the gas out of the crusher when mixing gases)]]
# Place the ice crusher
# Place a [[pipe]] facing to the right
# Place a volume pump
# Place a pipe tee facing left,right, and down.
# Place a [[canister]] storage below the tee
# Place a regulator to the right of the tee
# Place a tee facing left,right, and down, Or an elbow facing left and down.
# Place a second canister storage below the tee or elbow.
# (Optional) Place an active vent to the right of the last canister storage.
====Usage====
====Fuel mixing====
# Place Volatile Ice and Oxites in the ice crusher at a 2:1 ratio. <br> &ensp; &emsp;'''*''' You can safely fit 8 Volatile to 4 Oxites in a canister. A Ratio of 10:5 will overfill a single canister <br> &ensp;&emsp;'''**''' Be sure to pump all the gases out of the crusher into a single canister, otherwise the mixture will fluxuate as the grinder processes and outputs ices. <br> &ensp;&emsp;'''***''' Also be sure to turn off your regulator while you are collecting gases.<br>
# Pump the gases to your storage containers. <br>
# Set the regulator to the approximate pressure required to load the amount of fuel you need into the canister. <br>&ensp;&emsp;'''*''' You can check the exact amount in the canister using the [[tablet]] and the gas analyzer

====Refiling oxygen tanks====
# Purge the [[Pipe Network|pipe network]] of any spurious gases from previous operations.
# Crush Oxites in the the ice crusher
# Pump the Oxites into a canister. <br>&ensp;&emsp;'''*'''A canister can hold approximately 12 Oxites.<br>&ensp;&emsp;'''*'''You will need to use a nitrogen filter in additon to your regular CO2 filter when breathing crushed Oxites.
====Emptying Canisters====
# Place any canisters you want to empty into the far left canister storage
# Set the active vent to "outward" and turn it on.
====Collecting Atmospheric Gases====
# Place any canisters you want to fill in the far left slot.
# Set the active vent to "Inwards" and turn it on. <br>&ensp;&emsp;'''*'''Be aware that the canister will fill very quickly, be careful not to over-pressurize the canister.

==Advanced Fuel Mixing==
For cleaner and more efficient fuels the collected gases will need to be filtered and the mixture rations may need to be improved. This can be accomplished by either removing unwanted gases from a fuel mixture or by separating the gases with a filtration setup and recombining them in the correct ratios. Gases can be mixed using a [[Pipe_Gas_Mixer|gas mixer]] or by using a regulator and [[Atmos Analyzer]] [[cartridge]] in a tablet to monitor the mixture. A Pipe Gas Mixer requires that both gasses have equal temperature for a correct ratio of gasses in the output

== Mixing Fuel ==
You can easily mix fuel by adding oxidizes and fuel, which have been previously collected to a [[Pipe Network|pipe network]] in order to put it into tank storage. From the tank storage it can be pumped in to canister or directly into a [[furnace]].

=== Mixing and storing Nitro ===
Note that keeping [[Nitrous]] Oxide below autoignition temperature means condensation at pressures above 1MPa pressure, making it hard to store or mix fuel in large quantities without liquid management as the latent heat of condensation can result in enough heating for autoignition to occur. While this reaction releases the same amount of energy as the classic fuel combustion above, it does so using half the volatiles and heating waste gases with less thermal mass resulting in higher temperatures.

===Basic Canister Mixing Setup===
Once filtered and stored gases can be mixed to obtain purified fuel, these fuel will burn more completely and have fewer combustion products
====Parts required====
* 2 x [[Portables Connector]]
* 2 x [[Portable Gas Tank]]
* 1 x [[Pipe Gas Mixer]]
* 1 x [[Gas Tank Storage]]
* ''n'' x [[Pipes]]
* ''n'' x [[Cables]]
* ''n'' x [[Gas Canister]]

====Setup====
# Place both Portable Connectors
# Connect both Portable Connectors to the the inputs of the Pipe Gas Mixer
# Connect the Pipe Gas Mixer output to the Gas [[Tank]] Storage input
# Connect the Pipe Gas Mixer [[power]] input to power source.

====Use====
# Put first Portable Gas Tank or scrubber filled with O<sub>2</sub> on one Portables Connector.
# Put second Portable Gas Tank or scrubber filled with H<sub>2</sub>/volatile on the other Portables Connector.
# Use a [[wrench]] to connect both Portable Gas Tanks to their places.
# Optional: for a perfect fuel mix, ensure the temperatures of both gases are exactly the same.
# Set the Pipe Gas Mixer to desired combination (34% O<sub>2</sub> + 66% H<sub>2</sub>) Note: as the combination is a floating point number, you can also enter 0.333... or 0.666... with a [[Labeller]] to get a more precise mix.
# Turn on Pipe Gas Mixer
# Place an empty Gas Canister in Gas Tank Storage.
{{:Gases and Liquids/Menu}}
[[Category:Gas]][[Category:Liquid]]

Guides and Tutorials

2026-03-22T06:29:55Z

Starviking: Fixed furnace ice only link

<div class="row">
<div class="small-12 columns">
<div class="small-6 columns">
<h4 class="subheader"><span class="fa fa-book fa-lg"></span>Ingame Tutorials</h4>
<p>Stationeers provides a few basic tutorials when you are in the starting menu. For those who are completely new in the game this is very advisable.<br>It should be noted that those tutorials only teach you a bare minimum of this game and there is always much more to learn. Do not expect to be good in only a few hours.</p>
* "Tutorial 1: Inventory and Interactions"
* "Tutorial 2: Connections"
* "Tutorial 3: [[Atmospherics]]"
* "Community Walkthrough: Airlocks"
* "Community Walkthrough: [[Furnace]] Basics"
* "Community Walkthrough: Manufacturing"
</div>
<div class="small-6 columns">
<h4 class="subheader"><span class="fa fa-book fa-lg"></span>Ingame Guides</h4>
<p>While being ingame you can always look up the standard ingame guides in the Stationpedia.</p>
* [[Ingame_Guides_-_Construction|"Construction"]]
* [[Ingame_Guides_-_Making_Music|"Making Music"]]
* [[Ingame_Guides_-_Temperature_Control|"Temperature Control"]]
* [[Ingame_Guides_-_Weather|"Weather"]]
* [[Ingame_Guides_-_Hunger_and_Nutrition|"Hunger and nutrition"]]
* [[Ingame_Guides_-_Growing_Food|"Growing Food"]]
* [[Ingame_Guides_-_Food_Decay|"Food Decay"]]
* [[Ingame_Guides_-_Thirst_and_Hydration|"Thirst + hydration"]]
* [[Ingame_Guides_-_EVA_Suits|"EVA Suits"]]
* [[Ingame_Guides_-_Smelting|"Smelting"]]
* [[Ingame_Guides_-_Mining|"Mining"]]
* [[Ingame_Guides_-_Trading|"Trading"]]
* [[Ingame_Guides_-_Rockets|"Rockets"]]
* [[Ingame_Guides_-_Genetics|"Genetics"]]
</div>
</div>
</div>
<div class="row">
<div class="small-12 columns">
<h4 class="subheader"><span class="fa fa-tasks fa-lg"></span>Guides</h4>
<div class="large-6 columns">
<ul style="margin-left:8px;">
<li>'''[[Beginner's Guide|Beginner's Guide]]'''</li>
<li>[[Guide (Airlock)|Guide (Airlock)]]</li>
<li>[[Guide (Farming)|Guide (Farming)]]</li>
<li>[[Technical Standards |Technical Standards]]</li>
<li>[[Phase_Change_Mechanics|Phase Change Mechanics]]</li>
<li>[[Furnace#Ice_only_recipes|Making alloys in the basic furnace using ice only]]</li>
<li>[[Advanced_Furnace#Ice_only_smelting|Making alloys in the advanced furnace using ice only]]</li>
<li>[[Fuel#Collecting_gases|Collecting gases and making fuel]]</li>
<li>[[Furnace#Gaseous_Fuel_Recipes|Making ores with gaseous fuel in the furnace]]</li>
<li>[[Advanced_Furnace#Gaseous_Fueling|Making super alloys with gaseous fuel in the advanced furnace]]</li>

</ul>
</div>
<div class="large-6 columns">
<ul style="margin-left:8px;">
<li>[[Air_Filtration_System|Air Filtration System]]</li>
<li>[[Craftable items|List of all craftable items]]</li>
<li>[[Constructing and Deconstructing Walls|Constructing and Deconstructing Walls]]</li>
<li>[[Dedicated_Server_Guide|Dedicated server guide]]</li>
<li>[[SystemD_Server_Guide|Setting up a Linux dedicated server using SystemD]]</li>
<li>[[Starting Gear|Starting Gear]]</li>
<li>[[Guide_(Modding)|Modding the Game]]</li>
<li>[[Power_Tips_and_Tricks|Power Tips and Tricks for early game]]</li>
<li>[[Making_the_most_of_smelting|Making the most of smelting (Early game alloys)]]</li>
</ul>
</div>
</div>
</div>
<div class="row">
<div class="small-12 columns">
<h4 class="subheader"><span class="fa fa-book fa-lg"></span>User Made Guides</h4>
<div class="large-6 columns">
<ul style="margin-left:8px;">
<li>Cheat Sheets</li>
<ul style="margin-left:8px;">
<li>[[Research Tree]] (Wiki Page)</li>
<li>[https://goo.gl/TsdqfM Silent1's Cheat Sheet] by silent1 (Reference sheet)</li>
<li>[[Atmospheric Components Quick Reference]]</li>
<li>[[Energy Storage Reference]]</li>
<li>[[Gas Storage Reference]]</li>
<li>[[Thermal Convection and Radiation Values]] (Wiki Page)</li>
</ul>
<li>Tutorial</li>
<ul style="margin-left:8px;">
<li>[http://steamcommunity.com/sharedfiles/filedetails/?id=1230358763 Building your first base] by Sunspots (Steam Guide)</li>
<li>[http://steamcommunity.com/sharedfiles/filedetails/?id=1230373894 Hardly's List of Lamentable Mistakes] by Hardly (Steam Guide)</li>
<li>[http://steamcommunity.com/sharedfiles/filedetails/?id=1253687517 Tutorial Video Series] by Rhadamant (Steam Guide)</li>
<li>[https://www.youtube.com/watch?v=tws-kvGIT-w&list=PLI3obvEEdTGA08fNWVX2270nDKarf17MJ&index=2&ab_channel=PanicAndDieGaming Tutorial Series For New Players] by Panic And Die Gaming (YouTube Playlist)</li>
</ul>
<li>Modding</li>
<ul style="margin-left:8px;">
<li>[[Adding new worlds]]</li>
</ul>
<li>Automation</li>
<ul style="margin-left:8px;">
<li>[[Auto_Night_Lights|Auto Night Lights circuit]] by DocRabbit (Wiki Guide)</li>
<li>[[Simple_Arc_Furnace_Automation|Simple Arc Furnace Automation]] by itsjusty0gurt (Wiki Guide)</li>
<li>[[Automated_Arc_Furnace|Automated Arc Furnace]] by JavaSkeptre (Wiki Guide)</li>
<li>[[Automated_Coal_Generator|Automated Coal Generator]] by JavaSkeptre (Wiki Guide)</li>
<li>[http://steamcommunity.com/sharedfiles/filedetails/?id=1251261186 Simple Stacker Automatisation] by Arran Chace (Steam Guide)</li>
<li>[http://steamcommunity.com/sharedfiles/filedetails/?id=1232888907 Super Simple Autocycling Airlock] by Hardly (Steam Guide)</li>
<li>[http://steamcommunity.com/sharedfiles/filedetails/?id=1231660909 Super Simple Steel Smelting] by Hardly (Steam Guide)</li>
<li>[[Semi-Automatic_Autolathe|Semi-Automatic Autolathe]] by Korbah (Wiki Guide)</li>
<li>[[Satellite_Tracking|Automatic Satellite Tracking]] by JedBolt (Wiki Guide)</li>
<li>[[Easy_Auto_Arc_Furnace|Easy Automated Arc Furnace]] by Sarstan (Wiki Guide)</li>
<li>[[Solar_Logic_Circuits_Guide|Solar Panel Control using Logic Gates]] (Wiki Guide)</li>
<li>[[grow_light_automation|Simple logic automation of grow-light]] by Fuddnir (Wiki Guide)</li>
<li>[[Simple_Daylight_Light_Switch|Simple daylight light switch]] by Nihilinius (Wiki Guide)</li>
<li>[[Automated_Room_Light|Simple Automated Room Light]] by Azdle (Wiki Guide)</li>
</ul>
</ul>
</div>
<div class="large-6 columns">
<ul style="margin-left:8px;">
<li>Atmospherics</li>
<ul style="margin-left:8px;">
<li>[https://steamcommunity.com/sharedfiles/filedetails/?id=1283505695 25 Watt Passive Cooling Solution] By Amallore (Steam Guide)</li>
<li>[[Automated Temperature Regulation]] by Jaffa (Wiki Guide)</li>
<li>[[Basic Canister Mixing Setup]] by Viperel (Wiki Guide)</li>
<li>[[Temperature independent fuel mixing]] by Wark (Wiki Guide)</li>
<li>[http://steamcommunity.com/sharedfiles/filedetails/?id=1271148797 Canister handling made easy] by Gears (Steam Guide)</li>
<li>[http://steamcommunity.com/sharedfiles/filedetails/?id=1232718432 HELP! My welder fuel is gone!] by Moomanji (Steam Guide)</li>
<li>[http://steamcommunity.com/sharedfiles/filedetails/?id=1256512507 Logic Thermostat 20-25C] by Gears (Steam Guide)</li>
<li>[http://steamcommunity.com/sharedfiles/filedetails/?id=1248037824 Pipe Regulators 101] by NugunsKnight (Steam Guide)</li>
<li>[http://steamcommunity.com/sharedfiles/filedetails/?id=1245663146 Simple Gas Filtration System] by Wesir (Steam Guide)</li>
<li>[https://steamcommunity.com/sharedfiles/filedetails/?id=1293043168 Thermostat or Filtration with Buffer] By Amallore (Steam Guide)</li>
<li>[[Custom_Airlock_IC10|Custom Airlock with IC10]] by JedBolt (Wiki Guide)</li>
</ul>
<li>[[Logic]]</li>
<ul style="margin-left:8px;">
<li>[https://steamcommunity.com/sharedfiles/filedetails/?id=2407406977 2 chip battery charge Display] by trucksarenoisy (Steam Guide)</li>
<li>[[Always-on circuit guide|Always-On- / Auto-Restart- Circuit]] by Raumfahrtdoc (Wiki Guide)</li>
<li>[[Advanced IC10 Programming]] by JedBolt (Wiki Guide)</li>
<li>[[Dead Simple Light Switch]] by Evie Codes (Wiki Guide)</li>
<li>[https://steamcommunity.com/workshop/filedetails/discussion/1517633472/1735465524705571551/ How to use IC scripts from the workshop] By DirtyRat (Steam Guide)</li>
<li>[[Logic Pulse Former]] by Evie Codes (Wiki Guide)</li>
<li>[[Timing Circuit|Timer circuit]] by MrBigras (Wiki Guide)</li>
<li>[http://steamcommunity.com/sharedfiles/filedetails/?id=1236169037 Slightly-Less-Simple Logic Units] by Hardly (Steam Guide)</li>
<li>[https://steamcommunity.com/sharedfiles/filedetails/?id=1536155985 The ultimate power display] by adamkk03 (Steam Guide)</li>
<li>[https://steamcommunity.com/sharedfiles/filedetails/?id=2356339571 Weather Station Guide] by Applesauce (Steam Guide)</li>
<li>[[Solar_Logic_Circuits_Guide|Solar logic circuits guide]]</li>
<li>[[Logic_Monostable_Multivibrator|Logic Monostable Multivibrator]] by illiux#5291 & grilled_salmon#1537 (Wiki Guide)</li>
<li>[[Logic_Toggle|Logic Toggle]] by Patistar#8335 (Wiki Guide)</li>
</ul>
<li>Math</li>
<ul style="margin-left:8px;">
<li>[[Pressure, Volume, Quantity, and Temperature]] by Micro</li>
<li>[[Furnace temperature and pressure math]]</li>
</ul>
<li>Phase Changes</li>
<ul style="margin-left:8px;">
<li>[[Phase Change guide|Phase Change guide]] by Wark (Wiki Guide)</li>
</ul>
</ul>
</div>
</div>
</div>
__NOTOC__

Solar Logic Circuits Guide

2026-03-22T06:18:45Z

Starviking: /* Two-chip Vertical tracking (Moon only) */

[[Category:Tutorials]][[Category:Solar power]]

== Disclaimer ==

Due to the frequency of game updates, all solutions are subject to change and may or may not be functional.

The designs on this page are valid as of v0.2.5906.26015 (2025-09-16)

Guides in this section calls out the [[sensor]] and Solar Panel being placed in a specific orientation, but not all guides use the same orientation. When follow a a guide please be sure to place your sensor and solar panel as described in the guide.

==Types of Tracking==
There are two components to solar tracking, Horizontal position and Vertical position. A solar panel can be positioned using only one of these factors (single axis tracking) or both of these factors (dual axis tracking). Depending on the geometry of sun's sky tack on a particular planet single axis tracking can be very efficient. The solar inclination on The [[Moon]] is 0° so single axis solar tracking can be 100% efficient.

== Geometry Of [[Solar Panel|Solar Panels]] and [[Sensors#Daylight Sensor|Daylight Sensors]] ==

The Horizontal and Vertcal angle measured by the daylight sensor is different from the Solar panels coordinates system. In order to point the solar panel correctly either the angle read from the daylight sensor will need to be recalculated using a Math Unit, or the daylight sensor and solar panel will need to have a different orientation. The Vertical angle measured by the daylight sensor is also different from the Solar panels coordinates system.

If the daylight sensor is positioned horizontally the solar panel's data port should be 90° clockwise from the daylight sensor's Data Port. This will give a Horizontal angles without needing to additional Logic and math. Obtaining a Vertical angle will require additional Logic and Math.

<gallery>
daylight sensor horizontal.png|Geometry of values measured by daylight sensor in horizontal (yaw) mode
daylight sensor vertical.png|Geometry of values measured by daylight sensor in vertical (pitch) mode
solar panel yaw-Horizontal setting.png|Effect of setting horizontal rotation of a solar panel
</gallery>

==Solar tracking using Logic Chips ==

===Two-chip Vertical tracking (Moon only)===
[[File:Vertical Tracking (Moon Only).png|thumb|Two-Chip Vertical tracking usable on the Moon only.]]
Because the sun passes directly East to West with zero solar offset on the moon, it can be tracked using only 2 logic chips.

'''What do you need:'''
* [[Solar_Panel|Solar Panel (Dual)]]
* [[Kit (Logic I/O)]] x2
* [[Sensors|Kit (Sensor)]] > [[Sensors#Daylight Sensor|Daylight Sensor]]
* [[Cables|Cable]]
* [[Power_Controller|Area Power Controller]] X1

Place the Solar panel with the data port facing sunrise. Place the Daylight Sensor vertically on the wall with the data port facing down and the sensor facing sunrise. Build a Logic reader and a Batch Writer from the 2 [[Logic I/O]] Kits. Set the Logic Reader to read the Vertical Angle from the Daylight Sensor. Set the Batch Writer to Read the Reader and output the Vertical Angle to the [[Solar Panel (Dual)]]. Rotate the Solar Panel to 270°. Add an Area [[Power Controller]] to make sure the Logic Chips do not lose power.

==Two-chip Horizontal tracking==
[[File:Horizontal Tracking.png|thumb|Two-Chip Horizontal Tracking, stand alone.]]
With the daylight sensor and solar panel correctly positioned, the solar panel can tack the sun's horizontal track using only 2 chips. On [[Mars]] this can yield approximately 80% efficient solar tracking if the solar panel is manually positioned at 45° vertical. Two-chip Horizontal and two-chip Vertical tracking cannot be combined.

'''What do you need:'''
* [[Solar_Panel|Solar Panel (Dual)]]
* [[Kit (Logic I/O)]] x2
* [[Sensors|Kit (Sensor)]] > [[Sensors#Daylight Sensor|Daylight Sensor]]
* [[Cables|Cable]]
* [[Power_Controller|Area Power Controller]] X1

Place the Solar panel with the data port facing sunrise. Place the Daylight Sensor horizontally with the data port facing North and the sensor facing up. Build a Logic reader and a Batch Writer from the 2 [[Logic I/O]] Kits. Set the Logic reader to read the Horizontal Angle from the Daylight Sensor. Set the Batch Writer to Read the Reader and output the Horizontal Angle to the [[Solar Panel (Dual)]]. Manually lower the Solar Panel to 45°. Add an Area [[Power Controller]] to make sure the Logic Chips do not lose power.

==Four Chip Vertical tracking==
[[File:Vertical Tracking Two Axis.png|thumb|Four-Chip Vertical Tracking, stand alone.]]
Vertical tracking requires two additional chips, a Logic Memory and a Math Unit. There are two different method of obtaining the correct vertical solar angle. Either (90-Solar angle) or (Solar angle+90).

'''What do you need:'''
* [[Solar_Panel|Solar Panel (Dual)]]
* [[Kit (Logic I/O)]] x2
* [[Kit (Logic Processor)]]
* [[Kit (Logic Memory)]]
* [[Sensors|Kit (Sensor)]] > [[Sensors#Daylight Sensor|Daylight Sensor]]
* [[Cables|Cable]]
* [[Power_Controller|Area Power Controller]] X1

Place the Solar panel with the data port facing sunrise. Place the Daylight Sensor horizontally with the data port facing North and the sensor facing up. Build a Logic Reader and a Batch Writer from the 2 [[Logic I/O]] Kits. Build a Math Unit from the [[Logic Processor]] kit and place the Logic Memory. Set the Logic Reader to read the Vertical Angle from the Daylight Sensor. Set the Logic Memory to 90. Set the left input of the Math Unit to read the Logic Memory. Set the right input of the Math Unit to read the Logic Reader. Set the bottom output of the Math Unit to subtract. Set the Batch Writer to read the Math unit and output the Vertical Angle to the [[Solar Panel (Dual)]]. Rotate the Solar Panel to 270°. Add an Area [[Power Controller]] to make sure the Logic Chips do not lose power.

==Combined Solar Tracking==
[[File:Combined Tracking Two Axis.png|thumb|Combined Vertical and Horizontal tracking .]]
Two-Chip Horizontal Tracking can be built independently and later upgraded by combining it with Four-Chip Vertical Tracking. In this way a simple yet functional solar power system can be constructed in the early game. Later the system can be upgraded to become more efficient. This is useful for Brutal Starts as it costs fewer resources and takes less [[time]] to get a functioning solar power setup.

'''What do you need:'''
* Build the Two-Chip Horizontal Tracking as shown above.
* Build the Four-Chip Vertical Tracking as shown above.
* The daylight sensor and [[Area Power Controller|area power controller]] can be shared between the two setups.
* Labelling the Logic Chips and Daylight Sensor will simplify setup
* If a labeler is unavailable the two logic networks can be built and configured separately so there is no overlap in component names.

== Six-chip dual-axis tracking ==
To get a "100%" accurate solar [[tracker]] on [[planets]] with an offset solar arc, you need to include the Horizontal component to the solar angle.

'''What do you need:'''
* [[Kit (Logic I/O)]] x4
* [[Kit (Logic Processor)]]
* [[Kit (Logic Memory)]]
* [[Sensors|Kit (Sensor)]] > [[Sensors#Daylight Sensor|Daylight Sensor]]

Place the [[Daylight Sensor]] facing up, '''with the [[Data Port]] facing north (0 degrees).'''

{| class="wikitable"
|-
! '''Horizontal'''
|-
! '''Chip''' !! '''Chip label''' !! '''IN''' !! '''VAR''' !! '''OUT'''
|-
| [[Logic]] Reader || Horizontal Reader || Daylight Sensor || Horizontal ||
|-
| Batch Writer || Horizontal Writer || Horizontal Reader || Horizontal || [[Solar Panel]]
|-
! '''Vertical'''
|-
! '''Chip''' !! '''Chip label''' !! '''IN''' !! '''VAR''' !! '''OUT'''
|-
| Logic Reader || Vertical Reader || Daylight Sensor || Vertical ||
|-
| Batch Writer || Vertical Writer || Vertical Correction Math || Vertical || Solar Panel
|-
! '''Chip''' !! '''Chip label''' !! '''Value'''
|-
| [[Logic Memory]] || Vertical Correction Memory || 90
|-
! '''Chip''' !! '''Chip label''' !! '''IN 1''' !! '''IN 2''' !! '''OUT'''
|-
| Logic Math || Vertical Correction Math || Vertical Reader || Vertical Correction Memory || Add
|}

[[File:2022-10-02 Two-axis solar tracking.png|Accurate two-axis solar tracking]]

The panels should align themselves to the sun, you make sure to '''put the [[Power]] Port on the panels facing east (east - 90 degrees).''' If you've already built the panels and logic with the Power Port facing west, swapping the direction of the sensor so that its Data Port faces south will allow the setup to work with no additional changes.

== Solar tracking using Integrated Circuits ==
Using [[Integrated_Circuit_(IC10)|Intergrated Logic Chips]] to track the sun will result in a much smaller logic set up, but the implementation might be a bit daunting at first. Conceptually the logic involved is the same.

* The orientation of the Solar Panel and Daylight Senor are the same.
* The Horizontal angle will need to be read from the Daylight Sensor
* The Vertical angle will need to be read for the Daylight Sensor
* The Vertical angle will need to be corrected.
** The following correction must be applied. (Vertical Angel + 90 = Vertical Angle{corrected}
* The Horizontal Angle will need to be sent to the Solar Panel
* The Vertical Angle will need to be sent to the Solar Panel
* Begin the process again

'''What you need:'''
* [[Integrated Circuit (IC10)]]
* [[Kit (IC Housing)]]
* [[Sensors|Kit (Sensor)]] > [[Sensors#Daylight Sensor|Daylight Sensor]]

And if you don't already have one set up:
* [[Kit (Computer)]]
* [[Motherboard (IC Editor)|IC Editor Motherboard]]

Place the '''Daylight Sensor''' facing up, note which direction the Data Port is facing, and which direction the solar panel Power Port is facing. These two directions are needed in the code. The '''Daylight Sensor''' is connected to the '''d0''' screw, that's all you need.

A simple code example can be found here: https://stationeering.com/tools/ic/_2FpmwojGnBq<br>
This code is considered "inefficient" since it's hard-coded to spam all types of [[solar panels]], even if you don't have them.

A better code example can be found here: https://stationeering.com/tools/ic/_2FpoBEcd3QK<br>
It targets the solar-panel types on '''d2''' and (optionally) '''d3''', so it's less spammy. It also has an option for a display ('''Kit ([[Console]])''') on '''d1''' that shows the sum of power output from both types of panels

== duality of orientation ==

Due to the coordinate system used by solar panels, it is actually possible to capture peak sunlight using two different (but related) H,V coordinates.

[[File:stationeers-solar-duality.svg|frameless|panels using different control logic to accomplish the same goal]]

This screenshot shows two sets of solar panels, each with its own daylight sensor. Each sensor is oriented differently to properly match its panel and formulas. The panel on the right uses panel.horizontal = daysensor.horizontal; panel.vertical = 90-daysensor.vertical; while the panel on the left uses panel.horizontal = daysensor.horizontal; panel.vertical = daysensor.vertical + 90. They both achieve the same orientation.

Solar Logic Circuits Guide

2026-03-22T06:18:17Z

Starviking: /* Two-chip Vertical tracking (Moon only) */

[[Category:Tutorials]][[Category:Solar power]]

== Disclaimer ==

Due to the frequency of game updates, all solutions are subject to change and may or may not be functional.

The designs on this page are valid as of v0.2.5906.26015 (2025-09-16)

Guides in this section calls out the [[sensor]] and Solar Panel being placed in a specific orientation, but not all guides use the same orientation. When follow a a guide please be sure to place your sensor and solar panel as described in the guide.

==Types of Tracking==
There are two components to solar tracking, Horizontal position and Vertical position. A solar panel can be positioned using only one of these factors (single axis tracking) or both of these factors (dual axis tracking). Depending on the geometry of sun's sky tack on a particular planet single axis tracking can be very efficient. The solar inclination on The [[Moon]] is 0° so single axis solar tracking can be 100% efficient.

== Geometry Of [[Solar Panel|Solar Panels]] and [[Sensors#Daylight Sensor|Daylight Sensors]] ==

The Horizontal and Vertcal angle measured by the daylight sensor is different from the Solar panels coordinates system. In order to point the solar panel correctly either the angle read from the daylight sensor will need to be recalculated using a Math Unit, or the daylight sensor and solar panel will need to have a different orientation. The Vertical angle measured by the daylight sensor is also different from the Solar panels coordinates system.

If the daylight sensor is positioned horizontally the solar panel's data port should be 90° clockwise from the daylight sensor's Data Port. This will give a Horizontal angles without needing to additional Logic and math. Obtaining a Vertical angle will require additional Logic and Math.

<gallery>
daylight sensor horizontal.png|Geometry of values measured by daylight sensor in horizontal (yaw) mode
daylight sensor vertical.png|Geometry of values measured by daylight sensor in vertical (pitch) mode
solar panel yaw-Horizontal setting.png|Effect of setting horizontal rotation of a solar panel
</gallery>

==Solar tracking using Logic Chips ==

===Two-chip Vertical tracking (Moon only)===

Because the sun passes directly East to West with zero solar offset on the moon, it can be tracked using only 2 logic chips.

'''What do you need:'''
* [[Solar_Panel|Solar Panel (Dual)]]
* [[Kit (Logic I/O)]] x2
* [[Sensors|Kit (Sensor)]] > [[Sensors#Daylight Sensor|Daylight Sensor]]
* [[Cables|Cable]]
* [[Power_Controller|Area Power Controller]] X1

Place the Solar panel with the data port facing sunrise. Place the Daylight Sensor vertically on the wall with the data port facing down and the sensor facing sunrise. Build a Logic reader and a Batch Writer from the 2 [[Logic I/O]] Kits. Set the Logic Reader to read the Vertical Angle from the Daylight Sensor. Set the Batch Writer to Read the Reader and output the Vertical Angle to the [[Solar Panel (Dual)]]. Rotate the Solar Panel to 270°. Add an Area [[Power Controller]] to make sure the Logic Chips do not lose power.

==Two-chip Horizontal tracking==
[[File:Horizontal Tracking.png|thumb|Two-Chip Horizontal Tracking, stand alone.]]
With the daylight sensor and solar panel correctly positioned, the solar panel can tack the sun's horizontal track using only 2 chips. On [[Mars]] this can yield approximately 80% efficient solar tracking if the solar panel is manually positioned at 45° vertical. Two-chip Horizontal and two-chip Vertical tracking cannot be combined.

'''What do you need:'''
* [[Solar_Panel|Solar Panel (Dual)]]
* [[Kit (Logic I/O)]] x2
* [[Sensors|Kit (Sensor)]] > [[Sensors#Daylight Sensor|Daylight Sensor]]
* [[Cables|Cable]]
* [[Power_Controller|Area Power Controller]] X1

Place the Solar panel with the data port facing sunrise. Place the Daylight Sensor horizontally with the data port facing North and the sensor facing up. Build a Logic reader and a Batch Writer from the 2 [[Logic I/O]] Kits. Set the Logic reader to read the Horizontal Angle from the Daylight Sensor. Set the Batch Writer to Read the Reader and output the Horizontal Angle to the [[Solar Panel (Dual)]]. Manually lower the Solar Panel to 45°. Add an Area [[Power Controller]] to make sure the Logic Chips do not lose power.

==Four Chip Vertical tracking==
[[File:Vertical Tracking Two Axis.png|thumb|Four-Chip Vertical Tracking, stand alone.]]
Vertical tracking requires two additional chips, a Logic Memory and a Math Unit. There are two different method of obtaining the correct vertical solar angle. Either (90-Solar angle) or (Solar angle+90).

'''What do you need:'''
* [[Solar_Panel|Solar Panel (Dual)]]
* [[Kit (Logic I/O)]] x2
* [[Kit (Logic Processor)]]
* [[Kit (Logic Memory)]]
* [[Sensors|Kit (Sensor)]] > [[Sensors#Daylight Sensor|Daylight Sensor]]
* [[Cables|Cable]]
* [[Power_Controller|Area Power Controller]] X1

Place the Solar panel with the data port facing sunrise. Place the Daylight Sensor horizontally with the data port facing North and the sensor facing up. Build a Logic Reader and a Batch Writer from the 2 [[Logic I/O]] Kits. Build a Math Unit from the [[Logic Processor]] kit and place the Logic Memory. Set the Logic Reader to read the Vertical Angle from the Daylight Sensor. Set the Logic Memory to 90. Set the left input of the Math Unit to read the Logic Memory. Set the right input of the Math Unit to read the Logic Reader. Set the bottom output of the Math Unit to subtract. Set the Batch Writer to read the Math unit and output the Vertical Angle to the [[Solar Panel (Dual)]]. Rotate the Solar Panel to 270°. Add an Area [[Power Controller]] to make sure the Logic Chips do not lose power.

==Combined Solar Tracking==
[[File:Combined Tracking Two Axis.png|thumb|Combined Vertical and Horizontal tracking .]]
Two-Chip Horizontal Tracking can be built independently and later upgraded by combining it with Four-Chip Vertical Tracking. In this way a simple yet functional solar power system can be constructed in the early game. Later the system can be upgraded to become more efficient. This is useful for Brutal Starts as it costs fewer resources and takes less [[time]] to get a functioning solar power setup.

'''What do you need:'''
* Build the Two-Chip Horizontal Tracking as shown above.
* Build the Four-Chip Vertical Tracking as shown above.
* The daylight sensor and [[Area Power Controller|area power controller]] can be shared between the two setups.
* Labelling the Logic Chips and Daylight Sensor will simplify setup
* If a labeler is unavailable the two logic networks can be built and configured separately so there is no overlap in component names.

== Six-chip dual-axis tracking ==
To get a "100%" accurate solar [[tracker]] on [[planets]] with an offset solar arc, you need to include the Horizontal component to the solar angle.

'''What do you need:'''
* [[Kit (Logic I/O)]] x4
* [[Kit (Logic Processor)]]
* [[Kit (Logic Memory)]]
* [[Sensors|Kit (Sensor)]] > [[Sensors#Daylight Sensor|Daylight Sensor]]

Place the [[Daylight Sensor]] facing up, '''with the [[Data Port]] facing north (0 degrees).'''

{| class="wikitable"
|-
! '''Horizontal'''
|-
! '''Chip''' !! '''Chip label''' !! '''IN''' !! '''VAR''' !! '''OUT'''
|-
| [[Logic]] Reader || Horizontal Reader || Daylight Sensor || Horizontal ||
|-
| Batch Writer || Horizontal Writer || Horizontal Reader || Horizontal || [[Solar Panel]]
|-
! '''Vertical'''
|-
! '''Chip''' !! '''Chip label''' !! '''IN''' !! '''VAR''' !! '''OUT'''
|-
| Logic Reader || Vertical Reader || Daylight Sensor || Vertical ||
|-
| Batch Writer || Vertical Writer || Vertical Correction Math || Vertical || Solar Panel
|-
! '''Chip''' !! '''Chip label''' !! '''Value'''
|-
| [[Logic Memory]] || Vertical Correction Memory || 90
|-
! '''Chip''' !! '''Chip label''' !! '''IN 1''' !! '''IN 2''' !! '''OUT'''
|-
| Logic Math || Vertical Correction Math || Vertical Reader || Vertical Correction Memory || Add
|}

[[File:2022-10-02 Two-axis solar tracking.png|Accurate two-axis solar tracking]]

The panels should align themselves to the sun, you make sure to '''put the [[Power]] Port on the panels facing east (east - 90 degrees).''' If you've already built the panels and logic with the Power Port facing west, swapping the direction of the sensor so that its Data Port faces south will allow the setup to work with no additional changes.

== Solar tracking using Integrated Circuits ==
Using [[Integrated_Circuit_(IC10)|Intergrated Logic Chips]] to track the sun will result in a much smaller logic set up, but the implementation might be a bit daunting at first. Conceptually the logic involved is the same.

* The orientation of the Solar Panel and Daylight Senor are the same.
* The Horizontal angle will need to be read from the Daylight Sensor
* The Vertical angle will need to be read for the Daylight Sensor
* The Vertical angle will need to be corrected.
** The following correction must be applied. (Vertical Angel + 90 = Vertical Angle{corrected}
* The Horizontal Angle will need to be sent to the Solar Panel
* The Vertical Angle will need to be sent to the Solar Panel
* Begin the process again

'''What you need:'''
* [[Integrated Circuit (IC10)]]
* [[Kit (IC Housing)]]
* [[Sensors|Kit (Sensor)]] > [[Sensors#Daylight Sensor|Daylight Sensor]]

And if you don't already have one set up:
* [[Kit (Computer)]]
* [[Motherboard (IC Editor)|IC Editor Motherboard]]

Place the '''Daylight Sensor''' facing up, note which direction the Data Port is facing, and which direction the solar panel Power Port is facing. These two directions are needed in the code. The '''Daylight Sensor''' is connected to the '''d0''' screw, that's all you need.

A simple code example can be found here: https://stationeering.com/tools/ic/_2FpmwojGnBq<br>
This code is considered "inefficient" since it's hard-coded to spam all types of [[solar panels]], even if you don't have them.

A better code example can be found here: https://stationeering.com/tools/ic/_2FpoBEcd3QK<br>
It targets the solar-panel types on '''d2''' and (optionally) '''d3''', so it's less spammy. It also has an option for a display ('''Kit ([[Console]])''') on '''d1''' that shows the sum of power output from both types of panels

== duality of orientation ==

Due to the coordinate system used by solar panels, it is actually possible to capture peak sunlight using two different (but related) H,V coordinates.

[[File:stationeers-solar-duality.svg|frameless|panels using different control logic to accomplish the same goal]]

This screenshot shows two sets of solar panels, each with its own daylight sensor. Each sensor is oriented differently to properly match its panel and formulas. The panel on the right uses panel.horizontal = daysensor.horizontal; panel.vertical = 90-daysensor.vertical; while the panel on the left uses panel.horizontal = daysensor.horizontal; panel.vertical = daysensor.vertical + 90. They both achieve the same orientation.

File:Vertical Tracking (Moon Only).png

2026-03-22T06:14:24Z

Starviking: Starviking uploaded a new version of File:Vertical Tracking (Moon Only).png

=={{int:filedesc}}==
{{Information
|description={{en|1=Two-Chip Vertical tracking f usable on the Moon only.}}
|date=2026-03-21
|source={{own}}
|author=[[User:Starviking|Starviking]]
|permission=
|other versions=
}}

=={{int:license-header}}==
{{licensing|Generic}}

Solar Logic Circuits Guide

2026-03-22T05:24:42Z

Starviking: /* Combined Solar Tracking */ Expanded description of combine tracking, rewrote description of the purpose of combining the two systems.

[[Category:Tutorials]][[Category:Solar power]]

== Disclaimer ==

Due to the frequency of game updates, all solutions are subject to change and may or may not be functional.

The designs on this page are valid as of v0.2.5906.26015 (2025-09-16)

Guides in this section calls out the [[sensor]] and Solar Panel being placed in a specific orientation, but not all guides use the same orientation. When follow a a guide please be sure to place your sensor and solar panel as described in the guide.

==Types of Tracking==
There are two components to solar tracking, Horizontal position and Vertical position. A solar panel can be positioned using only one of these factors (single axis tracking) or both of these factors (dual axis tracking). Depending on the geometry of sun's sky tack on a particular planet single axis tracking can be very efficient. The solar inclination on The [[Moon]] is 0° so single axis solar tracking can be 100% efficient.

== Geometry Of [[Solar Panel|Solar Panels]] and [[Sensors#Daylight Sensor|Daylight Sensors]] ==

The Horizontal and Vertcal angle measured by the daylight sensor is different from the Solar panels coordinates system. In order to point the solar panel correctly either the angle read from the daylight sensor will need to be recalculated using a Math Unit, or the daylight sensor and solar panel will need to have a different orientation. The Vertical angle measured by the daylight sensor is also different from the Solar panels coordinates system.

If the daylight sensor is positioned horizontally the solar panel's data port should be 90° clockwise from the daylight sensor's Data Port. This will give a Horizontal angles without needing to additional Logic and math. Obtaining a Vertical angle will require additional Logic and Math.

<gallery>
daylight sensor horizontal.png|Geometry of values measured by daylight sensor in horizontal (yaw) mode
daylight sensor vertical.png|Geometry of values measured by daylight sensor in vertical (pitch) mode
solar panel yaw-Horizontal setting.png|Effect of setting horizontal rotation of a solar panel
</gallery>

==Solar tracking using Logic Chips ==

===Two-chip Vertical tracking (Moon only)===
[[File:Vertical Tracking (Moon Only).png|thumb|Two-Chip Vertical tracking usable on the Moon only.]]
Because the sun passes directly East to West with zero solar offset on the moon, it can be tracked using only 2 logic chips.

'''What do you need:'''
* [[Solar_Panel|Solar Panel (Dual)]]
* [[Kit (Logic I/O)]] x2
* [[Sensors|Kit (Sensor)]] > [[Sensors#Daylight Sensor|Daylight Sensor]]
* [[Cables|Cable]]
* [[Power_Controller|Area Power Controller]] X1

Place the Solar panel with the data port facing sunrise. Place the Daylight Sensor vertically on the wall with the data port facing down and the sensor facing sunrise. Build a Logic reader and a Batch Writer from the 2 [[Logic I/O]] Kits. Set the Logic Reader to read the Vertical Angle from the Daylight Sensor. Set the Batch Writer to Read the Reader and output the Vertical Angle to the [[Solar Panel (Dual)]]. Rotate the Solar Panel to 270°. Add an Area [[Power Controller]] to make sure the Logic Chips do not lose power.

==Two-chip Horizontal tracking==
[[File:Horizontal Tracking.png|thumb|Two-Chip Horizontal Tracking, stand alone.]]
With the daylight sensor and solar panel correctly positioned, the solar panel can tack the sun's horizontal track using only 2 chips. On [[Mars]] this can yield approximately 80% efficient solar tracking if the solar panel is manually positioned at 45° vertical. Two-chip Horizontal and two-chip Vertical tracking cannot be combined.

'''What do you need:'''
* [[Solar_Panel|Solar Panel (Dual)]]
* [[Kit (Logic I/O)]] x2
* [[Sensors|Kit (Sensor)]] > [[Sensors#Daylight Sensor|Daylight Sensor]]
* [[Cables|Cable]]
* [[Power_Controller|Area Power Controller]] X1

Place the Solar panel with the data port facing sunrise. Place the Daylight Sensor horizontally with the data port facing North and the sensor facing up. Build a Logic reader and a Batch Writer from the 2 [[Logic I/O]] Kits. Set the Logic reader to read the Horizontal Angle from the Daylight Sensor. Set the Batch Writer to Read the Reader and output the Horizontal Angle to the [[Solar Panel (Dual)]]. Manually lower the Solar Panel to 45°. Add an Area [[Power Controller]] to make sure the Logic Chips do not lose power.

==Four Chip Vertical tracking==
[[File:Vertical Tracking Two Axis.png|thumb|Four-Chip Vertical Tracking, stand alone.]]
Vertical tracking requires two additional chips, a Logic Memory and a Math Unit. There are two different method of obtaining the correct vertical solar angle. Either (90-Solar angle) or (Solar angle+90).

'''What do you need:'''
* [[Solar_Panel|Solar Panel (Dual)]]
* [[Kit (Logic I/O)]] x2
* [[Kit (Logic Processor)]]
* [[Kit (Logic Memory)]]
* [[Sensors|Kit (Sensor)]] > [[Sensors#Daylight Sensor|Daylight Sensor]]
* [[Cables|Cable]]
* [[Power_Controller|Area Power Controller]] X1

Place the Solar panel with the data port facing sunrise. Place the Daylight Sensor horizontally with the data port facing North and the sensor facing up. Build a Logic Reader and a Batch Writer from the 2 [[Logic I/O]] Kits. Build a Math Unit from the [[Logic Processor]] kit and place the Logic Memory. Set the Logic Reader to read the Vertical Angle from the Daylight Sensor. Set the Logic Memory to 90. Set the left input of the Math Unit to read the Logic Memory. Set the right input of the Math Unit to read the Logic Reader. Set the bottom output of the Math Unit to subtract. Set the Batch Writer to read the Math unit and output the Vertical Angle to the [[Solar Panel (Dual)]]. Rotate the Solar Panel to 270°. Add an Area [[Power Controller]] to make sure the Logic Chips do not lose power.

==Combined Solar Tracking==
[[File:Combined Tracking Two Axis.png|thumb|Combined Vertical and Horizontal tracking .]]
Two-Chip Horizontal Tracking can be built independently and later upgraded by combining it with Four-Chip Vertical Tracking. In this way a simple yet functional solar power system can be constructed in the early game. Later the system can be upgraded to become more efficient. This is useful for Brutal Starts as it costs fewer resources and takes less [[time]] to get a functioning solar power setup.

'''What do you need:'''
* Build the Two-Chip Horizontal Tracking as shown above.
* Build the Four-Chip Vertical Tracking as shown above.
* The daylight sensor and [[Area Power Controller|area power controller]] can be shared between the two setups.
* Labelling the Logic Chips and Daylight Sensor will simplify setup
* If a labeler is unavailable the two logic networks can be built and configured separately so there is no overlap in component names.

== Six-chip dual-axis tracking ==
To get a "100%" accurate solar [[tracker]] on [[planets]] with an offset solar arc, you need to include the Horizontal component to the solar angle.

'''What do you need:'''
* [[Kit (Logic I/O)]] x4
* [[Kit (Logic Processor)]]
* [[Kit (Logic Memory)]]
* [[Sensors|Kit (Sensor)]] > [[Sensors#Daylight Sensor|Daylight Sensor]]

Place the [[Daylight Sensor]] facing up, '''with the [[Data Port]] facing north (0 degrees).'''

{| class="wikitable"
|-
! '''Horizontal'''
|-
! '''Chip''' !! '''Chip label''' !! '''IN''' !! '''VAR''' !! '''OUT'''
|-
| [[Logic]] Reader || Horizontal Reader || Daylight Sensor || Horizontal ||
|-
| Batch Writer || Horizontal Writer || Horizontal Reader || Horizontal || [[Solar Panel]]
|-
! '''Vertical'''
|-
! '''Chip''' !! '''Chip label''' !! '''IN''' !! '''VAR''' !! '''OUT'''
|-
| Logic Reader || Vertical Reader || Daylight Sensor || Vertical ||
|-
| Batch Writer || Vertical Writer || Vertical Correction Math || Vertical || Solar Panel
|-
! '''Chip''' !! '''Chip label''' !! '''Value'''
|-
| [[Logic Memory]] || Vertical Correction Memory || 90
|-
! '''Chip''' !! '''Chip label''' !! '''IN 1''' !! '''IN 2''' !! '''OUT'''
|-
| Logic Math || Vertical Correction Math || Vertical Reader || Vertical Correction Memory || Add
|}

[[File:2022-10-02 Two-axis solar tracking.png|Accurate two-axis solar tracking]]

The panels should align themselves to the sun, you make sure to '''put the [[Power]] Port on the panels facing east (east - 90 degrees).''' If you've already built the panels and logic with the Power Port facing west, swapping the direction of the sensor so that its Data Port faces south will allow the setup to work with no additional changes.

== Solar tracking using Integrated Circuits ==
Using [[Integrated_Circuit_(IC10)|Intergrated Logic Chips]] to track the sun will result in a much smaller logic set up, but the implementation might be a bit daunting at first. Conceptually the logic involved is the same.

* The orientation of the Solar Panel and Daylight Senor are the same.
* The Horizontal angle will need to be read from the Daylight Sensor
* The Vertical angle will need to be read for the Daylight Sensor
* The Vertical angle will need to be corrected.
** The following correction must be applied. (Vertical Angel + 90 = Vertical Angle{corrected}
* The Horizontal Angle will need to be sent to the Solar Panel
* The Vertical Angle will need to be sent to the Solar Panel
* Begin the process again

'''What you need:'''
* [[Integrated Circuit (IC10)]]
* [[Kit (IC Housing)]]
* [[Sensors|Kit (Sensor)]] > [[Sensors#Daylight Sensor|Daylight Sensor]]

And if you don't already have one set up:
* [[Kit (Computer)]]
* [[Motherboard (IC Editor)|IC Editor Motherboard]]

Place the '''Daylight Sensor''' facing up, note which direction the Data Port is facing, and which direction the solar panel Power Port is facing. These two directions are needed in the code. The '''Daylight Sensor''' is connected to the '''d0''' screw, that's all you need.

A simple code example can be found here: https://stationeering.com/tools/ic/_2FpmwojGnBq<br>
This code is considered "inefficient" since it's hard-coded to spam all types of [[solar panels]], even if you don't have them.

A better code example can be found here: https://stationeering.com/tools/ic/_2FpoBEcd3QK<br>
It targets the solar-panel types on '''d2''' and (optionally) '''d3''', so it's less spammy. It also has an option for a display ('''Kit ([[Console]])''') on '''d1''' that shows the sum of power output from both types of panels

== duality of orientation ==

Due to the coordinate system used by solar panels, it is actually possible to capture peak sunlight using two different (but related) H,V coordinates.

[[File:stationeers-solar-duality.svg|frameless|panels using different control logic to accomplish the same goal]]

This screenshot shows two sets of solar panels, each with its own daylight sensor. Each sensor is oriented differently to properly match its panel and formulas. The panel on the right uses panel.horizontal = daysensor.horizontal; panel.vertical = 90-daysensor.vertical; while the panel on the left uses panel.horizontal = daysensor.horizontal; panel.vertical = daysensor.vertical + 90. They both achieve the same orientation.

Solar Logic Circuits Guide

2026-03-22T04:46:03Z

Starviking: /* Combined Solar Tracking */ Added illustration of combined solar tracking.

[[Category:Tutorials]][[Category:Solar power]]

== Disclaimer ==

Due to the frequency of game updates, all solutions are subject to change and may or may not be functional.

The designs on this page are valid as of v0.2.5906.26015 (2025-09-16)

Guides in this section calls out the [[sensor]] and Solar Panel being placed in a specific orientation, but not all guides use the same orientation. When follow a a guide please be sure to place your sensor and solar panel as described in the guide.

==Types of Tracking==
There are two components to solar tracking, Horizontal position and Vertical position. A solar panel can be positioned using only one of these factors (single axis tracking) or both of these factors (dual axis tracking). Depending on the geometry of sun's sky tack on a particular planet single axis tracking can be very efficient. The solar inclination on The [[Moon]] is 0° so single axis solar tracking can be 100% efficient.

== Geometry Of [[Solar Panel|Solar Panels]] and [[Sensors#Daylight Sensor|Daylight Sensors]] ==

The Horizontal and Vertcal angle measured by the daylight sensor is different from the Solar panels coordinates system. In order to point the solar panel correctly either the angle read from the daylight sensor will need to be recalculated using a Math Unit, or the daylight sensor and solar panel will need to have a different orientation. The Vertical angle measured by the daylight sensor is also different from the Solar panels coordinates system.

If the daylight sensor is positioned horizontally the solar panel's data port should be 90° clockwise from the daylight sensor's Data Port. This will give a Horizontal angles without needing to additional Logic and math. Obtaining a Vertical angle will require additional Logic and Math.

<gallery>
daylight sensor horizontal.png|Geometry of values measured by daylight sensor in horizontal (yaw) mode
daylight sensor vertical.png|Geometry of values measured by daylight sensor in vertical (pitch) mode
solar panel yaw-Horizontal setting.png|Effect of setting horizontal rotation of a solar panel
</gallery>

==Solar tracking using Logic Chips ==

===Two-chip Vertical tracking (Moon only)===
[[File:Vertical Tracking (Moon Only).png|thumb|Two-Chip Vertical tracking usable on the Moon only.]]
Because the sun passes directly East to West with zero solar offset on the moon, it can be tracked using only 2 logic chips.

'''What do you need:'''
* [[Solar_Panel|Solar Panel (Dual)]]
* [[Kit (Logic I/O)]] x2
* [[Sensors|Kit (Sensor)]] > [[Sensors#Daylight Sensor|Daylight Sensor]]
* [[Cables|Cable]]
* [[Power_Controller|Area Power Controller]] X1

Place the Solar panel with the data port facing sunrise. Place the Daylight Sensor vertically on the wall with the data port facing down and the sensor facing sunrise. Build a Logic reader and a Batch Writer from the 2 [[Logic I/O]] Kits. Set the Logic Reader to read the Vertical Angle from the Daylight Sensor. Set the Batch Writer to Read the Reader and output the Vertical Angle to the [[Solar Panel (Dual)]]. Rotate the Solar Panel to 270°. Add an Area [[Power Controller]] to make sure the Logic Chips do not lose power.

==Two-chip Horizontal tracking==
[[File:Horizontal Tracking.png|thumb|Two-Chip Horizontal Tracking, stand alone.]]
With the daylight sensor and solar panel correctly positioned, the solar panel can tack the sun's horizontal track using only 2 chips. On [[Mars]] this can yield approximately 80% efficient solar tracking if the solar panel is manually positioned at 45° vertical. Two-chip Horizontal and two-chip Vertical tracking cannot be combined.

'''What do you need:'''
* [[Solar_Panel|Solar Panel (Dual)]]
* [[Kit (Logic I/O)]] x2
* [[Sensors|Kit (Sensor)]] > [[Sensors#Daylight Sensor|Daylight Sensor]]
* [[Cables|Cable]]
* [[Power_Controller|Area Power Controller]] X1

Place the Solar panel with the data port facing sunrise. Place the Daylight Sensor horizontally with the data port facing North and the sensor facing up. Build a Logic reader and a Batch Writer from the 2 [[Logic I/O]] Kits. Set the Logic reader to read the Horizontal Angle from the Daylight Sensor. Set the Batch Writer to Read the Reader and output the Horizontal Angle to the [[Solar Panel (Dual)]]. Manually lower the Solar Panel to 45°. Add an Area [[Power Controller]] to make sure the Logic Chips do not lose power.

==Four Chip Vertical tracking==
[[File:Vertical Tracking Two Axis.png|thumb|Four-Chip Vertical Tracking, stand alone.]]
Vertical tracking requires two additional chips, a Logic Memory and a Math Unit. There are two different method of obtaining the correct vertical solar angle. Either (90-Solar angle) or (Solar angle+90).

'''What do you need:'''
* [[Solar_Panel|Solar Panel (Dual)]]
* [[Kit (Logic I/O)]] x2
* [[Kit (Logic Processor)]]
* [[Kit (Logic Memory)]]
* [[Sensors|Kit (Sensor)]] > [[Sensors#Daylight Sensor|Daylight Sensor]]
* [[Cables|Cable]]
* [[Power_Controller|Area Power Controller]] X1

Place the Solar panel with the data port facing sunrise. Place the Daylight Sensor horizontally with the data port facing North and the sensor facing up. Build a Logic Reader and a Batch Writer from the 2 [[Logic I/O]] Kits. Build a Math Unit from the [[Logic Processor]] kit and place the Logic Memory. Set the Logic Reader to read the Vertical Angle from the Daylight Sensor. Set the Logic Memory to 90. Set the left input of the Math Unit to read the Logic Memory. Set the right input of the Math Unit to read the Logic Reader. Set the bottom output of the Math Unit to subtract. Set the Batch Writer to read the Math unit and output the Vertical Angle to the [[Solar Panel (Dual)]]. Rotate the Solar Panel to 270°. Add an Area [[Power Controller]] to make sure the Logic Chips do not lose power.

==Combined Solar Tracking==
[[File:Combined Tracking Two Axis.png|thumb|Combined Vertical and Horizontal tracking .]]
Two-Chip Horizontal Tracking can be upgraded by combining it with Four-Chip Vertical Tracking. Rather than building both at once it is possible to build the Two-Chip Horizontal Tracking and integrate Four-Chip Vertical Tracking at a later [[time]]. This is convenient for Brutal Starts as it costs fewer resources and takes less time to get a functioning solar power setup.

'''What do you need:'''
* Build the Two-Chip Horizontal Tracking as shown above.
* Build the Four-Chip Vertical Tracking as shown above.
* The daylight sensor and [[Area Power Controller|area power controller]] can be shared between the two setups.

== Six-chip dual-axis tracking ==
To get a "100%" accurate solar [[tracker]] on [[planets]] with an offset solar arc, you need to include the Horizontal component to the solar angle.

'''What do you need:'''
* [[Kit (Logic I/O)]] x4
* [[Kit (Logic Processor)]]
* [[Kit (Logic Memory)]]
* [[Sensors|Kit (Sensor)]] > [[Sensors#Daylight Sensor|Daylight Sensor]]

Place the [[Daylight Sensor]] facing up, '''with the [[Data Port]] facing north (0 degrees).'''

{| class="wikitable"
|-
! '''Horizontal'''
|-
! '''Chip''' !! '''Chip label''' !! '''IN''' !! '''VAR''' !! '''OUT'''
|-
| [[Logic]] Reader || Horizontal Reader || Daylight Sensor || Horizontal ||
|-
| Batch Writer || Horizontal Writer || Horizontal Reader || Horizontal || [[Solar Panel]]
|-
! '''Vertical'''
|-
! '''Chip''' !! '''Chip label''' !! '''IN''' !! '''VAR''' !! '''OUT'''
|-
| Logic Reader || Vertical Reader || Daylight Sensor || Vertical ||
|-
| Batch Writer || Vertical Writer || Vertical Correction Math || Vertical || Solar Panel
|-
! '''Chip''' !! '''Chip label''' !! '''Value'''
|-
| [[Logic Memory]] || Vertical Correction Memory || 90
|-
! '''Chip''' !! '''Chip label''' !! '''IN 1''' !! '''IN 2''' !! '''OUT'''
|-
| Logic Math || Vertical Correction Math || Vertical Reader || Vertical Correction Memory || Add
|}

[[File:2022-10-02 Two-axis solar tracking.png|Accurate two-axis solar tracking]]

The panels should align themselves to the sun, you make sure to '''put the [[Power]] Port on the panels facing east (east - 90 degrees).''' If you've already built the panels and logic with the Power Port facing west, swapping the direction of the sensor so that its Data Port faces south will allow the setup to work with no additional changes.

== Solar tracking using Integrated Circuits ==
Using [[Integrated_Circuit_(IC10)|Intergrated Logic Chips]] to track the sun will result in a much smaller logic set up, but the implementation might be a bit daunting at first. Conceptually the logic involved is the same.

* The orientation of the Solar Panel and Daylight Senor are the same.
* The Horizontal angle will need to be read from the Daylight Sensor
* The Vertical angle will need to be read for the Daylight Sensor
* The Vertical angle will need to be corrected.
** The following correction must be applied. (Vertical Angel + 90 = Vertical Angle{corrected}
* The Horizontal Angle will need to be sent to the Solar Panel
* The Vertical Angle will need to be sent to the Solar Panel
* Begin the process again

'''What you need:'''
* [[Integrated Circuit (IC10)]]
* [[Kit (IC Housing)]]
* [[Sensors|Kit (Sensor)]] > [[Sensors#Daylight Sensor|Daylight Sensor]]

And if you don't already have one set up:
* [[Kit (Computer)]]
* [[Motherboard (IC Editor)|IC Editor Motherboard]]

Place the '''Daylight Sensor''' facing up, note which direction the Data Port is facing, and which direction the solar panel Power Port is facing. These two directions are needed in the code. The '''Daylight Sensor''' is connected to the '''d0''' screw, that's all you need.

A simple code example can be found here: https://stationeering.com/tools/ic/_2FpmwojGnBq<br>
This code is considered "inefficient" since it's hard-coded to spam all types of [[solar panels]], even if you don't have them.

A better code example can be found here: https://stationeering.com/tools/ic/_2FpoBEcd3QK<br>
It targets the solar-panel types on '''d2''' and (optionally) '''d3''', so it's less spammy. It also has an option for a display ('''Kit ([[Console]])''') on '''d1''' that shows the sum of power output from both types of panels

== duality of orientation ==

Due to the coordinate system used by solar panels, it is actually possible to capture peak sunlight using two different (but related) H,V coordinates.

[[File:stationeers-solar-duality.svg|frameless|panels using different control logic to accomplish the same goal]]

This screenshot shows two sets of solar panels, each with its own daylight sensor. Each sensor is oriented differently to properly match its panel and formulas. The panel on the right uses panel.horizontal = daysensor.horizontal; panel.vertical = 90-daysensor.vertical; while the panel on the left uses panel.horizontal = daysensor.horizontal; panel.vertical = daysensor.vertical + 90. They both achieve the same orientation.

File:Combined Tracking Two Axis.png

2026-03-22T04:43:58Z

Starviking: Uploaded own work with UploadWizard

=={{int:filedesc}}==
{{Information
|description={{en|1=Combined Vertical and Horizontal tracking .}}
|date=2026-03-22
|source={{own}}
|author=[[User:Starviking|Starviking]]
|permission=
|other versions=
}}

=={{int:license-header}}==
{{licensing|Generic}}

Solar Logic Circuits Guide

2026-03-22T03:03:12Z

Starviking: /* Solar tracking using Integrated Circuits */ added section describing the logic needed for programing the IC10

[[Category:Tutorials]][[Category:Solar power]]

== Disclaimer ==

Due to the frequency of game updates, all solutions are subject to change and may or may not be functional.

The designs on this page are valid as of v0.2.5906.26015 (2025-09-16)

Guides in this section calls out the [[sensor]] and Solar Panel being placed in a specific orientation, but not all guides use the same orientation. When follow a a guide please be sure to place your sensor and solar panel as described in the guide.

==Types of Tracking==
There are two components to solar tracking, Horizontal position and Vertical position. A solar panel can be positioned using only one of these factors (single axis tracking) or both of these factors (dual axis tracking). Depending on the geometry of sun's sky tack on a particular planet single axis tracking can be very efficient. The solar inclination on The [[Moon]] is 0° so single axis solar tracking can be 100% efficient.

== Geometry Of [[Solar Panel|Solar Panels]] and [[Sensors#Daylight Sensor|Daylight Sensors]] ==

The Horizontal and Vertcal angle measured by the daylight sensor is different from the Solar panels coordinates system. In order to point the solar panel correctly either the angle read from the daylight sensor will need to be recalculated using a Math Unit, or the daylight sensor and solar panel will need to have a different orientation. The Vertical angle measured by the daylight sensor is also different from the Solar panels coordinates system.

If the daylight sensor is positioned horizontally the solar panel's data port should be 90° clockwise from the daylight sensor's Data Port. This will give a Horizontal angles without needing to additional Logic and math. Obtaining a Vertical angle will require additional Logic and Math.

<gallery>
daylight sensor horizontal.png|Geometry of values measured by daylight sensor in horizontal (yaw) mode
daylight sensor vertical.png|Geometry of values measured by daylight sensor in vertical (pitch) mode
solar panel yaw-Horizontal setting.png|Effect of setting horizontal rotation of a solar panel
</gallery>

==Solar tracking using Logic Chips ==

===Two-chip Vertical tracking (Moon only)===
[[File:Vertical Tracking (Moon Only).png|thumb|Two-Chip Vertical tracking usable on the Moon only.]]
Because the sun passes directly East to West with zero solar offset on the moon, it can be tracked using only 2 logic chips.

'''What do you need:'''
* [[Solar_Panel|Solar Panel (Dual)]]
* [[Kit (Logic I/O)]] x2
* [[Sensors|Kit (Sensor)]] > [[Sensors#Daylight Sensor|Daylight Sensor]]
* [[Cables|Cable]]
* [[Power_Controller|Area Power Controller]] X1

Place the Solar panel with the data port facing sunrise. Place the Daylight Sensor vertically on the wall with the data port facing down and the sensor facing sunrise. Build a Logic reader and a Batch Writer from the 2 [[Logic I/O]] Kits. Set the Logic Reader to read the Vertical Angle from the Daylight Sensor. Set the Batch Writer to Read the Reader and output the Vertical Angle to the [[Solar Panel (Dual)]]. Rotate the Solar Panel to 270°. Add an Area [[Power Controller]] to make sure the Logic Chips do not lose power.

==Two-chip Horizontal tracking==
[[File:Horizontal Tracking.png|thumb|Two-Chip Horizontal Tracking, stand alone.]]
With the daylight sensor and solar panel correctly positioned, the solar panel can tack the sun's horizontal track using only 2 chips. On [[Mars]] this can yield approximately 80% efficient solar tracking if the solar panel is manually positioned at 45° vertical. Two-chip Horizontal and two-chip Vertical tracking cannot be combined.

'''What do you need:'''
* [[Solar_Panel|Solar Panel (Dual)]]
* [[Kit (Logic I/O)]] x2
* [[Sensors|Kit (Sensor)]] > [[Sensors#Daylight Sensor|Daylight Sensor]]
* [[Cables|Cable]]
* [[Power_Controller|Area Power Controller]] X1

Place the Solar panel with the data port facing sunrise. Place the Daylight Sensor horizontally with the data port facing North and the sensor facing up. Build a Logic reader and a Batch Writer from the 2 [[Logic I/O]] Kits. Set the Logic reader to read the Horizontal Angle from the Daylight Sensor. Set the Batch Writer to Read the Reader and output the Horizontal Angle to the [[Solar Panel (Dual)]]. Manually lower the Solar Panel to 45°. Add an Area [[Power Controller]] to make sure the Logic Chips do not lose power.

==Four Chip Vertical tracking==
[[File:Vertical Tracking Two Axis.png|thumb|Four-Chip Vertical Tracking, stand alone.]]
Vertical tracking requires two additional chips, a Logic Memory and a Math Unit. There are two different method of obtaining the correct vertical solar angle. Either (90-Solar angle) or (Solar angle+90).

'''What do you need:'''
* [[Solar_Panel|Solar Panel (Dual)]]
* [[Kit (Logic I/O)]] x2
* [[Kit (Logic Processor)]]
* [[Kit (Logic Memory)]]
* [[Sensors|Kit (Sensor)]] > [[Sensors#Daylight Sensor|Daylight Sensor]]
* [[Cables|Cable]]
* [[Power_Controller|Area Power Controller]] X1

Place the Solar panel with the data port facing sunrise. Place the Daylight Sensor horizontally with the data port facing North and the sensor facing up. Build a Logic Reader and a Batch Writer from the 2 [[Logic I/O]] Kits. Build a Math Unit from the [[Logic Processor]] kit and place the Logic Memory. Set the Logic Reader to read the Vertical Angle from the Daylight Sensor. Set the Logic Memory to 90. Set the left input of the Math Unit to read the Logic Memory. Set the right input of the Math Unit to read the Logic Reader. Set the bottom output of the Math Unit to subtract. Set the Batch Writer to read the Math unit and output the Vertical Angle to the [[Solar Panel (Dual)]]. Rotate the Solar Panel to 270°. Add an Area [[Power Controller]] to make sure the Logic Chips do not lose power.

==Combined Solar Tracking==
Two-Chip Horizontal Tracking can be upgraded by combining it with Four-Chip Vertical Tracking. Rather than building both at once it is possible to build the Two-Chip Horizontal Tracking and integrate Four-Chip Vertical Tracking at a later [[time]]. This is convenient for Brutal Starts as it costs fewer resources and takes less time to get a functioning solar power setup.

'''What do you need:'''
* Build the Two-Chip Horizontal Tracking as shown above.
* Build the Four-Chip Vertical Tracking as shown above.
* The daylight sensor and [[Area Power Controller|area power controller]] can be shared between the two setups.

== Six-chip dual-axis tracking ==
To get a "100%" accurate solar [[tracker]] on [[planets]] with an offset solar arc, you need to include the Horizontal component to the solar angle.

'''What do you need:'''
* [[Kit (Logic I/O)]] x4
* [[Kit (Logic Processor)]]
* [[Kit (Logic Memory)]]
* [[Sensors|Kit (Sensor)]] > [[Sensors#Daylight Sensor|Daylight Sensor]]

Place the [[Daylight Sensor]] facing up, '''with the [[Data Port]] facing north (0 degrees).'''

{| class="wikitable"
|-
! '''Horizontal'''
|-
! '''Chip''' !! '''Chip label''' !! '''IN''' !! '''VAR''' !! '''OUT'''
|-
| [[Logic]] Reader || Horizontal Reader || Daylight Sensor || Horizontal ||
|-
| Batch Writer || Horizontal Writer || Horizontal Reader || Horizontal || [[Solar Panel]]
|-
! '''Vertical'''
|-
! '''Chip''' !! '''Chip label''' !! '''IN''' !! '''VAR''' !! '''OUT'''
|-
| Logic Reader || Vertical Reader || Daylight Sensor || Vertical ||
|-
| Batch Writer || Vertical Writer || Vertical Correction Math || Vertical || Solar Panel
|-
! '''Chip''' !! '''Chip label''' !! '''Value'''
|-
| [[Logic Memory]] || Vertical Correction Memory || 90
|-
! '''Chip''' !! '''Chip label''' !! '''IN 1''' !! '''IN 2''' !! '''OUT'''
|-
| Logic Math || Vertical Correction Math || Vertical Reader || Vertical Correction Memory || Add
|}

[[File:2022-10-02 Two-axis solar tracking.png|Accurate two-axis solar tracking]]

The panels should align themselves to the sun, you make sure to '''put the [[Power]] Port on the panels facing east (east - 90 degrees).''' If you've already built the panels and logic with the Power Port facing west, swapping the direction of the sensor so that its Data Port faces south will allow the setup to work with no additional changes.

== Solar tracking using Integrated Circuits ==
Using [[Integrated_Circuit_(IC10)|Intergrated Logic Chips]] to track the sun will result in a much smaller logic set up, but the implementation might be a bit daunting at first. Conceptually the logic involved is the same.

* The orientation of the Solar Panel and Daylight Senor are the same.
* The Horizontal angle will need to be read from the Daylight Sensor
* The Vertical angle will need to be read for the Daylight Sensor
* The Vertical angle will need to be corrected.
** The following correction must be applied. (Vertical Angel + 90 = Vertical Angle{corrected}
* The Horizontal Angle will need to be sent to the Solar Panel
* The Vertical Angle will need to be sent to the Solar Panel
* Begin the process again

'''What you need:'''
* [[Integrated Circuit (IC10)]]
* [[Kit (IC Housing)]]
* [[Sensors|Kit (Sensor)]] > [[Sensors#Daylight Sensor|Daylight Sensor]]

And if you don't already have one set up:
* [[Kit (Computer)]]
* [[Motherboard (IC Editor)|IC Editor Motherboard]]

Place the '''Daylight Sensor''' facing up, note which direction the Data Port is facing, and which direction the solar panel Power Port is facing. These two directions are needed in the code. The '''Daylight Sensor''' is connected to the '''d0''' screw, that's all you need.

A simple code example can be found here: https://stationeering.com/tools/ic/_2FpmwojGnBq<br>
This code is considered "inefficient" since it's hard-coded to spam all types of [[solar panels]], even if you don't have them.

A better code example can be found here: https://stationeering.com/tools/ic/_2FpoBEcd3QK<br>
It targets the solar-panel types on '''d2''' and (optionally) '''d3''', so it's less spammy. It also has an option for a display ('''Kit ([[Console]])''') on '''d1''' that shows the sum of power output from both types of panels

== duality of orientation ==

Due to the coordinate system used by solar panels, it is actually possible to capture peak sunlight using two different (but related) H,V coordinates.

[[File:stationeers-solar-duality.svg|frameless|panels using different control logic to accomplish the same goal]]

This screenshot shows two sets of solar panels, each with its own daylight sensor. Each sensor is oriented differently to properly match its panel and formulas. The panel on the right uses panel.horizontal = daysensor.horizontal; panel.vertical = 90-daysensor.vertical; while the panel on the left uses panel.horizontal = daysensor.horizontal; panel.vertical = daysensor.vertical + 90. They both achieve the same orientation.

Solar Logic Circuits Guide

2026-03-22T02:48:29Z

Starviking: /* Solar tracking using Integrated Circuits */ Changed description to be more agnostic about the relative value of IC10 vs Logic Chips

[[Category:Tutorials]][[Category:Solar power]]

== Disclaimer ==

Due to the frequency of game updates, all solutions are subject to change and may or may not be functional.

The designs on this page are valid as of v0.2.5906.26015 (2025-09-16)

Guides in this section calls out the [[sensor]] and Solar Panel being placed in a specific orientation, but not all guides use the same orientation. When follow a a guide please be sure to place your sensor and solar panel as described in the guide.

==Types of Tracking==
There are two components to solar tracking, Horizontal position and Vertical position. A solar panel can be positioned using only one of these factors (single axis tracking) or both of these factors (dual axis tracking). Depending on the geometry of sun's sky tack on a particular planet single axis tracking can be very efficient. The solar inclination on The [[Moon]] is 0° so single axis solar tracking can be 100% efficient.

== Geometry Of [[Solar Panel|Solar Panels]] and [[Sensors#Daylight Sensor|Daylight Sensors]] ==

The Horizontal and Vertcal angle measured by the daylight sensor is different from the Solar panels coordinates system. In order to point the solar panel correctly either the angle read from the daylight sensor will need to be recalculated using a Math Unit, or the daylight sensor and solar panel will need to have a different orientation. The Vertical angle measured by the daylight sensor is also different from the Solar panels coordinates system.

If the daylight sensor is positioned horizontally the solar panel's data port should be 90° clockwise from the daylight sensor's Data Port. This will give a Horizontal angles without needing to additional Logic and math. Obtaining a Vertical angle will require additional Logic and Math.

<gallery>
daylight sensor horizontal.png|Geometry of values measured by daylight sensor in horizontal (yaw) mode
daylight sensor vertical.png|Geometry of values measured by daylight sensor in vertical (pitch) mode
solar panel yaw-Horizontal setting.png|Effect of setting horizontal rotation of a solar panel
</gallery>

==Solar tracking using Logic Chips ==

===Two-chip Vertical tracking (Moon only)===
[[File:Vertical Tracking (Moon Only).png|thumb|Two-Chip Vertical tracking usable on the Moon only.]]
Because the sun passes directly East to West with zero solar offset on the moon, it can be tracked using only 2 logic chips.

'''What do you need:'''
* [[Solar_Panel|Solar Panel (Dual)]]
* [[Kit (Logic I/O)]] x2
* [[Sensors|Kit (Sensor)]] > [[Sensors#Daylight Sensor|Daylight Sensor]]
* [[Cables|Cable]]
* [[Power_Controller|Area Power Controller]] X1

Place the Solar panel with the data port facing sunrise. Place the Daylight Sensor vertically on the wall with the data port facing down and the sensor facing sunrise. Build a Logic reader and a Batch Writer from the 2 [[Logic I/O]] Kits. Set the Logic Reader to read the Vertical Angle from the Daylight Sensor. Set the Batch Writer to Read the Reader and output the Vertical Angle to the [[Solar Panel (Dual)]]. Rotate the Solar Panel to 270°. Add an Area [[Power Controller]] to make sure the Logic Chips do not lose power.

==Two-chip Horizontal tracking==
[[File:Horizontal Tracking.png|thumb|Two-Chip Horizontal Tracking, stand alone.]]
With the daylight sensor and solar panel correctly positioned, the solar panel can tack the sun's horizontal track using only 2 chips. On [[Mars]] this can yield approximately 80% efficient solar tracking if the solar panel is manually positioned at 45° vertical. Two-chip Horizontal and two-chip Vertical tracking cannot be combined.

'''What do you need:'''
* [[Solar_Panel|Solar Panel (Dual)]]
* [[Kit (Logic I/O)]] x2
* [[Sensors|Kit (Sensor)]] > [[Sensors#Daylight Sensor|Daylight Sensor]]
* [[Cables|Cable]]
* [[Power_Controller|Area Power Controller]] X1

Place the Solar panel with the data port facing sunrise. Place the Daylight Sensor horizontally with the data port facing North and the sensor facing up. Build a Logic reader and a Batch Writer from the 2 [[Logic I/O]] Kits. Set the Logic reader to read the Horizontal Angle from the Daylight Sensor. Set the Batch Writer to Read the Reader and output the Horizontal Angle to the [[Solar Panel (Dual)]]. Manually lower the Solar Panel to 45°. Add an Area [[Power Controller]] to make sure the Logic Chips do not lose power.

==Four Chip Vertical tracking==
[[File:Vertical Tracking Two Axis.png|thumb|Four-Chip Vertical Tracking, stand alone.]]
Vertical tracking requires two additional chips, a Logic Memory and a Math Unit. There are two different method of obtaining the correct vertical solar angle. Either (90-Solar angle) or (Solar angle+90).

'''What do you need:'''
* [[Solar_Panel|Solar Panel (Dual)]]
* [[Kit (Logic I/O)]] x2
* [[Kit (Logic Processor)]]
* [[Kit (Logic Memory)]]
* [[Sensors|Kit (Sensor)]] > [[Sensors#Daylight Sensor|Daylight Sensor]]
* [[Cables|Cable]]
* [[Power_Controller|Area Power Controller]] X1

Place the Solar panel with the data port facing sunrise. Place the Daylight Sensor horizontally with the data port facing North and the sensor facing up. Build a Logic Reader and a Batch Writer from the 2 [[Logic I/O]] Kits. Build a Math Unit from the [[Logic Processor]] kit and place the Logic Memory. Set the Logic Reader to read the Vertical Angle from the Daylight Sensor. Set the Logic Memory to 90. Set the left input of the Math Unit to read the Logic Memory. Set the right input of the Math Unit to read the Logic Reader. Set the bottom output of the Math Unit to subtract. Set the Batch Writer to read the Math unit and output the Vertical Angle to the [[Solar Panel (Dual)]]. Rotate the Solar Panel to 270°. Add an Area [[Power Controller]] to make sure the Logic Chips do not lose power.

==Combined Solar Tracking==
Two-Chip Horizontal Tracking can be upgraded by combining it with Four-Chip Vertical Tracking. Rather than building both at once it is possible to build the Two-Chip Horizontal Tracking and integrate Four-Chip Vertical Tracking at a later [[time]]. This is convenient for Brutal Starts as it costs fewer resources and takes less time to get a functioning solar power setup.

'''What do you need:'''
* Build the Two-Chip Horizontal Tracking as shown above.
* Build the Four-Chip Vertical Tracking as shown above.
* The daylight sensor and [[Area Power Controller|area power controller]] can be shared between the two setups.

== Six-chip dual-axis tracking ==
To get a "100%" accurate solar [[tracker]] on [[planets]] with an offset solar arc, you need to include the Horizontal component to the solar angle.

'''What do you need:'''
* [[Kit (Logic I/O)]] x4
* [[Kit (Logic Processor)]]
* [[Kit (Logic Memory)]]
* [[Sensors|Kit (Sensor)]] > [[Sensors#Daylight Sensor|Daylight Sensor]]

Place the [[Daylight Sensor]] facing up, '''with the [[Data Port]] facing north (0 degrees).'''

{| class="wikitable"
|-
! '''Horizontal'''
|-
! '''Chip''' !! '''Chip label''' !! '''IN''' !! '''VAR''' !! '''OUT'''
|-
| [[Logic]] Reader || Horizontal Reader || Daylight Sensor || Horizontal ||
|-
| Batch Writer || Horizontal Writer || Horizontal Reader || Horizontal || [[Solar Panel]]
|-
! '''Vertical'''
|-
! '''Chip''' !! '''Chip label''' !! '''IN''' !! '''VAR''' !! '''OUT'''
|-
| Logic Reader || Vertical Reader || Daylight Sensor || Vertical ||
|-
| Batch Writer || Vertical Writer || Vertical Correction Math || Vertical || Solar Panel
|-
! '''Chip''' !! '''Chip label''' !! '''Value'''
|-
| [[Logic Memory]] || Vertical Correction Memory || 90
|-
! '''Chip''' !! '''Chip label''' !! '''IN 1''' !! '''IN 2''' !! '''OUT'''
|-
| Logic Math || Vertical Correction Math || Vertical Reader || Vertical Correction Memory || Add
|}

[[File:2022-10-02 Two-axis solar tracking.png|Accurate two-axis solar tracking]]

The panels should align themselves to the sun, you make sure to '''put the [[Power]] Port on the panels facing east (east - 90 degrees).''' If you've already built the panels and logic with the Power Port facing west, swapping the direction of the sensor so that its Data Port faces south will allow the setup to work with no additional changes.

== Solar tracking using Integrated Circuits ==
Using [[Integrated_Circuit_(IC10)|Intergrated Logic Chips]] to track the sun will result in a much smaller logic set up, but the implementation might be a bit daunting at first.

'''What you need:'''
* [[Integrated Circuit (IC10)]]
* [[Kit (IC Housing)]]
* [[Sensors|Kit (Sensor)]] > [[Sensors#Daylight Sensor|Daylight Sensor]]

And if you don't already have one set up:
* [[Kit (Computer)]]
* [[Motherboard (IC Editor)|IC Editor Motherboard]]

Place the '''Daylight Sensor''' facing up, note which direction the Data Port is facing, and which direction the solar panel Power Port is facing. These two directions are needed in the code. The '''Daylight Sensor''' is connected to the '''d0''' screw, that's all you need.

A simple code example can be found here: https://stationeering.com/tools/ic/_2FpmwojGnBq<br>
This code is considered "inefficient" since it's hard-coded to spam all types of [[solar panels]], even if you don't have them.

A better code example can be found here: https://stationeering.com/tools/ic/_2FpoBEcd3QK<br>
It targets the solar-panel types on '''d2''' and (optionally) '''d3''', so it's less spammy. It also has an option for a display ('''Kit ([[Console]])''') on '''d1''' that shows the sum of power output from both types of panels

== duality of orientation ==

Due to the coordinate system used by solar panels, it is actually possible to capture peak sunlight using two different (but related) H,V coordinates.

[[File:stationeers-solar-duality.svg|frameless|panels using different control logic to accomplish the same goal]]

This screenshot shows two sets of solar panels, each with its own daylight sensor. Each sensor is oriented differently to properly match its panel and formulas. The panel on the right uses panel.horizontal = daysensor.horizontal; panel.vertical = 90-daysensor.vertical; while the panel on the left uses panel.horizontal = daysensor.horizontal; panel.vertical = daysensor.vertical + 90. They both achieve the same orientation.

Solar Logic Circuits Guide

2026-03-22T02:05:56Z

Starviking: /* Combined Solar Tracking */

[[Category:Tutorials]][[Category:Solar power]]

== Disclaimer ==

Due to the frequency of game updates, all solutions are subject to change and may or may not be functional.

The designs on this page are valid as of v0.2.5906.26015 (2025-09-16)

Guides in this section calls out the [[sensor]] and Solar Panel being placed in a specific orientation, but not all guides use the same orientation. When follow a a guide please be sure to place your sensor and solar panel as described in the guide.

==Types of Tracking==
There are two components to solar tracking, Horizontal position and Vertical position. A solar panel can be positioned using only one of these factors (single axis tracking) or both of these factors (dual axis tracking). Depending on the geometry of sun's sky tack on a particular planet single axis tracking can be very efficient. The solar inclination on The [[Moon]] is 0° so single axis solar tracking can be 100% efficient.

== Geometry Of [[Solar Panel|Solar Panels]] and [[Sensors#Daylight Sensor|Daylight Sensors]] ==

The Horizontal and Vertcal angle measured by the daylight sensor is different from the Solar panels coordinates system. In order to point the solar panel correctly either the angle read from the daylight sensor will need to be recalculated using a Math Unit, or the daylight sensor and solar panel will need to have a different orientation. The Vertical angle measured by the daylight sensor is also different from the Solar panels coordinates system.

If the daylight sensor is positioned horizontally the solar panel's data port should be 90° clockwise from the daylight sensor's Data Port. This will give a Horizontal angles without needing to additional Logic and math. Obtaining a Vertical angle will require additional Logic and Math.

<gallery>
daylight sensor horizontal.png|Geometry of values measured by daylight sensor in horizontal (yaw) mode
daylight sensor vertical.png|Geometry of values measured by daylight sensor in vertical (pitch) mode
solar panel yaw-Horizontal setting.png|Effect of setting horizontal rotation of a solar panel
</gallery>

==Solar tracking using Logic Chips ==

===Two-chip Vertical tracking (Moon only)===
[[File:Vertical Tracking (Moon Only).png|thumb|Two-Chip Vertical tracking usable on the Moon only.]]
Because the sun passes directly East to West with zero solar offset on the moon, it can be tracked using only 2 logic chips.

'''What do you need:'''
* [[Solar_Panel|Solar Panel (Dual)]]
* [[Kit (Logic I/O)]] x2
* [[Sensors|Kit (Sensor)]] > [[Sensors#Daylight Sensor|Daylight Sensor]]
* [[Cables|Cable]]
* [[Power_Controller|Area Power Controller]] X1

Place the Solar panel with the data port facing sunrise. Place the Daylight Sensor vertically on the wall with the data port facing down and the sensor facing sunrise. Build a Logic reader and a Batch Writer from the 2 [[Logic I/O]] Kits. Set the Logic Reader to read the Vertical Angle from the Daylight Sensor. Set the Batch Writer to Read the Reader and output the Vertical Angle to the [[Solar Panel (Dual)]]. Rotate the Solar Panel to 270°. Add an Area [[Power Controller]] to make sure the Logic Chips do not lose power.

==Two-chip Horizontal tracking==
[[File:Horizontal Tracking.png|thumb|Two-Chip Horizontal Tracking, stand alone.]]
With the daylight sensor and solar panel correctly positioned, the solar panel can tack the sun's horizontal track using only 2 chips. On [[Mars]] this can yield approximately 80% efficient solar tracking if the solar panel is manually positioned at 45° vertical. Two-chip Horizontal and two-chip Vertical tracking cannot be combined.

'''What do you need:'''
* [[Solar_Panel|Solar Panel (Dual)]]
* [[Kit (Logic I/O)]] x2
* [[Sensors|Kit (Sensor)]] > [[Sensors#Daylight Sensor|Daylight Sensor]]
* [[Cables|Cable]]
* [[Power_Controller|Area Power Controller]] X1

Place the Solar panel with the data port facing sunrise. Place the Daylight Sensor horizontally with the data port facing North and the sensor facing up. Build a Logic reader and a Batch Writer from the 2 [[Logic I/O]] Kits. Set the Logic reader to read the Horizontal Angle from the Daylight Sensor. Set the Batch Writer to Read the Reader and output the Horizontal Angle to the [[Solar Panel (Dual)]]. Manually lower the Solar Panel to 45°. Add an Area [[Power Controller]] to make sure the Logic Chips do not lose power.

==Four Chip Vertical tracking==
[[File:Vertical Tracking Two Axis.png|thumb|Four-Chip Vertical Tracking, stand alone.]]
Vertical tracking requires two additional chips, a Logic Memory and a Math Unit. There are two different method of obtaining the correct vertical solar angle. Either (90-Solar angle) or (Solar angle+90).

'''What do you need:'''
* [[Solar_Panel|Solar Panel (Dual)]]
* [[Kit (Logic I/O)]] x2
* [[Kit (Logic Processor)]]
* [[Kit (Logic Memory)]]
* [[Sensors|Kit (Sensor)]] > [[Sensors#Daylight Sensor|Daylight Sensor]]
* [[Cables|Cable]]
* [[Power_Controller|Area Power Controller]] X1

Place the Solar panel with the data port facing sunrise. Place the Daylight Sensor horizontally with the data port facing North and the sensor facing up. Build a Logic Reader and a Batch Writer from the 2 [[Logic I/O]] Kits. Build a Math Unit from the [[Logic Processor]] kit and place the Logic Memory. Set the Logic Reader to read the Vertical Angle from the Daylight Sensor. Set the Logic Memory to 90. Set the left input of the Math Unit to read the Logic Memory. Set the right input of the Math Unit to read the Logic Reader. Set the bottom output of the Math Unit to subtract. Set the Batch Writer to read the Math unit and output the Vertical Angle to the [[Solar Panel (Dual)]]. Rotate the Solar Panel to 270°. Add an Area [[Power Controller]] to make sure the Logic Chips do not lose power.

==Combined Solar Tracking==
Two-Chip Horizontal Tracking can be upgraded by combining it with Four-Chip Vertical Tracking. Rather than building both at once it is possible to build the Two-Chip Horizontal Tracking and integrate Four-Chip Vertical Tracking at a later [[time]]. This is convenient for Brutal Starts as it costs fewer resources and takes less time to get a functioning solar power setup.

'''What do you need:'''
* Build the Two-Chip Horizontal Tracking as shown above.
* Build the Four-Chip Vertical Tracking as shown above.
* The daylight sensor and [[Area Power Controller|area power controller]] can be shared between the two setups.

== Six-chip dual-axis tracking ==
To get a "100%" accurate solar [[tracker]] on [[planets]] with an offset solar arc, you need to include the Horizontal component to the solar angle.

'''What do you need:'''
* [[Kit (Logic I/O)]] x4
* [[Kit (Logic Processor)]]
* [[Kit (Logic Memory)]]
* [[Sensors|Kit (Sensor)]] > [[Sensors#Daylight Sensor|Daylight Sensor]]

Place the [[Daylight Sensor]] facing up, '''with the [[Data Port]] facing north (0 degrees).'''

{| class="wikitable"
|-
! '''Horizontal'''
|-
! '''Chip''' !! '''Chip label''' !! '''IN''' !! '''VAR''' !! '''OUT'''
|-
| [[Logic]] Reader || Horizontal Reader || Daylight Sensor || Horizontal ||
|-
| Batch Writer || Horizontal Writer || Horizontal Reader || Horizontal || [[Solar Panel]]
|-
! '''Vertical'''
|-
! '''Chip''' !! '''Chip label''' !! '''IN''' !! '''VAR''' !! '''OUT'''
|-
| Logic Reader || Vertical Reader || Daylight Sensor || Vertical ||
|-
| Batch Writer || Vertical Writer || Vertical Correction Math || Vertical || Solar Panel
|-
! '''Chip''' !! '''Chip label''' !! '''Value'''
|-
| [[Logic Memory]] || Vertical Correction Memory || 90
|-
! '''Chip''' !! '''Chip label''' !! '''IN 1''' !! '''IN 2''' !! '''OUT'''
|-
| Logic Math || Vertical Correction Math || Vertical Reader || Vertical Correction Memory || Add
|}

[[File:2022-10-02 Two-axis solar tracking.png|Accurate two-axis solar tracking]]

The panels should align themselves to the sun, you make sure to '''put the [[Power]] Port on the panels facing east (east - 90 degrees).''' If you've already built the panels and logic with the Power Port facing west, swapping the direction of the sensor so that its Data Port faces south will allow the setup to work with no additional changes.

== Solar tracking using Integrated Circuits ==
This is the most powerful way to track the sun, but the implementation might be a bit daunting at first.

'''What you need:'''
* [[Integrated Circuit (IC10)]]
* [[Kit (IC Housing)]]
* [[Sensors|Kit (Sensor)]] > [[Sensors#Daylight Sensor|Daylight Sensor]]

And if you don't already have one set up:
* [[Kit (Computer)]]
* [[Motherboard (IC Editor)|IC Editor Motherboard]]

Place the '''Daylight Sensor''' facing up, note which direction the Data Port is facing, and which direction the solar panel Power Port is facing. These two directions are needed in the code. The '''Daylight Sensor''' is connected to the '''d0''' screw, that's all you need.

A simple code example can be found here: https://stationeering.com/tools/ic/_2FpmwojGnBq<br>
This code is considered "inefficient" since it's hard-coded to spam all types of [[solar panels]], even if you don't have them.

A better code example can be found here: https://stationeering.com/tools/ic/_2FpoBEcd3QK<br>
It targets the solar-panel types on '''d2''' and (optionally) '''d3''', so it's less spammy. It also has an option for a display ('''Kit ([[Console]])''') on '''d1''' that shows the sum of power output from both types of panels

== duality of orientation ==

Due to the coordinate system used by solar panels, it is actually possible to capture peak sunlight using two different (but related) H,V coordinates.

[[File:stationeers-solar-duality.svg|frameless|panels using different control logic to accomplish the same goal]]

This screenshot shows two sets of solar panels, each with its own daylight sensor. Each sensor is oriented differently to properly match its panel and formulas. The panel on the right uses panel.horizontal = daysensor.horizontal; panel.vertical = 90-daysensor.vertical; while the panel on the left uses panel.horizontal = daysensor.horizontal; panel.vertical = daysensor.vertical + 90. They both achieve the same orientation.

Solar Logic Circuits Guide

2026-03-22T02:04:29Z

Starviking: /* Four Chip Vertical tracking */

[[Category:Tutorials]][[Category:Solar power]]

== Disclaimer ==

Due to the frequency of game updates, all solutions are subject to change and may or may not be functional.

The designs on this page are valid as of v0.2.5906.26015 (2025-09-16)

Guides in this section calls out the [[sensor]] and Solar Panel being placed in a specific orientation, but not all guides use the same orientation. When follow a a guide please be sure to place your sensor and solar panel as described in the guide.

==Types of Tracking==
There are two components to solar tracking, Horizontal position and Vertical position. A solar panel can be positioned using only one of these factors (single axis tracking) or both of these factors (dual axis tracking). Depending on the geometry of sun's sky tack on a particular planet single axis tracking can be very efficient. The solar inclination on The [[Moon]] is 0° so single axis solar tracking can be 100% efficient.

== Geometry Of [[Solar Panel|Solar Panels]] and [[Sensors#Daylight Sensor|Daylight Sensors]] ==

The Horizontal and Vertcal angle measured by the daylight sensor is different from the Solar panels coordinates system. In order to point the solar panel correctly either the angle read from the daylight sensor will need to be recalculated using a Math Unit, or the daylight sensor and solar panel will need to have a different orientation. The Vertical angle measured by the daylight sensor is also different from the Solar panels coordinates system.

If the daylight sensor is positioned horizontally the solar panel's data port should be 90° clockwise from the daylight sensor's Data Port. This will give a Horizontal angles without needing to additional Logic and math. Obtaining a Vertical angle will require additional Logic and Math.

<gallery>
daylight sensor horizontal.png|Geometry of values measured by daylight sensor in horizontal (yaw) mode
daylight sensor vertical.png|Geometry of values measured by daylight sensor in vertical (pitch) mode
solar panel yaw-Horizontal setting.png|Effect of setting horizontal rotation of a solar panel
</gallery>

==Solar tracking using Logic Chips ==

===Two-chip Vertical tracking (Moon only)===
[[File:Vertical Tracking (Moon Only).png|thumb|Two-Chip Vertical tracking usable on the Moon only.]]
Because the sun passes directly East to West with zero solar offset on the moon, it can be tracked using only 2 logic chips.

'''What do you need:'''
* [[Solar_Panel|Solar Panel (Dual)]]
* [[Kit (Logic I/O)]] x2
* [[Sensors|Kit (Sensor)]] > [[Sensors#Daylight Sensor|Daylight Sensor]]
* [[Cables|Cable]]
* [[Power_Controller|Area Power Controller]] X1

Place the Solar panel with the data port facing sunrise. Place the Daylight Sensor vertically on the wall with the data port facing down and the sensor facing sunrise. Build a Logic reader and a Batch Writer from the 2 [[Logic I/O]] Kits. Set the Logic Reader to read the Vertical Angle from the Daylight Sensor. Set the Batch Writer to Read the Reader and output the Vertical Angle to the [[Solar Panel (Dual)]]. Rotate the Solar Panel to 270°. Add an Area [[Power Controller]] to make sure the Logic Chips do not lose power.

==Two-chip Horizontal tracking==
[[File:Horizontal Tracking.png|thumb|Two-Chip Horizontal Tracking, stand alone.]]
With the daylight sensor and solar panel correctly positioned, the solar panel can tack the sun's horizontal track using only 2 chips. On [[Mars]] this can yield approximately 80% efficient solar tracking if the solar panel is manually positioned at 45° vertical. Two-chip Horizontal and two-chip Vertical tracking cannot be combined.

'''What do you need:'''
* [[Solar_Panel|Solar Panel (Dual)]]
* [[Kit (Logic I/O)]] x2
* [[Sensors|Kit (Sensor)]] > [[Sensors#Daylight Sensor|Daylight Sensor]]
* [[Cables|Cable]]
* [[Power_Controller|Area Power Controller]] X1

Place the Solar panel with the data port facing sunrise. Place the Daylight Sensor horizontally with the data port facing North and the sensor facing up. Build a Logic reader and a Batch Writer from the 2 [[Logic I/O]] Kits. Set the Logic reader to read the Horizontal Angle from the Daylight Sensor. Set the Batch Writer to Read the Reader and output the Horizontal Angle to the [[Solar Panel (Dual)]]. Manually lower the Solar Panel to 45°. Add an Area [[Power Controller]] to make sure the Logic Chips do not lose power.

==Four Chip Vertical tracking==
[[File:Vertical Tracking Two Axis.png|thumb|Four-Chip Vertical Tracking, stand alone.]]
Vertical tracking requires two additional chips, a Logic Memory and a Math Unit. There are two different method of obtaining the correct vertical solar angle. Either (90-Solar angle) or (Solar angle+90).

'''What do you need:'''
* [[Solar_Panel|Solar Panel (Dual)]]
* [[Kit (Logic I/O)]] x2
* [[Kit (Logic Processor)]]
* [[Kit (Logic Memory)]]
* [[Sensors|Kit (Sensor)]] > [[Sensors#Daylight Sensor|Daylight Sensor]]
* [[Cables|Cable]]
* [[Power_Controller|Area Power Controller]] X1

Place the Solar panel with the data port facing sunrise. Place the Daylight Sensor horizontally with the data port facing North and the sensor facing up. Build a Logic Reader and a Batch Writer from the 2 [[Logic I/O]] Kits. Build a Math Unit from the [[Logic Processor]] kit and place the Logic Memory. Set the Logic Reader to read the Vertical Angle from the Daylight Sensor. Set the Logic Memory to 90. Set the left input of the Math Unit to read the Logic Memory. Set the right input of the Math Unit to read the Logic Reader. Set the bottom output of the Math Unit to subtract. Set the Batch Writer to read the Math unit and output the Vertical Angle to the [[Solar Panel (Dual)]]. Rotate the Solar Panel to 270°. Add an Area [[Power Controller]] to make sure the Logic Chips do not lose power.

==Combined Solar Tracking==
Two-Chip Horizontal Tracking can be upgraded by combining it with Four-Chip Vertical Tracking. Rather than building both at once it is possible to build the Two-Chip Horizontal Tracking and integrate Four-Chip Vertical Tracking at a later [[time]]. This is convenient for Brutal Starts as it costs fewer resources and takes less time to get a functioning solar power setup.

'''What do you need:'''
* Build the Two-Chip Horizontal Tracking as shown above.
* Build the Four-Chip Vertical Tracking as shown above.
* The daylight sensor and [[Area Power Controller|area power controller]] can be shared between the two setups.

=== Six-chip dual-axis tracking ===
To get a "100%" accurate solar [[tracker]] on [[planets]] with an offset solar arc, you need to include the Horizontal component to the solar angle.

'''What do you need:'''
* [[Kit (Logic I/O)]] x4
* [[Kit (Logic Processor)]]
* [[Kit (Logic Memory)]]
* [[Sensors|Kit (Sensor)]] > [[Sensors#Daylight Sensor|Daylight Sensor]]

Place the [[Daylight Sensor]] facing up, '''with the [[Data Port]] facing north (0 degrees).'''

{| class="wikitable"
|-
! '''Horizontal'''
|-
! '''Chip''' !! '''Chip label''' !! '''IN''' !! '''VAR''' !! '''OUT'''
|-
| [[Logic]] Reader || Horizontal Reader || Daylight Sensor || Horizontal ||
|-
| Batch Writer || Horizontal Writer || Horizontal Reader || Horizontal || [[Solar Panel]]
|-
! '''Vertical'''
|-
! '''Chip''' !! '''Chip label''' !! '''IN''' !! '''VAR''' !! '''OUT'''
|-
| Logic Reader || Vertical Reader || Daylight Sensor || Vertical ||
|-
| Batch Writer || Vertical Writer || Vertical Correction Math || Vertical || Solar Panel
|-
! '''Chip''' !! '''Chip label''' !! '''Value'''
|-
| [[Logic Memory]] || Vertical Correction Memory || 90
|-
! '''Chip''' !! '''Chip label''' !! '''IN 1''' !! '''IN 2''' !! '''OUT'''
|-
| Logic Math || Vertical Correction Math || Vertical Reader || Vertical Correction Memory || Add
|}

[[File:2022-10-02 Two-axis solar tracking.png|Accurate two-axis solar tracking]]

The panels should align themselves to the sun, you make sure to '''put the [[Power]] Port on the panels facing east (east - 90 degrees).''' If you've already built the panels and logic with the Power Port facing west, swapping the direction of the sensor so that its Data Port faces south will allow the setup to work with no additional changes.

== Solar tracking using Integrated Circuits ==
This is the most powerful way to track the sun, but the implementation might be a bit daunting at first.

'''What you need:'''
* [[Integrated Circuit (IC10)]]
* [[Kit (IC Housing)]]
* [[Sensors|Kit (Sensor)]] > [[Sensors#Daylight Sensor|Daylight Sensor]]

And if you don't already have one set up:
* [[Kit (Computer)]]
* [[Motherboard (IC Editor)|IC Editor Motherboard]]

Place the '''Daylight Sensor''' facing up, note which direction the Data Port is facing, and which direction the solar panel Power Port is facing. These two directions are needed in the code. The '''Daylight Sensor''' is connected to the '''d0''' screw, that's all you need.

A simple code example can be found here: https://stationeering.com/tools/ic/_2FpmwojGnBq<br>
This code is considered "inefficient" since it's hard-coded to spam all types of [[solar panels]], even if you don't have them.

A better code example can be found here: https://stationeering.com/tools/ic/_2FpoBEcd3QK<br>
It targets the solar-panel types on '''d2''' and (optionally) '''d3''', so it's less spammy. It also has an option for a display ('''Kit ([[Console]])''') on '''d1''' that shows the sum of power output from both types of panels

== duality of orientation ==

Due to the coordinate system used by solar panels, it is actually possible to capture peak sunlight using two different (but related) H,V coordinates.

[[File:stationeers-solar-duality.svg|frameless|panels using different control logic to accomplish the same goal]]

This screenshot shows two sets of solar panels, each with its own daylight sensor. Each sensor is oriented differently to properly match its panel and formulas. The panel on the right uses panel.horizontal = daysensor.horizontal; panel.vertical = 90-daysensor.vertical; while the panel on the left uses panel.horizontal = daysensor.horizontal; panel.vertical = daysensor.vertical + 90. They both achieve the same orientation.

Solar Logic Circuits Guide

2026-03-22T02:02:50Z

Starviking: /* Two-chip Horizontal tracking */

[[Category:Tutorials]][[Category:Solar power]]

== Disclaimer ==

Due to the frequency of game updates, all solutions are subject to change and may or may not be functional.

The designs on this page are valid as of v0.2.5906.26015 (2025-09-16)

Guides in this section calls out the [[sensor]] and Solar Panel being placed in a specific orientation, but not all guides use the same orientation. When follow a a guide please be sure to place your sensor and solar panel as described in the guide.

==Types of Tracking==
There are two components to solar tracking, Horizontal position and Vertical position. A solar panel can be positioned using only one of these factors (single axis tracking) or both of these factors (dual axis tracking). Depending on the geometry of sun's sky tack on a particular planet single axis tracking can be very efficient. The solar inclination on The [[Moon]] is 0° so single axis solar tracking can be 100% efficient.

== Geometry Of [[Solar Panel|Solar Panels]] and [[Sensors#Daylight Sensor|Daylight Sensors]] ==

The Horizontal and Vertcal angle measured by the daylight sensor is different from the Solar panels coordinates system. In order to point the solar panel correctly either the angle read from the daylight sensor will need to be recalculated using a Math Unit, or the daylight sensor and solar panel will need to have a different orientation. The Vertical angle measured by the daylight sensor is also different from the Solar panels coordinates system.

If the daylight sensor is positioned horizontally the solar panel's data port should be 90° clockwise from the daylight sensor's Data Port. This will give a Horizontal angles without needing to additional Logic and math. Obtaining a Vertical angle will require additional Logic and Math.

<gallery>
daylight sensor horizontal.png|Geometry of values measured by daylight sensor in horizontal (yaw) mode
daylight sensor vertical.png|Geometry of values measured by daylight sensor in vertical (pitch) mode
solar panel yaw-Horizontal setting.png|Effect of setting horizontal rotation of a solar panel
</gallery>

==Solar tracking using Logic Chips ==

===Two-chip Vertical tracking (Moon only)===
[[File:Vertical Tracking (Moon Only).png|thumb|Two-Chip Vertical tracking usable on the Moon only.]]
Because the sun passes directly East to West with zero solar offset on the moon, it can be tracked using only 2 logic chips.

'''What do you need:'''
* [[Solar_Panel|Solar Panel (Dual)]]
* [[Kit (Logic I/O)]] x2
* [[Sensors|Kit (Sensor)]] > [[Sensors#Daylight Sensor|Daylight Sensor]]
* [[Cables|Cable]]
* [[Power_Controller|Area Power Controller]] X1

Place the Solar panel with the data port facing sunrise. Place the Daylight Sensor vertically on the wall with the data port facing down and the sensor facing sunrise. Build a Logic reader and a Batch Writer from the 2 [[Logic I/O]] Kits. Set the Logic Reader to read the Vertical Angle from the Daylight Sensor. Set the Batch Writer to Read the Reader and output the Vertical Angle to the [[Solar Panel (Dual)]]. Rotate the Solar Panel to 270°. Add an Area [[Power Controller]] to make sure the Logic Chips do not lose power.

==Two-chip Horizontal tracking==
[[File:Horizontal Tracking.png|thumb|Two-Chip Horizontal Tracking, stand alone.]]
With the daylight sensor and solar panel correctly positioned, the solar panel can tack the sun's horizontal track using only 2 chips. On [[Mars]] this can yield approximately 80% efficient solar tracking if the solar panel is manually positioned at 45° vertical. Two-chip Horizontal and two-chip Vertical tracking cannot be combined.

'''What do you need:'''
* [[Solar_Panel|Solar Panel (Dual)]]
* [[Kit (Logic I/O)]] x2
* [[Sensors|Kit (Sensor)]] > [[Sensors#Daylight Sensor|Daylight Sensor]]
* [[Cables|Cable]]
* [[Power_Controller|Area Power Controller]] X1

Place the Solar panel with the data port facing sunrise. Place the Daylight Sensor horizontally with the data port facing North and the sensor facing up. Build a Logic reader and a Batch Writer from the 2 [[Logic I/O]] Kits. Set the Logic reader to read the Horizontal Angle from the Daylight Sensor. Set the Batch Writer to Read the Reader and output the Horizontal Angle to the [[Solar Panel (Dual)]]. Manually lower the Solar Panel to 45°. Add an Area [[Power Controller]] to make sure the Logic Chips do not lose power.

==Four Chip Vertical tracking==
[[File:Vertical Tracking Two Axis.png|thumb|Four-Chip Vertical Tracking, stand alone.]]
Vertical tracking required two additional chips, a Logic Memory and a Math Unit. There are two different method of obtaining the correct vertical solar angle. Either (90-Solar angle) or (Solar angle+90).

'''What do you need:'''
* [[Solar_Panel|Solar Panel (Dual)]]
* [[Kit (Logic I/O)]] x2
* [[Kit (Logic Processor)]]
* [[Kit (Logic Memory)]]
* [[Sensors|Kit (Sensor)]] > [[Sensors#Daylight Sensor|Daylight Sensor]]
* [[Cables|Cable]]
* [[Power_Controller|Area Power Controller]] X1

Place the Solar panel with the data port facing sunrise. Place the Daylight Sensor horizontally with the data port facing North and the sensor facing up. Build a Logic Reader and a Batch Writer from the 2 [[Logic I/O]] Kits. Build a Math Unit from the [[Logic Processor]] kit and place the Logic Memory. Set the Logic Reader to read the Vertical Angle from the Daylight Sensor. Set the Logic Memory to 90. Set the left input of the Math Unit to read the Logic Memory. Set the right input of the Math Unit to read the Logic Reader. Set the bottom output of the Math Unit to subtract. Set the Batch Writer to read the Math unit and output the Vertical Angle to the [[Solar Panel (Dual)]]. Rotate the Solar Panel to 270°. Add an Area [[Power Controller]] to make sure the Logic Chips do not lose power.

==Combined Solar Tracking==
Two-Chip Horizontal Tracking can be upgraded by combining it with Four-Chip Vertical Tracking. Rather than building both at once it is possible to build the Two-Chip Horizontal Tracking and integrate Four-Chip Vertical Tracking at a later [[time]]. This is convenient for Brutal Starts as it costs fewer resources and takes less time to get a functioning solar power setup.

'''What do you need:'''
* Build the Two-Chip Horizontal Tracking as shown above.
* Build the Four-Chip Vertical Tracking as shown above.
* The daylight sensor and [[Area Power Controller|area power controller]] can be shared between the two setups.

=== Six-chip dual-axis tracking ===
To get a "100%" accurate solar [[tracker]] on [[planets]] with an offset solar arc, you need to include the Horizontal component to the solar angle.

'''What do you need:'''
* [[Kit (Logic I/O)]] x4
* [[Kit (Logic Processor)]]
* [[Kit (Logic Memory)]]
* [[Sensors|Kit (Sensor)]] > [[Sensors#Daylight Sensor|Daylight Sensor]]

Place the [[Daylight Sensor]] facing up, '''with the [[Data Port]] facing north (0 degrees).'''

{| class="wikitable"
|-
! '''Horizontal'''
|-
! '''Chip''' !! '''Chip label''' !! '''IN''' !! '''VAR''' !! '''OUT'''
|-
| [[Logic]] Reader || Horizontal Reader || Daylight Sensor || Horizontal ||
|-
| Batch Writer || Horizontal Writer || Horizontal Reader || Horizontal || [[Solar Panel]]
|-
! '''Vertical'''
|-
! '''Chip''' !! '''Chip label''' !! '''IN''' !! '''VAR''' !! '''OUT'''
|-
| Logic Reader || Vertical Reader || Daylight Sensor || Vertical ||
|-
| Batch Writer || Vertical Writer || Vertical Correction Math || Vertical || Solar Panel
|-
! '''Chip''' !! '''Chip label''' !! '''Value'''
|-
| [[Logic Memory]] || Vertical Correction Memory || 90
|-
! '''Chip''' !! '''Chip label''' !! '''IN 1''' !! '''IN 2''' !! '''OUT'''
|-
| Logic Math || Vertical Correction Math || Vertical Reader || Vertical Correction Memory || Add
|}

[[File:2022-10-02 Two-axis solar tracking.png|Accurate two-axis solar tracking]]

The panels should align themselves to the sun, you make sure to '''put the [[Power]] Port on the panels facing east (east - 90 degrees).''' If you've already built the panels and logic with the Power Port facing west, swapping the direction of the sensor so that its Data Port faces south will allow the setup to work with no additional changes.

== Solar tracking using Integrated Circuits ==
This is the most powerful way to track the sun, but the implementation might be a bit daunting at first.

'''What you need:'''
* [[Integrated Circuit (IC10)]]
* [[Kit (IC Housing)]]
* [[Sensors|Kit (Sensor)]] > [[Sensors#Daylight Sensor|Daylight Sensor]]

And if you don't already have one set up:
* [[Kit (Computer)]]
* [[Motherboard (IC Editor)|IC Editor Motherboard]]

Place the '''Daylight Sensor''' facing up, note which direction the Data Port is facing, and which direction the solar panel Power Port is facing. These two directions are needed in the code. The '''Daylight Sensor''' is connected to the '''d0''' screw, that's all you need.

A simple code example can be found here: https://stationeering.com/tools/ic/_2FpmwojGnBq<br>
This code is considered "inefficient" since it's hard-coded to spam all types of [[solar panels]], even if you don't have them.

A better code example can be found here: https://stationeering.com/tools/ic/_2FpoBEcd3QK<br>
It targets the solar-panel types on '''d2''' and (optionally) '''d3''', so it's less spammy. It also has an option for a display ('''Kit ([[Console]])''') on '''d1''' that shows the sum of power output from both types of panels

== duality of orientation ==

Due to the coordinate system used by solar panels, it is actually possible to capture peak sunlight using two different (but related) H,V coordinates.

[[File:stationeers-solar-duality.svg|frameless|panels using different control logic to accomplish the same goal]]

This screenshot shows two sets of solar panels, each with its own daylight sensor. Each sensor is oriented differently to properly match its panel and formulas. The panel on the right uses panel.horizontal = daysensor.horizontal; panel.vertical = 90-daysensor.vertical; while the panel on the left uses panel.horizontal = daysensor.horizontal; panel.vertical = daysensor.vertical + 90. They both achieve the same orientation.

Solar Logic Circuits Guide

2026-03-22T01:58:03Z

Starviking: /* Two-chip Vertical tracking (Moon only) */

[[Category:Tutorials]][[Category:Solar power]]

== Disclaimer ==

Due to the frequency of game updates, all solutions are subject to change and may or may not be functional.

The designs on this page are valid as of v0.2.5906.26015 (2025-09-16)

Guides in this section calls out the [[sensor]] and Solar Panel being placed in a specific orientation, but not all guides use the same orientation. When follow a a guide please be sure to place your sensor and solar panel as described in the guide.

==Types of Tracking==
There are two components to solar tracking, Horizontal position and Vertical position. A solar panel can be positioned using only one of these factors (single axis tracking) or both of these factors (dual axis tracking). Depending on the geometry of sun's sky tack on a particular planet single axis tracking can be very efficient. The solar inclination on The [[Moon]] is 0° so single axis solar tracking can be 100% efficient.

== Geometry Of [[Solar Panel|Solar Panels]] and [[Sensors#Daylight Sensor|Daylight Sensors]] ==

The Horizontal and Vertcal angle measured by the daylight sensor is different from the Solar panels coordinates system. In order to point the solar panel correctly either the angle read from the daylight sensor will need to be recalculated using a Math Unit, or the daylight sensor and solar panel will need to have a different orientation. The Vertical angle measured by the daylight sensor is also different from the Solar panels coordinates system.

If the daylight sensor is positioned horizontally the solar panel's data port should be 90° clockwise from the daylight sensor's Data Port. This will give a Horizontal angles without needing to additional Logic and math. Obtaining a Vertical angle will require additional Logic and Math.

<gallery>
daylight sensor horizontal.png|Geometry of values measured by daylight sensor in horizontal (yaw) mode
daylight sensor vertical.png|Geometry of values measured by daylight sensor in vertical (pitch) mode
solar panel yaw-Horizontal setting.png|Effect of setting horizontal rotation of a solar panel
</gallery>

==Solar tracking using Logic Chips ==

===Two-chip Vertical tracking (Moon only)===
[[File:Vertical Tracking (Moon Only).png|thumb|Two-Chip Vertical tracking usable on the Moon only.]]
Because the sun passes directly East to West with zero solar offset on the moon, it can be tracked using only 2 logic chips.

'''What do you need:'''
* [[Solar_Panel|Solar Panel (Dual)]]
* [[Kit (Logic I/O)]] x2
* [[Sensors|Kit (Sensor)]] > [[Sensors#Daylight Sensor|Daylight Sensor]]
* [[Cables|Cable]]
* [[Power_Controller|Area Power Controller]] X1

Place the Solar panel with the data port facing sunrise. Place the Daylight Sensor vertically on the wall with the data port facing down and the sensor facing sunrise. Build a Logic reader and a Batch Writer from the 2 [[Logic I/O]] Kits. Set the Logic Reader to read the Vertical Angle from the Daylight Sensor. Set the Batch Writer to Read the Reader and output the Vertical Angle to the [[Solar Panel (Dual)]]. Rotate the Solar Panel to 270°. Add an Area [[Power Controller]] to make sure the Logic Chips do not lose power.

==Two-chip Horizontal tracking==
[[File:Horizontal Tracking.png|thumb|Two-Chip Horizontal Tracking, stand alone.]]
With the daylight sensor and solar panel correctly positioned, the solar panel can tack the sun's horizontal track using only 2 chips. On [[Mars]] this can yield approximately 80% efficient solar tracking if the solar panel is manually positioned at 45° vertical. Two-chip Horizontal and two-chip Vertical tracking cannot be combined.

'''What do you need:'''
* [[Solar_Panel|Solar Panel (Dual)]]
* [[Kit (Logic I/O)]] x2
* [[Sensors|Kit (Sensor)]] > [[Sensors#Daylight Sensor|Daylight Sensor]]
* [[Cables|Cable]]
* [[Power_Controller|Area Power Controller]] X1

Place the Solar panel with the data port facing sunrise. Place the Daylight Sensor horizontally with the data port facing North and the sensor facing up. Build a Logic reader and a Batch Writer from the 2 [[Logic I/O]] Kits. Set the Logic reader to read the Horizontal Angle from the Daylight Sensor. Set the Batch Writer to Read the Reader and output the Horizontal Angle to the [[Solar Panel (Dual)]]. Rotate the Solar Panel to 270°. Add an Area [[Power Controller]] to make sure the Logic Chips do not lose power.

==Four Chip Vertical tracking==
[[File:Vertical Tracking Two Axis.png|thumb|Four-Chip Vertical Tracking, stand alone.]]
Vertical tracking required two additional chips, a Logic Memory and a Math Unit. There are two different method of obtaining the correct vertical solar angle. Either (90-Solar angle) or (Solar angle+90).

'''What do you need:'''
* [[Solar_Panel|Solar Panel (Dual)]]
* [[Kit (Logic I/O)]] x2
* [[Kit (Logic Processor)]]
* [[Kit (Logic Memory)]]
* [[Sensors|Kit (Sensor)]] > [[Sensors#Daylight Sensor|Daylight Sensor]]
* [[Cables|Cable]]
* [[Power_Controller|Area Power Controller]] X1

Place the Solar panel with the data port facing sunrise. Place the Daylight Sensor horizontally with the data port facing North and the sensor facing up. Build a Logic Reader and a Batch Writer from the 2 [[Logic I/O]] Kits. Build a Math Unit from the [[Logic Processor]] kit and place the Logic Memory. Set the Logic Reader to read the Vertical Angle from the Daylight Sensor. Set the Logic Memory to 90. Set the left input of the Math Unit to read the Logic Memory. Set the right input of the Math Unit to read the Logic Reader. Set the bottom output of the Math Unit to subtract. Set the Batch Writer to read the Math unit and output the Vertical Angle to the [[Solar Panel (Dual)]]. Rotate the Solar Panel to 270°. Add an Area [[Power Controller]] to make sure the Logic Chips do not lose power.

==Combined Solar Tracking==
Two-Chip Horizontal Tracking can be upgraded by combining it with Four-Chip Vertical Tracking. Rather than building both at once it is possible to build the Two-Chip Horizontal Tracking and integrate Four-Chip Vertical Tracking at a later [[time]]. This is convenient for Brutal Starts as it costs fewer resources and takes less time to get a functioning solar power setup.

'''What do you need:'''
* Build the Two-Chip Horizontal Tracking as shown above.
* Build the Four-Chip Vertical Tracking as shown above.
* The daylight sensor and [[Area Power Controller|area power controller]] can be shared between the two setups.

=== Six-chip dual-axis tracking ===
To get a "100%" accurate solar [[tracker]] on [[planets]] with an offset solar arc, you need to include the Horizontal component to the solar angle.

'''What do you need:'''
* [[Kit (Logic I/O)]] x4
* [[Kit (Logic Processor)]]
* [[Kit (Logic Memory)]]
* [[Sensors|Kit (Sensor)]] > [[Sensors#Daylight Sensor|Daylight Sensor]]

Place the [[Daylight Sensor]] facing up, '''with the [[Data Port]] facing north (0 degrees).'''

{| class="wikitable"
|-
! '''Horizontal'''
|-
! '''Chip''' !! '''Chip label''' !! '''IN''' !! '''VAR''' !! '''OUT'''
|-
| [[Logic]] Reader || Horizontal Reader || Daylight Sensor || Horizontal ||
|-
| Batch Writer || Horizontal Writer || Horizontal Reader || Horizontal || [[Solar Panel]]
|-
! '''Vertical'''
|-
! '''Chip''' !! '''Chip label''' !! '''IN''' !! '''VAR''' !! '''OUT'''
|-
| Logic Reader || Vertical Reader || Daylight Sensor || Vertical ||
|-
| Batch Writer || Vertical Writer || Vertical Correction Math || Vertical || Solar Panel
|-
! '''Chip''' !! '''Chip label''' !! '''Value'''
|-
| [[Logic Memory]] || Vertical Correction Memory || 90
|-
! '''Chip''' !! '''Chip label''' !! '''IN 1''' !! '''IN 2''' !! '''OUT'''
|-
| Logic Math || Vertical Correction Math || Vertical Reader || Vertical Correction Memory || Add
|}

[[File:2022-10-02 Two-axis solar tracking.png|Accurate two-axis solar tracking]]

The panels should align themselves to the sun, you make sure to '''put the [[Power]] Port on the panels facing east (east - 90 degrees).''' If you've already built the panels and logic with the Power Port facing west, swapping the direction of the sensor so that its Data Port faces south will allow the setup to work with no additional changes.

== Solar tracking using Integrated Circuits ==
This is the most powerful way to track the sun, but the implementation might be a bit daunting at first.

'''What you need:'''
* [[Integrated Circuit (IC10)]]
* [[Kit (IC Housing)]]
* [[Sensors|Kit (Sensor)]] > [[Sensors#Daylight Sensor|Daylight Sensor]]

And if you don't already have one set up:
* [[Kit (Computer)]]
* [[Motherboard (IC Editor)|IC Editor Motherboard]]

Place the '''Daylight Sensor''' facing up, note which direction the Data Port is facing, and which direction the solar panel Power Port is facing. These two directions are needed in the code. The '''Daylight Sensor''' is connected to the '''d0''' screw, that's all you need.

A simple code example can be found here: https://stationeering.com/tools/ic/_2FpmwojGnBq<br>
This code is considered "inefficient" since it's hard-coded to spam all types of [[solar panels]], even if you don't have them.

A better code example can be found here: https://stationeering.com/tools/ic/_2FpoBEcd3QK<br>
It targets the solar-panel types on '''d2''' and (optionally) '''d3''', so it's less spammy. It also has an option for a display ('''Kit ([[Console]])''') on '''d1''' that shows the sum of power output from both types of panels

== duality of orientation ==

Due to the coordinate system used by solar panels, it is actually possible to capture peak sunlight using two different (but related) H,V coordinates.

[[File:stationeers-solar-duality.svg|frameless|panels using different control logic to accomplish the same goal]]

This screenshot shows two sets of solar panels, each with its own daylight sensor. Each sensor is oriented differently to properly match its panel and formulas. The panel on the right uses panel.horizontal = daysensor.horizontal; panel.vertical = 90-daysensor.vertical; while the panel on the left uses panel.horizontal = daysensor.horizontal; panel.vertical = daysensor.vertical + 90. They both achieve the same orientation.

Solar Logic Circuits Guide

2026-03-22T01:56:50Z

Starviking: /* Combined Solar Tracking */

[[Category:Tutorials]][[Category:Solar power]]

== Disclaimer ==

Due to the frequency of game updates, all solutions are subject to change and may or may not be functional.

The designs on this page are valid as of v0.2.5906.26015 (2025-09-16)

Guides in this section calls out the [[sensor]] and Solar Panel being placed in a specific orientation, but not all guides use the same orientation. When follow a a guide please be sure to place your sensor and solar panel as described in the guide.

==Types of Tracking==
There are two components to solar tracking, Horizontal position and Vertical position. A solar panel can be positioned using only one of these factors (single axis tracking) or both of these factors (dual axis tracking). Depending on the geometry of sun's sky tack on a particular planet single axis tracking can be very efficient. The solar inclination on The [[Moon]] is 0° so single axis solar tracking can be 100% efficient.

== Geometry Of [[Solar Panel|Solar Panels]] and [[Sensors#Daylight Sensor|Daylight Sensors]] ==

The Horizontal and Vertcal angle measured by the daylight sensor is different from the Solar panels coordinates system. In order to point the solar panel correctly either the angle read from the daylight sensor will need to be recalculated using a Math Unit, or the daylight sensor and solar panel will need to have a different orientation. The Vertical angle measured by the daylight sensor is also different from the Solar panels coordinates system.

If the daylight sensor is positioned horizontally the solar panel's data port should be 90° clockwise from the daylight sensor's Data Port. This will give a Horizontal angles without needing to additional Logic and math. Obtaining a Vertical angle will require additional Logic and Math.

<gallery>
daylight sensor horizontal.png|Geometry of values measured by daylight sensor in horizontal (yaw) mode
daylight sensor vertical.png|Geometry of values measured by daylight sensor in vertical (pitch) mode
solar panel yaw-Horizontal setting.png|Effect of setting horizontal rotation of a solar panel
</gallery>

==Solar tracking using Logic Chips ==

===Two-chip Vertical tracking (Moon only)===
[[File:Vertical Tracking (Moon Only).png|thumb|Two-Chip Vertical tracking usable on the Moon only.]]
Because the sun passes directly East to West with zero solar offset on the moon, it can be tracked using only 2 logic chips.

'''What do you need:'''
* [[Solar_Panel|Solar Panel (Dual)]]
* [[Kit (Logic I/O)]] x2
* [[Sensors|Kit (Sensor)]] > [[Sensors#Daylight Sensor|Daylight Sensor]]
* [[Cables|Cable]]
* [[Power_Controller|Area Power Controller]] X1

Place the Solar panel with the data port facing sunrise. Place the Daylight Sensor vertically on the wall with the data port facing down and the sensor facing sunrise. Build a Logic reader and a Batch Writer from the 2 [[Logic I/O]] Kits. Set the Logic reader to read the Vertical Angle from the Daylight Sensor. Set the Batch Writer to Read the Reader and output the Vertical Angle to the [[Solar Panel (Dual)]]. Rotate the Solar Panel to 270°. Add an Area [[Power Controller]] to make sure the Logic Chips do not lose power.

==Two-chip Horizontal tracking==
[[File:Horizontal Tracking.png|thumb|Two-Chip Horizontal Tracking, stand alone.]]
With the daylight sensor and solar panel correctly positioned, the solar panel can tack the sun's horizontal track using only 2 chips. On [[Mars]] this can yield approximately 80% efficient solar tracking if the solar panel is manually positioned at 45° vertical. Two-chip Horizontal and two-chip Vertical tracking cannot be combined.

'''What do you need:'''
* [[Solar_Panel|Solar Panel (Dual)]]
* [[Kit (Logic I/O)]] x2
* [[Sensors|Kit (Sensor)]] > [[Sensors#Daylight Sensor|Daylight Sensor]]
* [[Cables|Cable]]
* [[Power_Controller|Area Power Controller]] X1

Place the Solar panel with the data port facing sunrise. Place the Daylight Sensor horizontally with the data port facing North and the sensor facing up. Build a Logic reader and a Batch Writer from the 2 [[Logic I/O]] Kits. Set the Logic reader to read the Horizontal Angle from the Daylight Sensor. Set the Batch Writer to Read the Reader and output the Horizontal Angle to the [[Solar Panel (Dual)]]. Rotate the Solar Panel to 270°. Add an Area [[Power Controller]] to make sure the Logic Chips do not lose power.

==Four Chip Vertical tracking==
[[File:Vertical Tracking Two Axis.png|thumb|Four-Chip Vertical Tracking, stand alone.]]
Vertical tracking required two additional chips, a Logic Memory and a Math Unit. There are two different method of obtaining the correct vertical solar angle. Either (90-Solar angle) or (Solar angle+90).

'''What do you need:'''
* [[Solar_Panel|Solar Panel (Dual)]]
* [[Kit (Logic I/O)]] x2
* [[Kit (Logic Processor)]]
* [[Kit (Logic Memory)]]
* [[Sensors|Kit (Sensor)]] > [[Sensors#Daylight Sensor|Daylight Sensor]]
* [[Cables|Cable]]
* [[Power_Controller|Area Power Controller]] X1

Place the Solar panel with the data port facing sunrise. Place the Daylight Sensor horizontally with the data port facing North and the sensor facing up. Build a Logic Reader and a Batch Writer from the 2 [[Logic I/O]] Kits. Build a Math Unit from the [[Logic Processor]] kit and place the Logic Memory. Set the Logic Reader to read the Vertical Angle from the Daylight Sensor. Set the Logic Memory to 90. Set the left input of the Math Unit to read the Logic Memory. Set the right input of the Math Unit to read the Logic Reader. Set the bottom output of the Math Unit to subtract. Set the Batch Writer to read the Math unit and output the Vertical Angle to the [[Solar Panel (Dual)]]. Rotate the Solar Panel to 270°. Add an Area [[Power Controller]] to make sure the Logic Chips do not lose power.

==Combined Solar Tracking==
Two-Chip Horizontal Tracking can be upgraded by combining it with Four-Chip Vertical Tracking. Rather than building both at once it is possible to build the Two-Chip Horizontal Tracking and integrate Four-Chip Vertical Tracking at a later [[time]]. This is convenient for Brutal Starts as it costs fewer resources and takes less time to get a functioning solar power setup.

'''What do you need:'''
* Build the Two-Chip Horizontal Tracking as shown above.
* Build the Four-Chip Vertical Tracking as shown above.
* The daylight sensor and [[Area Power Controller|area power controller]] can be shared between the two setups.

=== Six-chip dual-axis tracking ===
To get a "100%" accurate solar [[tracker]] on [[planets]] with an offset solar arc, you need to include the Horizontal component to the solar angle.

'''What do you need:'''
* [[Kit (Logic I/O)]] x4
* [[Kit (Logic Processor)]]
* [[Kit (Logic Memory)]]
* [[Sensors|Kit (Sensor)]] > [[Sensors#Daylight Sensor|Daylight Sensor]]

Place the [[Daylight Sensor]] facing up, '''with the [[Data Port]] facing north (0 degrees).'''

{| class="wikitable"
|-
! '''Horizontal'''
|-
! '''Chip''' !! '''Chip label''' !! '''IN''' !! '''VAR''' !! '''OUT'''
|-
| [[Logic]] Reader || Horizontal Reader || Daylight Sensor || Horizontal ||
|-
| Batch Writer || Horizontal Writer || Horizontal Reader || Horizontal || [[Solar Panel]]
|-
! '''Vertical'''
|-
! '''Chip''' !! '''Chip label''' !! '''IN''' !! '''VAR''' !! '''OUT'''
|-
| Logic Reader || Vertical Reader || Daylight Sensor || Vertical ||
|-
| Batch Writer || Vertical Writer || Vertical Correction Math || Vertical || Solar Panel
|-
! '''Chip''' !! '''Chip label''' !! '''Value'''
|-
| [[Logic Memory]] || Vertical Correction Memory || 90
|-
! '''Chip''' !! '''Chip label''' !! '''IN 1''' !! '''IN 2''' !! '''OUT'''
|-
| Logic Math || Vertical Correction Math || Vertical Reader || Vertical Correction Memory || Add
|}

[[File:2022-10-02 Two-axis solar tracking.png|Accurate two-axis solar tracking]]

The panels should align themselves to the sun, you make sure to '''put the [[Power]] Port on the panels facing east (east - 90 degrees).''' If you've already built the panels and logic with the Power Port facing west, swapping the direction of the sensor so that its Data Port faces south will allow the setup to work with no additional changes.

== Solar tracking using Integrated Circuits ==
This is the most powerful way to track the sun, but the implementation might be a bit daunting at first.

'''What you need:'''
* [[Integrated Circuit (IC10)]]
* [[Kit (IC Housing)]]
* [[Sensors|Kit (Sensor)]] > [[Sensors#Daylight Sensor|Daylight Sensor]]

And if you don't already have one set up:
* [[Kit (Computer)]]
* [[Motherboard (IC Editor)|IC Editor Motherboard]]

Place the '''Daylight Sensor''' facing up, note which direction the Data Port is facing, and which direction the solar panel Power Port is facing. These two directions are needed in the code. The '''Daylight Sensor''' is connected to the '''d0''' screw, that's all you need.

A simple code example can be found here: https://stationeering.com/tools/ic/_2FpmwojGnBq<br>
This code is considered "inefficient" since it's hard-coded to spam all types of [[solar panels]], even if you don't have them.

A better code example can be found here: https://stationeering.com/tools/ic/_2FpoBEcd3QK<br>
It targets the solar-panel types on '''d2''' and (optionally) '''d3''', so it's less spammy. It also has an option for a display ('''Kit ([[Console]])''') on '''d1''' that shows the sum of power output from both types of panels

== duality of orientation ==

Due to the coordinate system used by solar panels, it is actually possible to capture peak sunlight using two different (but related) H,V coordinates.

[[File:stationeers-solar-duality.svg|frameless|panels using different control logic to accomplish the same goal]]

This screenshot shows two sets of solar panels, each with its own daylight sensor. Each sensor is oriented differently to properly match its panel and formulas. The panel on the right uses panel.horizontal = daysensor.horizontal; panel.vertical = 90-daysensor.vertical; while the panel on the left uses panel.horizontal = daysensor.horizontal; panel.vertical = daysensor.vertical + 90. They both achieve the same orientation.

Solar Logic Circuits Guide

2026-03-22T01:56:30Z

Starviking: /* Combined Solar Tracking */

[[Category:Tutorials]][[Category:Solar power]]

== Disclaimer ==

Due to the frequency of game updates, all solutions are subject to change and may or may not be functional.

The designs on this page are valid as of v0.2.5906.26015 (2025-09-16)

Guides in this section calls out the [[sensor]] and Solar Panel being placed in a specific orientation, but not all guides use the same orientation. When follow a a guide please be sure to place your sensor and solar panel as described in the guide.

==Types of Tracking==
There are two components to solar tracking, Horizontal position and Vertical position. A solar panel can be positioned using only one of these factors (single axis tracking) or both of these factors (dual axis tracking). Depending on the geometry of sun's sky tack on a particular planet single axis tracking can be very efficient. The solar inclination on The [[Moon]] is 0° so single axis solar tracking can be 100% efficient.

== Geometry Of [[Solar Panel|Solar Panels]] and [[Sensors#Daylight Sensor|Daylight Sensors]] ==

The Horizontal and Vertcal angle measured by the daylight sensor is different from the Solar panels coordinates system. In order to point the solar panel correctly either the angle read from the daylight sensor will need to be recalculated using a Math Unit, or the daylight sensor and solar panel will need to have a different orientation. The Vertical angle measured by the daylight sensor is also different from the Solar panels coordinates system.

If the daylight sensor is positioned horizontally the solar panel's data port should be 90° clockwise from the daylight sensor's Data Port. This will give a Horizontal angles without needing to additional Logic and math. Obtaining a Vertical angle will require additional Logic and Math.

<gallery>
daylight sensor horizontal.png|Geometry of values measured by daylight sensor in horizontal (yaw) mode
daylight sensor vertical.png|Geometry of values measured by daylight sensor in vertical (pitch) mode
solar panel yaw-Horizontal setting.png|Effect of setting horizontal rotation of a solar panel
</gallery>

==Solar tracking using Logic Chips ==

===Two-chip Vertical tracking (Moon only)===
[[File:Vertical Tracking (Moon Only).png|thumb|Two-Chip Vertical tracking usable on the Moon only.]]
Because the sun passes directly East to West with zero solar offset on the moon, it can be tracked using only 2 logic chips.

'''What do you need:'''
* [[Solar_Panel|Solar Panel (Dual)]]
* [[Kit (Logic I/O)]] x2
* [[Sensors|Kit (Sensor)]] > [[Sensors#Daylight Sensor|Daylight Sensor]]
* [[Cables|Cable]]
* [[Power_Controller|Area Power Controller]] X1

Place the Solar panel with the data port facing sunrise. Place the Daylight Sensor vertically on the wall with the data port facing down and the sensor facing sunrise. Build a Logic reader and a Batch Writer from the 2 [[Logic I/O]] Kits. Set the Logic reader to read the Vertical Angle from the Daylight Sensor. Set the Batch Writer to Read the Reader and output the Vertical Angle to the [[Solar Panel (Dual)]]. Rotate the Solar Panel to 270°. Add an Area [[Power Controller]] to make sure the Logic Chips do not lose power.

==Two-chip Horizontal tracking==
[[File:Horizontal Tracking.png|thumb|Two-Chip Horizontal Tracking, stand alone.]]
With the daylight sensor and solar panel correctly positioned, the solar panel can tack the sun's horizontal track using only 2 chips. On [[Mars]] this can yield approximately 80% efficient solar tracking if the solar panel is manually positioned at 45° vertical. Two-chip Horizontal and two-chip Vertical tracking cannot be combined.

'''What do you need:'''
* [[Solar_Panel|Solar Panel (Dual)]]
* [[Kit (Logic I/O)]] x2
* [[Sensors|Kit (Sensor)]] > [[Sensors#Daylight Sensor|Daylight Sensor]]
* [[Cables|Cable]]
* [[Power_Controller|Area Power Controller]] X1

Place the Solar panel with the data port facing sunrise. Place the Daylight Sensor horizontally with the data port facing North and the sensor facing up. Build a Logic reader and a Batch Writer from the 2 [[Logic I/O]] Kits. Set the Logic reader to read the Horizontal Angle from the Daylight Sensor. Set the Batch Writer to Read the Reader and output the Horizontal Angle to the [[Solar Panel (Dual)]]. Rotate the Solar Panel to 270°. Add an Area [[Power Controller]] to make sure the Logic Chips do not lose power.

==Four Chip Vertical tracking==
[[File:Vertical Tracking Two Axis.png|thumb|Four-Chip Vertical Tracking, stand alone.]]
Vertical tracking required two additional chips, a Logic Memory and a Math Unit. There are two different method of obtaining the correct vertical solar angle. Either (90-Solar angle) or (Solar angle+90).

'''What do you need:'''
* [[Solar_Panel|Solar Panel (Dual)]]
* [[Kit (Logic I/O)]] x2
* [[Kit (Logic Processor)]]
* [[Kit (Logic Memory)]]
* [[Sensors|Kit (Sensor)]] > [[Sensors#Daylight Sensor|Daylight Sensor]]
* [[Cables|Cable]]
* [[Power_Controller|Area Power Controller]] X1

Place the Solar panel with the data port facing sunrise. Place the Daylight Sensor horizontally with the data port facing North and the sensor facing up. Build a Logic Reader and a Batch Writer from the 2 [[Logic I/O]] Kits. Build a Math Unit from the [[Logic Processor]] kit and place the Logic Memory. Set the Logic Reader to read the Vertical Angle from the Daylight Sensor. Set the Logic Memory to 90. Set the left input of the Math Unit to read the Logic Memory. Set the right input of the Math Unit to read the Logic Reader. Set the bottom output of the Math Unit to subtract. Set the Batch Writer to read the Math unit and output the Vertical Angle to the [[Solar Panel (Dual)]]. Rotate the Solar Panel to 270°. Add an Area [[Power Controller]] to make sure the Logic Chips do not lose power.

==Combined Solar Tracking==
Two-Chip Horizontal Tracking can be upgraded by combining it with Four-Chip Vertical Tracking. Rather than building both at once it is possible to build the Two-Chip Horizontal Tracking and integrate Four-Chip Vertical Tracking at a later [[time]]. This is convenient for Brutal Starts as it costs fewer resources and takes less time to get a functioning solar power setup.

'''What do you need:'''
* Build the Two-Chip Horizontal Tracking as shown above.
* Build the Four-Chip Vertical Tracking as shown above.
* The daylight sensor and area power controller can be shared between the two setups.

=== Six-chip dual-axis tracking ===
To get a "100%" accurate solar [[tracker]] on [[planets]] with an offset solar arc, you need to include the Horizontal component to the solar angle.

'''What do you need:'''
* [[Kit (Logic I/O)]] x4
* [[Kit (Logic Processor)]]
* [[Kit (Logic Memory)]]
* [[Sensors|Kit (Sensor)]] > [[Sensors#Daylight Sensor|Daylight Sensor]]

Place the [[Daylight Sensor]] facing up, '''with the [[Data Port]] facing north (0 degrees).'''

{| class="wikitable"
|-
! '''Horizontal'''
|-
! '''Chip''' !! '''Chip label''' !! '''IN''' !! '''VAR''' !! '''OUT'''
|-
| [[Logic]] Reader || Horizontal Reader || Daylight Sensor || Horizontal ||
|-
| Batch Writer || Horizontal Writer || Horizontal Reader || Horizontal || [[Solar Panel]]
|-
! '''Vertical'''
|-
! '''Chip''' !! '''Chip label''' !! '''IN''' !! '''VAR''' !! '''OUT'''
|-
| Logic Reader || Vertical Reader || Daylight Sensor || Vertical ||
|-
| Batch Writer || Vertical Writer || Vertical Correction Math || Vertical || Solar Panel
|-
! '''Chip''' !! '''Chip label''' !! '''Value'''
|-
| [[Logic Memory]] || Vertical Correction Memory || 90
|-
! '''Chip''' !! '''Chip label''' !! '''IN 1''' !! '''IN 2''' !! '''OUT'''
|-
| Logic Math || Vertical Correction Math || Vertical Reader || Vertical Correction Memory || Add
|}

[[File:2022-10-02 Two-axis solar tracking.png|Accurate two-axis solar tracking]]

The panels should align themselves to the sun, you make sure to '''put the [[Power]] Port on the panels facing east (east - 90 degrees).''' If you've already built the panels and logic with the Power Port facing west, swapping the direction of the sensor so that its Data Port faces south will allow the setup to work with no additional changes.

== Solar tracking using Integrated Circuits ==
This is the most powerful way to track the sun, but the implementation might be a bit daunting at first.

'''What you need:'''
* [[Integrated Circuit (IC10)]]
* [[Kit (IC Housing)]]
* [[Sensors|Kit (Sensor)]] > [[Sensors#Daylight Sensor|Daylight Sensor]]

And if you don't already have one set up:
* [[Kit (Computer)]]
* [[Motherboard (IC Editor)|IC Editor Motherboard]]

Place the '''Daylight Sensor''' facing up, note which direction the Data Port is facing, and which direction the solar panel Power Port is facing. These two directions are needed in the code. The '''Daylight Sensor''' is connected to the '''d0''' screw, that's all you need.

A simple code example can be found here: https://stationeering.com/tools/ic/_2FpmwojGnBq<br>
This code is considered "inefficient" since it's hard-coded to spam all types of [[solar panels]], even if you don't have them.

A better code example can be found here: https://stationeering.com/tools/ic/_2FpoBEcd3QK<br>
It targets the solar-panel types on '''d2''' and (optionally) '''d3''', so it's less spammy. It also has an option for a display ('''Kit ([[Console]])''') on '''d1''' that shows the sum of power output from both types of panels

== duality of orientation ==

Due to the coordinate system used by solar panels, it is actually possible to capture peak sunlight using two different (but related) H,V coordinates.

[[File:stationeers-solar-duality.svg|frameless|panels using different control logic to accomplish the same goal]]

This screenshot shows two sets of solar panels, each with its own daylight sensor. Each sensor is oriented differently to properly match its panel and formulas. The panel on the right uses panel.horizontal = daysensor.horizontal; panel.vertical = 90-daysensor.vertical; while the panel on the left uses panel.horizontal = daysensor.horizontal; panel.vertical = daysensor.vertical + 90. They both achieve the same orientation.

Solar Logic Circuits Guide

2026-03-22T01:53:01Z

Starviking: /* Four Chip Vertical tracking */

[[Category:Tutorials]][[Category:Solar power]]

== Disclaimer ==

Due to the frequency of game updates, all solutions are subject to change and may or may not be functional.

The designs on this page are valid as of v0.2.5906.26015 (2025-09-16)

Guides in this section calls out the [[sensor]] and Solar Panel being placed in a specific orientation, but not all guides use the same orientation. When follow a a guide please be sure to place your sensor and solar panel as described in the guide.

==Types of Tracking==
There are two components to solar tracking, Horizontal position and Vertical position. A solar panel can be positioned using only one of these factors (single axis tracking) or both of these factors (dual axis tracking). Depending on the geometry of sun's sky tack on a particular planet single axis tracking can be very efficient. The solar inclination on The [[Moon]] is 0° so single axis solar tracking can be 100% efficient.

== Geometry Of [[Solar Panel|Solar Panels]] and [[Sensors#Daylight Sensor|Daylight Sensors]] ==

The Horizontal and Vertcal angle measured by the daylight sensor is different from the Solar panels coordinates system. In order to point the solar panel correctly either the angle read from the daylight sensor will need to be recalculated using a Math Unit, or the daylight sensor and solar panel will need to have a different orientation. The Vertical angle measured by the daylight sensor is also different from the Solar panels coordinates system.

If the daylight sensor is positioned horizontally the solar panel's data port should be 90° clockwise from the daylight sensor's Data Port. This will give a Horizontal angles without needing to additional Logic and math. Obtaining a Vertical angle will require additional Logic and Math.

<gallery>
daylight sensor horizontal.png|Geometry of values measured by daylight sensor in horizontal (yaw) mode
daylight sensor vertical.png|Geometry of values measured by daylight sensor in vertical (pitch) mode
solar panel yaw-Horizontal setting.png|Effect of setting horizontal rotation of a solar panel
</gallery>

==Solar tracking using Logic Chips ==

===Two-chip Vertical tracking (Moon only)===
[[File:Vertical Tracking (Moon Only).png|thumb|Two-Chip Vertical tracking usable on the Moon only.]]
Because the sun passes directly East to West with zero solar offset on the moon, it can be tracked using only 2 logic chips.

'''What do you need:'''
* [[Solar_Panel|Solar Panel (Dual)]]
* [[Kit (Logic I/O)]] x2
* [[Sensors|Kit (Sensor)]] > [[Sensors#Daylight Sensor|Daylight Sensor]]
* [[Cables|Cable]]
* [[Power_Controller|Area Power Controller]] X1

Place the Solar panel with the data port facing sunrise. Place the Daylight Sensor vertically on the wall with the data port facing down and the sensor facing sunrise. Build a Logic reader and a Batch Writer from the 2 [[Logic I/O]] Kits. Set the Logic reader to read the Vertical Angle from the Daylight Sensor. Set the Batch Writer to Read the Reader and output the Vertical Angle to the [[Solar Panel (Dual)]]. Rotate the Solar Panel to 270°. Add an Area [[Power Controller]] to make sure the Logic Chips do not lose power.

==Two-chip Horizontal tracking==
[[File:Horizontal Tracking.png|thumb|Two-Chip Horizontal Tracking, stand alone.]]
With the daylight sensor and solar panel correctly positioned, the solar panel can tack the sun's horizontal track using only 2 chips. On [[Mars]] this can yield approximately 80% efficient solar tracking if the solar panel is manually positioned at 45° vertical. Two-chip Horizontal and two-chip Vertical tracking cannot be combined.

'''What do you need:'''
* [[Solar_Panel|Solar Panel (Dual)]]
* [[Kit (Logic I/O)]] x2
* [[Sensors|Kit (Sensor)]] > [[Sensors#Daylight Sensor|Daylight Sensor]]
* [[Cables|Cable]]
* [[Power_Controller|Area Power Controller]] X1

Place the Solar panel with the data port facing sunrise. Place the Daylight Sensor horizontally with the data port facing North and the sensor facing up. Build a Logic reader and a Batch Writer from the 2 [[Logic I/O]] Kits. Set the Logic reader to read the Horizontal Angle from the Daylight Sensor. Set the Batch Writer to Read the Reader and output the Horizontal Angle to the [[Solar Panel (Dual)]]. Rotate the Solar Panel to 270°. Add an Area [[Power Controller]] to make sure the Logic Chips do not lose power.

==Four Chip Vertical tracking==
[[File:Vertical Tracking Two Axis.png|thumb|Four-Chip Vertical Tracking, stand alone.]]
Vertical tracking required two additional chips, a Logic Memory and a Math Unit. There are two different method of obtaining the correct vertical solar angle. Either (90-Solar angle) or (Solar angle+90).

'''What do you need:'''
* [[Solar_Panel|Solar Panel (Dual)]]
* [[Kit (Logic I/O)]] x2
* [[Kit (Logic Processor)]]
* [[Kit (Logic Memory)]]
* [[Sensors|Kit (Sensor)]] > [[Sensors#Daylight Sensor|Daylight Sensor]]
* [[Cables|Cable]]
* [[Power_Controller|Area Power Controller]] X1

Place the Solar panel with the data port facing sunrise. Place the Daylight Sensor horizontally with the data port facing North and the sensor facing up. Build a Logic Reader and a Batch Writer from the 2 [[Logic I/O]] Kits. Build a Math Unit from the [[Logic Processor]] kit and place the Logic Memory. Set the Logic Reader to read the Vertical Angle from the Daylight Sensor. Set the Logic Memory to 90. Set the left input of the Math Unit to read the Logic Memory. Set the right input of the Math Unit to read the Logic Reader. Set the bottom output of the Math Unit to subtract. Set the Batch Writer to read the Math unit and output the Vertical Angle to the [[Solar Panel (Dual)]]. Rotate the Solar Panel to 270°. Add an Area [[Power Controller]] to make sure the Logic Chips do not lose power.

==Combined Solar Tracking==
Two-Chip Horizontal Tracking can be upgraded up Four-Chip Vertical Tracking. Rather than building both at once it is possible to build the Two-Chip Horizontal Tracking and integrate Four-Chip Vertical Tracking at a later [[time]]. This is convenient for Brutal Starts as it costs fewer resources and takes less time to get a functioning solar power setup.

=== Six-chip dual-axis tracking ===
To get a "100%" accurate solar [[tracker]] on [[planets]] with an offset solar arc, you need to include the Horizontal component to the solar angle.

'''What do you need:'''
* [[Kit (Logic I/O)]] x4
* [[Kit (Logic Processor)]]
* [[Kit (Logic Memory)]]
* [[Sensors|Kit (Sensor)]] > [[Sensors#Daylight Sensor|Daylight Sensor]]

Place the [[Daylight Sensor]] facing up, '''with the [[Data Port]] facing north (0 degrees).'''

{| class="wikitable"
|-
! '''Horizontal'''
|-
! '''Chip''' !! '''Chip label''' !! '''IN''' !! '''VAR''' !! '''OUT'''
|-
| [[Logic]] Reader || Horizontal Reader || Daylight Sensor || Horizontal ||
|-
| Batch Writer || Horizontal Writer || Horizontal Reader || Horizontal || [[Solar Panel]]
|-
! '''Vertical'''
|-
! '''Chip''' !! '''Chip label''' !! '''IN''' !! '''VAR''' !! '''OUT'''
|-
| Logic Reader || Vertical Reader || Daylight Sensor || Vertical ||
|-
| Batch Writer || Vertical Writer || Vertical Correction Math || Vertical || Solar Panel
|-
! '''Chip''' !! '''Chip label''' !! '''Value'''
|-
| [[Logic Memory]] || Vertical Correction Memory || 90
|-
! '''Chip''' !! '''Chip label''' !! '''IN 1''' !! '''IN 2''' !! '''OUT'''
|-
| Logic Math || Vertical Correction Math || Vertical Reader || Vertical Correction Memory || Add
|}

[[File:2022-10-02 Two-axis solar tracking.png|Accurate two-axis solar tracking]]

The panels should align themselves to the sun, you make sure to '''put the [[Power]] Port on the panels facing east (east - 90 degrees).''' If you've already built the panels and logic with the Power Port facing west, swapping the direction of the sensor so that its Data Port faces south will allow the setup to work with no additional changes.

== Solar tracking using Integrated Circuits ==
This is the most powerful way to track the sun, but the implementation might be a bit daunting at first.

'''What you need:'''
* [[Integrated Circuit (IC10)]]
* [[Kit (IC Housing)]]
* [[Sensors|Kit (Sensor)]] > [[Sensors#Daylight Sensor|Daylight Sensor]]

And if you don't already have one set up:
* [[Kit (Computer)]]
* [[Motherboard (IC Editor)|IC Editor Motherboard]]

Place the '''Daylight Sensor''' facing up, note which direction the Data Port is facing, and which direction the solar panel Power Port is facing. These two directions are needed in the code. The '''Daylight Sensor''' is connected to the '''d0''' screw, that's all you need.

A simple code example can be found here: https://stationeering.com/tools/ic/_2FpmwojGnBq<br>
This code is considered "inefficient" since it's hard-coded to spam all types of [[solar panels]], even if you don't have them.

A better code example can be found here: https://stationeering.com/tools/ic/_2FpoBEcd3QK<br>
It targets the solar-panel types on '''d2''' and (optionally) '''d3''', so it's less spammy. It also has an option for a display ('''Kit ([[Console]])''') on '''d1''' that shows the sum of power output from both types of panels

== duality of orientation ==

Due to the coordinate system used by solar panels, it is actually possible to capture peak sunlight using two different (but related) H,V coordinates.

[[File:stationeers-solar-duality.svg|frameless|panels using different control logic to accomplish the same goal]]

This screenshot shows two sets of solar panels, each with its own daylight sensor. Each sensor is oriented differently to properly match its panel and formulas. The panel on the right uses panel.horizontal = daysensor.horizontal; panel.vertical = 90-daysensor.vertical; while the panel on the left uses panel.horizontal = daysensor.horizontal; panel.vertical = daysensor.vertical + 90. They both achieve the same orientation.

Solar Logic Circuits Guide

2026-03-22T01:44:13Z

Starviking: /* Two-chip Horizontal tracking */ added build instructions

[[Category:Tutorials]][[Category:Solar power]]

== Disclaimer ==

Due to the frequency of game updates, all solutions are subject to change and may or may not be functional.

The designs on this page are valid as of v0.2.5906.26015 (2025-09-16)

Guides in this section calls out the [[sensor]] and Solar Panel being placed in a specific orientation, but not all guides use the same orientation. When follow a a guide please be sure to place your sensor and solar panel as described in the guide.

==Types of Tracking==
There are two components to solar tracking, Horizontal position and Vertical position. A solar panel can be positioned using only one of these factors (single axis tracking) or both of these factors (dual axis tracking). Depending on the geometry of sun's sky tack on a particular planet single axis tracking can be very efficient. The solar inclination on The [[Moon]] is 0° so single axis solar tracking can be 100% efficient.

== Geometry Of [[Solar Panel|Solar Panels]] and [[Sensors#Daylight Sensor|Daylight Sensors]] ==

The Horizontal and Vertcal angle measured by the daylight sensor is different from the Solar panels coordinates system. In order to point the solar panel correctly either the angle read from the daylight sensor will need to be recalculated using a Math Unit, or the daylight sensor and solar panel will need to have a different orientation. The Vertical angle measured by the daylight sensor is also different from the Solar panels coordinates system.

If the daylight sensor is positioned horizontally the solar panel's data port should be 90° clockwise from the daylight sensor's Data Port. This will give a Horizontal angles without needing to additional Logic and math. Obtaining a Vertical angle will require additional Logic and Math.

<gallery>
daylight sensor horizontal.png|Geometry of values measured by daylight sensor in horizontal (yaw) mode
daylight sensor vertical.png|Geometry of values measured by daylight sensor in vertical (pitch) mode
solar panel yaw-Horizontal setting.png|Effect of setting horizontal rotation of a solar panel
</gallery>

==Solar tracking using Logic Chips ==

===Two-chip Vertical tracking (Moon only)===
[[File:Vertical Tracking (Moon Only).png|thumb|Two-Chip Vertical tracking usable on the Moon only.]]
Because the sun passes directly East to West with zero solar offset on the moon, it can be tracked using only 2 logic chips.

'''What do you need:'''
* [[Solar_Panel|Solar Panel (Dual)]]
* [[Kit (Logic I/O)]] x2
* [[Sensors|Kit (Sensor)]] > [[Sensors#Daylight Sensor|Daylight Sensor]]
* [[Cables|Cable]]
* [[Power_Controller|Area Power Controller]] X1

Place the Solar panel with the data port facing sunrise. Place the Daylight Sensor vertically on the wall with the data port facing down and the sensor facing sunrise. Build a Logic reader and a Batch Writer from the 2 [[Logic I/O]] Kits. Set the Logic reader to read the Vertical Angle from the Daylight Sensor. Set the Batch Writer to Read the Reader and output the Vertical Angle to the [[Solar Panel (Dual)]]. Rotate the Solar Panel to 270°. Add an Area [[Power Controller]] to make sure the Logic Chips do not lose power.

==Two-chip Horizontal tracking==
[[File:Horizontal Tracking.png|thumb|Two-Chip Horizontal Tracking, stand alone.]]
With the daylight sensor and solar panel correctly positioned, the solar panel can tack the sun's horizontal track using only 2 chips. On [[Mars]] this can yield approximately 80% efficient solar tracking if the solar panel is manually positioned at 45° vertical. Two-chip Horizontal and two-chip Vertical tracking cannot be combined.

'''What do you need:'''
* [[Solar_Panel|Solar Panel (Dual)]]
* [[Kit (Logic I/O)]] x2
* [[Sensors|Kit (Sensor)]] > [[Sensors#Daylight Sensor|Daylight Sensor]]
* [[Cables|Cable]]
* [[Power_Controller|Area Power Controller]] X1

Place the Solar panel with the data port facing sunrise. Place the Daylight Sensor horizontally with the data port facing North and the sensor facing up. Build a Logic reader and a Batch Writer from the 2 [[Logic I/O]] Kits. Set the Logic reader to read the Horizontal Angle from the Daylight Sensor. Set the Batch Writer to Read the Reader and output the Horizontal Angle to the [[Solar Panel (Dual)]]. Rotate the Solar Panel to 270°. Add an Area [[Power Controller]] to make sure the Logic Chips do not lose power.

==Four Chip Vertical tracking==
[[File:Vertical Tracking Two Axis.png|thumb|Four-Chip Vertical Tracking, stand alone.]]
Vertical tracking required two additional chips, a Logic Memory and a Math Unit. There are two different method of obtaining the correct vertical solar angle. Either (90-Solar angle) or (Solar angle+90).

==Combined Solar Tracking==
Two-Chip Horizontal Tracking can be upgraded up Four-Chip Vertical Tracking. Rather than building both at once it is possible to build the Two-Chip Horizontal Tracking and integrate Four-Chip Vertical Tracking at a later [[time]]. This is convenient for Brutal Starts as it costs fewer resources and takes less time to get a functioning solar power setup.

=== Six-chip dual-axis tracking ===
To get a "100%" accurate solar [[tracker]] on [[planets]] with an offset solar arc, you need to include the Horizontal component to the solar angle.

'''What do you need:'''
* [[Kit (Logic I/O)]] x4
* [[Kit (Logic Processor)]]
* [[Kit (Logic Memory)]]
* [[Sensors|Kit (Sensor)]] > [[Sensors#Daylight Sensor|Daylight Sensor]]

Place the [[Daylight Sensor]] facing up, '''with the [[Data Port]] facing north (0 degrees).'''

{| class="wikitable"
|-
! '''Horizontal'''
|-
! '''Chip''' !! '''Chip label''' !! '''IN''' !! '''VAR''' !! '''OUT'''
|-
| [[Logic]] Reader || Horizontal Reader || Daylight Sensor || Horizontal ||
|-
| Batch Writer || Horizontal Writer || Horizontal Reader || Horizontal || [[Solar Panel]]
|-
! '''Vertical'''
|-
! '''Chip''' !! '''Chip label''' !! '''IN''' !! '''VAR''' !! '''OUT'''
|-
| Logic Reader || Vertical Reader || Daylight Sensor || Vertical ||
|-
| Batch Writer || Vertical Writer || Vertical Correction Math || Vertical || Solar Panel
|-
! '''Chip''' !! '''Chip label''' !! '''Value'''
|-
| [[Logic Memory]] || Vertical Correction Memory || 90
|-
! '''Chip''' !! '''Chip label''' !! '''IN 1''' !! '''IN 2''' !! '''OUT'''
|-
| Logic Math || Vertical Correction Math || Vertical Reader || Vertical Correction Memory || Add
|}

[[File:2022-10-02 Two-axis solar tracking.png|Accurate two-axis solar tracking]]

The panels should align themselves to the sun, you make sure to '''put the [[Power]] Port on the panels facing east (east - 90 degrees).''' If you've already built the panels and logic with the Power Port facing west, swapping the direction of the sensor so that its Data Port faces south will allow the setup to work with no additional changes.

== Solar tracking using Integrated Circuits ==
This is the most powerful way to track the sun, but the implementation might be a bit daunting at first.

'''What you need:'''
* [[Integrated Circuit (IC10)]]
* [[Kit (IC Housing)]]
* [[Sensors|Kit (Sensor)]] > [[Sensors#Daylight Sensor|Daylight Sensor]]

And if you don't already have one set up:
* [[Kit (Computer)]]
* [[Motherboard (IC Editor)|IC Editor Motherboard]]

Place the '''Daylight Sensor''' facing up, note which direction the Data Port is facing, and which direction the solar panel Power Port is facing. These two directions are needed in the code. The '''Daylight Sensor''' is connected to the '''d0''' screw, that's all you need.

A simple code example can be found here: https://stationeering.com/tools/ic/_2FpmwojGnBq<br>
This code is considered "inefficient" since it's hard-coded to spam all types of [[solar panels]], even if you don't have them.

A better code example can be found here: https://stationeering.com/tools/ic/_2FpoBEcd3QK<br>
It targets the solar-panel types on '''d2''' and (optionally) '''d3''', so it's less spammy. It also has an option for a display ('''Kit ([[Console]])''') on '''d1''' that shows the sum of power output from both types of panels

== duality of orientation ==

Due to the coordinate system used by solar panels, it is actually possible to capture peak sunlight using two different (but related) H,V coordinates.

[[File:stationeers-solar-duality.svg|frameless|panels using different control logic to accomplish the same goal]]

This screenshot shows two sets of solar panels, each with its own daylight sensor. Each sensor is oriented differently to properly match its panel and formulas. The panel on the right uses panel.horizontal = daysensor.horizontal; panel.vertical = 90-daysensor.vertical; while the panel on the left uses panel.horizontal = daysensor.horizontal; panel.vertical = daysensor.vertical + 90. They both achieve the same orientation.

Solar Logic Circuits Guide

2026-03-22T01:41:47Z

Starviking: /* Two-chip Vertical tracking (Moon only) */ added description of build process

[[Category:Tutorials]][[Category:Solar power]]

== Disclaimer ==

Due to the frequency of game updates, all solutions are subject to change and may or may not be functional.

The designs on this page are valid as of v0.2.5906.26015 (2025-09-16)

Guides in this section calls out the [[sensor]] and Solar Panel being placed in a specific orientation, but not all guides use the same orientation. When follow a a guide please be sure to place your sensor and solar panel as described in the guide.

==Types of Tracking==
There are two components to solar tracking, Horizontal position and Vertical position. A solar panel can be positioned using only one of these factors (single axis tracking) or both of these factors (dual axis tracking). Depending on the geometry of sun's sky tack on a particular planet single axis tracking can be very efficient. The solar inclination on The [[Moon]] is 0° so single axis solar tracking can be 100% efficient.

== Geometry Of [[Solar Panel|Solar Panels]] and [[Sensors#Daylight Sensor|Daylight Sensors]] ==

The Horizontal and Vertcal angle measured by the daylight sensor is different from the Solar panels coordinates system. In order to point the solar panel correctly either the angle read from the daylight sensor will need to be recalculated using a Math Unit, or the daylight sensor and solar panel will need to have a different orientation. The Vertical angle measured by the daylight sensor is also different from the Solar panels coordinates system.

If the daylight sensor is positioned horizontally the solar panel's data port should be 90° clockwise from the daylight sensor's Data Port. This will give a Horizontal angles without needing to additional Logic and math. Obtaining a Vertical angle will require additional Logic and Math.

<gallery>
daylight sensor horizontal.png|Geometry of values measured by daylight sensor in horizontal (yaw) mode
daylight sensor vertical.png|Geometry of values measured by daylight sensor in vertical (pitch) mode
solar panel yaw-Horizontal setting.png|Effect of setting horizontal rotation of a solar panel
</gallery>

==Solar tracking using Logic Chips ==

===Two-chip Vertical tracking (Moon only)===
[[File:Vertical Tracking (Moon Only).png|thumb|Two-Chip Vertical tracking usable on the Moon only.]]
Because the sun passes directly East to West with zero solar offset on the moon, it can be tracked using only 2 logic chips.

'''What do you need:'''
* [[Solar_Panel|Solar Panel (Dual)]]
* [[Kit (Logic I/O)]] x2
* [[Sensors|Kit (Sensor)]] > [[Sensors#Daylight Sensor|Daylight Sensor]]
* [[Cables|Cable]]
* [[Power_Controller|Area Power Controller]] X1

Place the Solar panel with the data port facing sunrise. Place the Daylight Sensor vertically on the wall with the data port facing down and the sensor facing sunrise. Build a Logic reader and a Batch Writer from the 2 [[Logic I/O]] Kits. Set the Logic reader to read the Vertical Angle from the Daylight Sensor. Set the Batch Writer to Read the Reader and output the Vertical Angle to the [[Solar Panel (Dual)]]. Rotate the Solar Panel to 270°. Add an Area [[Power Controller]] to make sure the Logic Chips do not lose power.

==Two-chip Horizontal tracking==
[[File:Horizontal Tracking.png|thumb|Two-Chip Horizontal Tracking, stand alone.]]
With the daylight sensor and solar panel correctly positioned, the solar panel can tack the sun's horizontal track using only 2 chips. On [[Mars]] this can yield approximately 80% efficient solar tracking if the solar panel is manually positioned at 45° vertical. Two-chip Horizontal and two-chip Vertical tracking cannot be combined.

==Four Chip Vertical tracking==
[[File:Vertical Tracking Two Axis.png|thumb|Four-Chip Vertical Tracking, stand alone.]]
Vertical tracking required two additional chips, a Logic Memory and a Math Unit. There are two different method of obtaining the correct vertical solar angle. Either (90-Solar angle) or (Solar angle+90).

==Combined Solar Tracking==
Two-Chip Horizontal Tracking can be upgraded up Four-Chip Vertical Tracking. Rather than building both at once it is possible to build the Two-Chip Horizontal Tracking and integrate Four-Chip Vertical Tracking at a later [[time]]. This is convenient for Brutal Starts as it costs fewer resources and takes less time to get a functioning solar power setup.

=== Six-chip dual-axis tracking ===
To get a "100%" accurate solar [[tracker]] on [[planets]] with an offset solar arc, you need to include the Horizontal component to the solar angle.

'''What do you need:'''
* [[Kit (Logic I/O)]] x4
* [[Kit (Logic Processor)]]
* [[Kit (Logic Memory)]]
* [[Sensors|Kit (Sensor)]] > [[Sensors#Daylight Sensor|Daylight Sensor]]

Place the [[Daylight Sensor]] facing up, '''with the [[Data Port]] facing north (0 degrees).'''

{| class="wikitable"
|-
! '''Horizontal'''
|-
! '''Chip''' !! '''Chip label''' !! '''IN''' !! '''VAR''' !! '''OUT'''
|-
| [[Logic]] Reader || Horizontal Reader || Daylight Sensor || Horizontal ||
|-
| Batch Writer || Horizontal Writer || Horizontal Reader || Horizontal || [[Solar Panel]]
|-
! '''Vertical'''
|-
! '''Chip''' !! '''Chip label''' !! '''IN''' !! '''VAR''' !! '''OUT'''
|-
| Logic Reader || Vertical Reader || Daylight Sensor || Vertical ||
|-
| Batch Writer || Vertical Writer || Vertical Correction Math || Vertical || Solar Panel
|-
! '''Chip''' !! '''Chip label''' !! '''Value'''
|-
| [[Logic Memory]] || Vertical Correction Memory || 90
|-
! '''Chip''' !! '''Chip label''' !! '''IN 1''' !! '''IN 2''' !! '''OUT'''
|-
| Logic Math || Vertical Correction Math || Vertical Reader || Vertical Correction Memory || Add
|}

[[File:2022-10-02 Two-axis solar tracking.png|Accurate two-axis solar tracking]]

The panels should align themselves to the sun, you make sure to '''put the [[Power]] Port on the panels facing east (east - 90 degrees).''' If you've already built the panels and logic with the Power Port facing west, swapping the direction of the sensor so that its Data Port faces south will allow the setup to work with no additional changes.

== Solar tracking using Integrated Circuits ==
This is the most powerful way to track the sun, but the implementation might be a bit daunting at first.

'''What you need:'''
* [[Integrated Circuit (IC10)]]
* [[Kit (IC Housing)]]
* [[Sensors|Kit (Sensor)]] > [[Sensors#Daylight Sensor|Daylight Sensor]]

And if you don't already have one set up:
* [[Kit (Computer)]]
* [[Motherboard (IC Editor)|IC Editor Motherboard]]

Place the '''Daylight Sensor''' facing up, note which direction the Data Port is facing, and which direction the solar panel Power Port is facing. These two directions are needed in the code. The '''Daylight Sensor''' is connected to the '''d0''' screw, that's all you need.

A simple code example can be found here: https://stationeering.com/tools/ic/_2FpmwojGnBq<br>
This code is considered "inefficient" since it's hard-coded to spam all types of [[solar panels]], even if you don't have them.

A better code example can be found here: https://stationeering.com/tools/ic/_2FpoBEcd3QK<br>
It targets the solar-panel types on '''d2''' and (optionally) '''d3''', so it's less spammy. It also has an option for a display ('''Kit ([[Console]])''') on '''d1''' that shows the sum of power output from both types of panels

== duality of orientation ==

Due to the coordinate system used by solar panels, it is actually possible to capture peak sunlight using two different (but related) H,V coordinates.

[[File:stationeers-solar-duality.svg|frameless|panels using different control logic to accomplish the same goal]]

This screenshot shows two sets of solar panels, each with its own daylight sensor. Each sensor is oriented differently to properly match its panel and formulas. The panel on the right uses panel.horizontal = daysensor.horizontal; panel.vertical = 90-daysensor.vertical; while the panel on the left uses panel.horizontal = daysensor.horizontal; panel.vertical = daysensor.vertical + 90. They both achieve the same orientation.

Solar Logic Circuits Guide

2026-03-22T01:27:16Z

Starviking: Added two-Chip vertical tracking for the Moon, re-arranged pictures

File:Vertical Tracking (Moon Only).png

2026-03-22T01:24:30Z

Starviking: Uploaded own work with UploadWizard

Solar Logic Circuits Guide

2026-03-22T01:22:35Z

Starviking: /* Four Chip Vertical tracking */ Added picture show tracking setup

Solar Logic Circuits Guide

2026-03-22T01:21:20Z

Starviking: /* Two-chip Horizontal tracking */ Added photo showing tracking setup

File:Vertical Tracking Two Axis.png

2026-03-22T01:19:19Z

Starviking: Uploaded own work with UploadWizard

=={{int:filedesc}}==
{{Information
|description={{en|1=Four-Chip Vertical Tracking, stand alone.}}
|date=2026-03-21
|source={{own}}
|author=[[User:Starviking|Starviking]]
|permission=
|other versions=
}}

=={{int:license-header}}==
{{licensing|Generic}}

File:Horizontal Tracking.png

2026-03-22T01:19:19Z

Starviking: Uploaded own work with UploadWizard

=={{int:filedesc}}==
{{Information
|description={{en|1=Two-Chip Horizontal Tracking, stand alone.}}
|date=2026-03-21
|source={{own}}
|author=[[User:Starviking|Starviking]]
|permission=
|other versions=
}}

=={{int:license-header}}==
{{licensing|Generic}}

Solar Logic Circuits Guide

2026-03-22T01:10:35Z

Starviking: /* Solar tracking using Logic Chips */ Added sections for Two and Four Chip solar tracking.

Solar Logic Circuits Guide

2026-03-22T00:40:22Z

Starviking: /* Geometry Of Solar Panels and Daylight Sensors */ Added description of solar panel and daylight sensor orientation.

Solar Logic Circuits Guide

2026-03-22T00:11:49Z

Starviking:

Solar Logic Circuits Guide

2026-03-22T00:10:58Z

Starviking: /* Types of Tracking */

Solar Logic Circuits Guide

2026-03-22T00:10:33Z

Starviking:

Solar Logic Circuits Guide

2026-03-21T23:58:13Z

Starviking: /* Disclaimer */ Changed descript to be agnostic regarding sensor point.

Solar Panel

2026-03-21T23:53:02Z

Starviking: /* Types of Solar Panel Kit */ changed level 3 headings to level 2, attempting to get editing brackets to appear next to section they pertain to

[[Category:Solar power]] [[Category:Power]]

[[Category:Machines]]
[[Category:Items]]
{{Itembox
| name = Kit (Solar Panel Basic)
| image = [[File:ItemKitSolarPanel.png]]
| createdwith = [[Electronics Printer]]
| cost = 10g [[Iron]], 2g [[Gold]], 10g [[Copper]]
| constructs = [[Solar Panel (Flat)]], [[Solar Panel (Angled)]]
| stacks = 5
| prefabhash = 844961456
| prefabname = ItemKitSolarPanelBasic
}}
{{Itembox
| name = Kit (Solar Panel)
| image = [[File:ItemKitSolarPanel.png]]
| createdwith = [[Electronics Printer]]
| cost = 5g [[Gold]], 20g [[Copper]], 15g [[Steel]]
| constructs = [[Solar Panel (Dual)]], [[Solar Panel]]
| stacks = 5
| prefabhash = -1924492105
| prefabname = ItemKitSolarPanel
}}
{{Itembox
| name = Kit (Solar Panel Basic Heavy)
| image = [[File:ItemKitSolarPanel.png]]
| createdwith = [[Electronics Printer]] (Tier Two)
| cost = 10g [[Copper]], 10g [[Steel]], 2g [[Electrum]], 10g [[Invar]]
| constructs = [[Solar Panel (Heavy Flat)]], [[Solar Panel (Heavy Angled)]]
| stacks = 5
| prefabhash = -528695432
| prefabname = x
}}
{{Itembox
| name = Kit (Solar Panel Heavy)
| image = [[File:ItemKitSolarPanel.png]]
| createdwith = [[Electronics Printer]] (Tier Two)
| cost = 20g [[Copper]], 10g [[Steel]], 5g [[Electrum]], 15g [[Astroloy]]
| constructs = [[Solar Panel (Heavy Dual)]], [[Solar Panel (Heavy)]]
| stacks = 5
| prefabhash = -364868685
| prefabname = x
}}
== Description ==
The '''Solar Panel''' generates [[power]] by absorbing sunlight, depending on solar intensity. Can be manually rotated using a [[Wrench]]. They can be built in two configurations: "dual" configuration with opposite side split power/data ports, or normal configuration with same side combined power/data ports.

Data ports can interact with [[Kit (Logic I/O)|Logic Chips]] or [[Integrated_Circuit_(IC10)|Integrated Circuits]] and [[Sensor#Daylight_Sensor|Daylight Sensors]] to automatically rotate the panel to face the sun.

At the extreme attitude settings (0/100) the solar panel still faces 15 degrees above the horizon. Thus the total arc of vertical rotation is only 150 degrees from input values 0-100.

Can also be destroyed by [[Storm|storms]], or left with very little health. Best course of action is to remove the solar panels when you are notified of a [[storm]] by a [[Weather Station]], Which allows you to replace them once the [[storm]] is over.

During [[Solar Storms]] Solar Panels output more [[energy]]. Due to this, unexpected cable burnings and power shortages can happen.

They can be repaired with [[Duct Tape]], or by dissembling them and reassembling them. You could even cover them with windows to protect them from [[Storm|storms]] at the cost of some efficiency of the panels themselves being lost. And Heavy Solar Panels are a more expensive version that do not take [[storm]] damage but it is debatable if its worth making the tier 2 metal [[Astroloy]] to prevent [[storm]] damage whilst retaining maximum efficiency.

== Types of Solar Panel Kit ==

{{Structurebox
| name = Solar Panel
| power_usage = 0W to 500W generated
| placed_with_item = [[Kit (Solar Panel)]]
| placed_on_grid = Large Grid
| const_with_item1 = [[Glass Sheets|Glass Sheet]]
| decon_with_tool1 = [[Hand Drill]]
| item_rec1 = [[Kit (Solar Panel)]]
| decon_with_tool2 = [[Crowbar]]
| item_rec2 = [[Glass Sheets|Glass Sheet]]
| prefab_hash = -2045627372
| prefab_name = StructureSolarPanel
}}
{{Structurebox
| name = Solar Panel (Dual)
| power_usage = 0W to 500W generated
| placed_with_item = [[Kit (Solar Panel)]]
| placed_on_grid = Large Grid
| const_with_item1 = [[Glass Sheets|Glass Sheet]]
| decon_with_tool1 = [[Hand Drill]]
| item_rec1 = [[Kit (Solar Panel)]]
| decon_with_tool2 = [[Crowbar]]
| item_rec2 = [[Glass Sheets|Glass Sheet]]
| prefab_hash = -539224550
| prefab_name = StructureSolarPanelDual
}}
== Printed with the Electronics Printer (Tier One) ==
These are useful early on when resources are limited.
*'''Kit (Solar Panel Basic)''' don't have [[logic]] inputs so they can't be set up to automatically track the sun and spend most of their [[time]] at reduced power output. The position of Basic Solar Panel greatly effects the amount of energy the will collect.
*The position of '''Kit (Solar Panels)''' can be set manually using the [[Wrench|Wrench]]. In addition they have logic inputs and can be [[Solar Logic Circuits Guide|programmed to automatically track the sun]] for optimal power output.

== Printed with the Electronics Printer (Tier Two) ==
Heavy Solar Panels are protected against [[Storm|storm]] damage, but are more expensive to build. Note that not all [[planets]] have storms.

*'''Kit (Solar Panel Basic Heavy)''' are similar to Basic Solar Panels and do not have logic inputs.
*'''Kit (Solar Panel Heavy)''' are similar to Solar Panels and have logic inputs.
==Comparison==
{| class="wikitable"
|-
! Name of Construction !! Kit to Build !! Programmable Angle !! Immune to Storms !! Combined Power/Data Ports
|-
| Solar Panel (Flat) || Kit (Solar Panel Basic) || No || No || N/A
|-
| Solar Panel (Angled) || Kit (Solar Panel Basic) || No || No || N/A
|-
| Solar Panel || Kit (Solar Panel) || '''Yes''' || No || '''Yes'''
|-
| Solar Panel (Dual) || Kit (Solar Panel) || '''Yes'''|| No || No
|-
| Solar Panel (Heavy Flat) || Kit (Solar Panel Basic Heavy) || No || '''Yes'''|| N/A
|-
| Solar Panel (Heavy Angled) || Kit (Solar Panel Basic Heavy) || No || '''Yes'''|| N/A
|-
| Solar Panel (Heavy) || Kit (Solar Panel Heavy) || '''Yes'''|| '''Yes'''|| '''Yes'''
|-
| Solar Panel (Heavy Dual) || Kit (Solar Panel Heavy) || '''Yes'''|| '''Yes'''|| No
|-
|}

==Power Output==
{| class="wikitable"
|-
! [[World]] !! Solar Energy !! % of Earth !! Solar Angle
|-
| [[Worlds#Moon|Moon]] || 750W || 100% || 0°
|-
| [[Worlds#Mars|Mars]] || 550W || 51% || 8°
|-
| [[Worlds#Europa|Europa]] || 210W || 28% || 32°
|-
| [[Worlds#Mimas|Mimas]] || 90W || 12% || 126°
|-
| [[Worlds#Vulcan|Vulcan]] || 500W-1.2KW || 160% || 48°
|-
| [[Worlds#Venus|Venus]] || 1.15KW || 150% || 0°
|-
|}

==Usage==
===Positioning===

Pay close attention to the positioning of your solar panel since their automation will depend heavily on it. Any user-made scripts and guides will assume the solar panel is oriented with the [[Data Port|data port]] facing in a particular direction. Be sure to orient the panels with the [[Data Port|data port]] facing the same way as the guide you are following.

[[File:Solar panel yaw-Horizontal setting.png|400x300px|solar panel horizontal rotation]]

===Control===

Basic Solar panels can be manually positioned during construction to capture the most solar energy over the course of the day. On the [[Moon]] the best orientation is either a flat horizontal orientation or a 45° configuration facing East or West. On [[Mars]] the best Orientation is a 45° orientation facing south.

Solar panel can be manually pointed using the Wrench or automatically positioned by writing the desired position to [[Data Port|Data port]]. When setting up an automatic positioning system the orientation of the [[Data Port|Data port]] is a vary important factor for both the Daylight [[sensor]] and the Solar Panel.
Detailed information can be found in the [[Solar_Logic_Circuits_Guide|Solar Logic Circuits Guide]].

==Notes==
After placement be sure to install one [[Glass Sheets|Glass Sheet]] to make it functional.

See [[Sensors]] and [[Solar_Logic_Circuits_Guide|Solar Logic Circuits Guide]] for panel automation using logic [[circuits]].

{{Data Network Header}}

{{Data Parameters}}
{| class="wikitable"
|-
! Parameter Name !! Data Type !! Description
|-
| Horizontal || Degrees || Set the horizontal rotation of the Solar Panel (clockwise, 0-360°, [[Data Port|data port]] is at 270°)
|-
| Vertical || Degrees || Sets the vertical angle of the Solar Panel (As of at least version 0.2.3263.16264, solar panels accept input in degrees above the horizon instead of in percent, so the solar panels travel between inputs of 15 and 165, with 90 being straight up. Previously, this was supposedly a Percentage "accepting 0-100% which translates to 15°-165°, 50%=90° =zenith")
|-
| On || Boolean || Turns the solar panel on or off
|}

{{Data Outputs}}
{| class="wikitable"
|-
! Output Name !! Data Type !! Description
|-
| Charge || W || Returns the power generated in Watts
|-
| Horizontal || degrees || Returns the horizontal rotation of the Solar Panel
|-
| Vertical || % || Returns the vertical angle of the Solar Panel
|-
| Maximum || W || Maximum possible power for this planet
|-
| Ratio || || How close to maximum current performance is, 1.0 means panel is perfectly directed and unobstructed
|-
| On || Boolean || Returns the on/off state of the solar panel
|}

Solar Panel

2026-03-21T23:50:32Z

Starviking:

[[Category:Solar power]] [[Category:Power]]

[[Category:Machines]]
[[Category:Items]]
{{Itembox
| name = Kit (Solar Panel Basic)
| image = [[File:ItemKitSolarPanel.png]]
| createdwith = [[Electronics Printer]]
| cost = 10g [[Iron]], 2g [[Gold]], 10g [[Copper]]
| constructs = [[Solar Panel (Flat)]], [[Solar Panel (Angled)]]
| stacks = 5
| prefabhash = 844961456
| prefabname = ItemKitSolarPanelBasic
}}
{{Itembox
| name = Kit (Solar Panel)
| image = [[File:ItemKitSolarPanel.png]]
| createdwith = [[Electronics Printer]]
| cost = 5g [[Gold]], 20g [[Copper]], 15g [[Steel]]
| constructs = [[Solar Panel (Dual)]], [[Solar Panel]]
| stacks = 5
| prefabhash = -1924492105
| prefabname = ItemKitSolarPanel
}}
{{Itembox
| name = Kit (Solar Panel Basic Heavy)
| image = [[File:ItemKitSolarPanel.png]]
| createdwith = [[Electronics Printer]] (Tier Two)
| cost = 10g [[Copper]], 10g [[Steel]], 2g [[Electrum]], 10g [[Invar]]
| constructs = [[Solar Panel (Heavy Flat)]], [[Solar Panel (Heavy Angled)]]
| stacks = 5
| prefabhash = -528695432
| prefabname = x
}}
{{Itembox
| name = Kit (Solar Panel Heavy)
| image = [[File:ItemKitSolarPanel.png]]
| createdwith = [[Electronics Printer]] (Tier Two)
| cost = 20g [[Copper]], 10g [[Steel]], 5g [[Electrum]], 15g [[Astroloy]]
| constructs = [[Solar Panel (Heavy Dual)]], [[Solar Panel (Heavy)]]
| stacks = 5
| prefabhash = -364868685
| prefabname = x
}}
== Description ==
The '''Solar Panel''' generates [[power]] by absorbing sunlight, depending on solar intensity. Can be manually rotated using a [[Wrench]]. They can be built in two configurations: "dual" configuration with opposite side split power/data ports, or normal configuration with same side combined power/data ports.

Data ports can interact with [[Kit (Logic I/O)|Logic Chips]] or [[Integrated_Circuit_(IC10)|Integrated Circuits]] and [[Sensor#Daylight_Sensor|Daylight Sensors]] to automatically rotate the panel to face the sun.

At the extreme attitude settings (0/100) the solar panel still faces 15 degrees above the horizon. Thus the total arc of vertical rotation is only 150 degrees from input values 0-100.

Can also be destroyed by [[Storm|storms]], or left with very little health. Best course of action is to remove the solar panels when you are notified of a [[storm]] by a [[Weather Station]], Which allows you to replace them once the [[storm]] is over.

During [[Solar Storms]] Solar Panels output more [[energy]]. Due to this, unexpected cable burnings and power shortages can happen.

They can be repaired with [[Duct Tape]], or by dissembling them and reassembling them. You could even cover them with windows to protect them from [[Storm|storms]] at the cost of some efficiency of the panels themselves being lost. And Heavy Solar Panels are a more expensive version that do not take [[storm]] damage but it is debatable if its worth making the tier 2 metal [[Astroloy]] to prevent [[storm]] damage whilst retaining maximum efficiency.

== Types of Solar Panel Kit ==

{{Structurebox
| name = Solar Panel
| power_usage = 0W to 500W generated
| placed_with_item = [[Kit (Solar Panel)]]
| placed_on_grid = Large Grid
| const_with_item1 = [[Glass Sheets|Glass Sheet]]
| decon_with_tool1 = [[Hand Drill]]
| item_rec1 = [[Kit (Solar Panel)]]
| decon_with_tool2 = [[Crowbar]]
| item_rec2 = [[Glass Sheets|Glass Sheet]]
| prefab_hash = -2045627372
| prefab_name = StructureSolarPanel
}}
{{Structurebox
| name = Solar Panel (Dual)
| power_usage = 0W to 500W generated
| placed_with_item = [[Kit (Solar Panel)]]
| placed_on_grid = Large Grid
| const_with_item1 = [[Glass Sheets|Glass Sheet]]
| decon_with_tool1 = [[Hand Drill]]
| item_rec1 = [[Kit (Solar Panel)]]
| decon_with_tool2 = [[Crowbar]]
| item_rec2 = [[Glass Sheets|Glass Sheet]]
| prefab_hash = -539224550
| prefab_name = StructureSolarPanelDual
}}
=== Printed with the Electronics Printer (Tier One) ===
These are useful early on when resources are limited.
*'''Kit (Solar Panel Basic)''' don't have [[logic]] inputs so they can't be set up to automatically track the sun and spend most of their [[time]] at reduced power output. The position of Basic Solar Panel greatly effects the amount of energy the will collect.
*The position of '''Kit (Solar Panels)''' can be set manually using the [[Wrench|Wrench]]. In addition they have logic inputs and can be [[Solar Logic Circuits Guide|programmed to automatically track the sun]] for optimal power output.

=== Printed with the Electronics Printer (Tier Two) ===
Heavy Solar Panels are protected against [[Storm|storm]] damage, but are more expensive to build. Note that not all [[planets]] have storms.

*'''Kit (Solar Panel Basic Heavy)''' are similar to Basic Solar Panels and do not have logic inputs.
*'''Kit (Solar Panel Heavy)''' are similar to Solar Panels and have logic inputs.
===Comparison===
{| class="wikitable"
|-
! Name of Construction !! Kit to Build !! Programmable Angle !! Immune to Storms !! Combined Power/Data Ports
|-
| Solar Panel (Flat) || Kit (Solar Panel Basic) || No || No || N/A
|-
| Solar Panel (Angled) || Kit (Solar Panel Basic) || No || No || N/A
|-
| Solar Panel || Kit (Solar Panel) || '''Yes''' || No || '''Yes'''
|-
| Solar Panel (Dual) || Kit (Solar Panel) || '''Yes'''|| No || No
|-
| Solar Panel (Heavy Flat) || Kit (Solar Panel Basic Heavy) || No || '''Yes'''|| N/A
|-
| Solar Panel (Heavy Angled) || Kit (Solar Panel Basic Heavy) || No || '''Yes'''|| N/A
|-
| Solar Panel (Heavy) || Kit (Solar Panel Heavy) || '''Yes'''|| '''Yes'''|| '''Yes'''
|-
| Solar Panel (Heavy Dual) || Kit (Solar Panel Heavy) || '''Yes'''|| '''Yes'''|| No
|-
|}

==Power Output==
{| class="wikitable"
|-
! [[World]] !! Solar Energy !! % of Earth !! Solar Angle
|-
| [[Worlds#Moon|Moon]] || 750W || 100% || 0°
|-
| [[Worlds#Mars|Mars]] || 550W || 51% || 8°
|-
| [[Worlds#Europa|Europa]] || 210W || 28% || 32°
|-
| [[Worlds#Mimas|Mimas]] || 90W || 12% || 126°
|-
| [[Worlds#Vulcan|Vulcan]] || 500W-1.2KW || 160% || 48°
|-
| [[Worlds#Venus|Venus]] || 1.15KW || 150% || 0°
|-
|}

==Usage==
===Positioning===

Pay close attention to the positioning of your solar panel since their automation will depend heavily on it. Any user-made scripts and guides will assume the solar panel is oriented with the [[Data Port|data port]] facing in a particular direction. Be sure to orient the panels with the [[Data Port|data port]] facing the same way as the guide you are following.

[[File:Solar panel yaw-Horizontal setting.png|400x300px|solar panel horizontal rotation]]

===Control===

Basic Solar panels can be manually positioned during construction to capture the most solar energy over the course of the day. On the [[Moon]] the best orientation is either a flat horizontal orientation or a 45° configuration facing East or West. On [[Mars]] the best Orientation is a 45° orientation facing south.

Solar panel can be manually pointed using the Wrench or automatically positioned by writing the desired position to [[Data Port|Data port]]. When setting up an automatic positioning system the orientation of the [[Data Port|Data port]] is a vary important factor for both the Daylight [[sensor]] and the Solar Panel.
Detailed information can be found in the [[Solar_Logic_Circuits_Guide|Solar Logic Circuits Guide]].

==Notes==
After placement be sure to install one [[Glass Sheets|Glass Sheet]] to make it functional.

See [[Sensors]] and [[Solar_Logic_Circuits_Guide|Solar Logic Circuits Guide]] for panel automation using logic [[circuits]].

{{Data Network Header}}

{{Data Parameters}}
{| class="wikitable"
|-
! Parameter Name !! Data Type !! Description
|-
| Horizontal || Degrees || Set the horizontal rotation of the Solar Panel (clockwise, 0-360°, [[Data Port|data port]] is at 270°)
|-
| Vertical || Degrees || Sets the vertical angle of the Solar Panel (As of at least version 0.2.3263.16264, solar panels accept input in degrees above the horizon instead of in percent, so the solar panels travel between inputs of 15 and 165, with 90 being straight up. Previously, this was supposedly a Percentage "accepting 0-100% which translates to 15°-165°, 50%=90° =zenith")
|-
| On || Boolean || Turns the solar panel on or off
|}

{{Data Outputs}}
{| class="wikitable"
|-
! Output Name !! Data Type !! Description
|-
| Charge || W || Returns the power generated in Watts
|-
| Horizontal || degrees || Returns the horizontal rotation of the Solar Panel
|-
| Vertical || % || Returns the vertical angle of the Solar Panel
|-
| Maximum || W || Maximum possible power for this planet
|-
| Ratio || || How close to maximum current performance is, 1.0 means panel is perfectly directed and unobstructed
|-
| On || Boolean || Returns the on/off state of the solar panel
|}

Solar Panel

2026-03-21T23:48:41Z

Starviking: /* Positioning */

[[Category:Solar power]] [[Category:Power]]

[[Category:Machines]]
[[Category:Items]]
{{Itembox
| name = Kit (Solar Panel Basic)
| image = [[File:ItemKitSolarPanel.png]]
| createdwith = [[Electronics Printer]]
| cost = 10g [[Iron]], 2g [[Gold]], 10g [[Copper]]
| constructs = [[Solar Panel (Flat)]], [[Solar Panel (Angled)]]
| stacks = 5
| prefabhash = 844961456
| prefabname = ItemKitSolarPanelBasic
}}
{{Itembox
| name = Kit (Solar Panel)
| image = [[File:ItemKitSolarPanel.png]]
| createdwith = [[Electronics Printer]]
| cost = 5g [[Gold]], 20g [[Copper]], 15g [[Steel]]
| constructs = [[Solar Panel (Dual)]], [[Solar Panel]]
| stacks = 5
| prefabhash = -1924492105
| prefabname = ItemKitSolarPanel
}}
{{Itembox
| name = Kit (Solar Panel Basic Heavy)
| image = [[File:ItemKitSolarPanel.png]]
| createdwith = [[Electronics Printer]] (Tier Two)
| cost = 10g [[Copper]], 10g [[Steel]], 2g [[Electrum]], 10g [[Invar]]
| constructs = [[Solar Panel (Heavy Flat)]], [[Solar Panel (Heavy Angled)]]
| stacks = 5
| prefabhash = -528695432
| prefabname = x
}}
== Description ==
The '''Solar Panel''' generates [[power]] by absorbing sunlight, depending on solar intensity. Can be manually rotated using a [[Wrench]]. They can be built in two configurations: "dual" configuration with opposite side split power/data ports, or normal configuration with same side combined power/data ports.

Data ports can interact with [[Kit (Logic I/O)|Logic Chips]] or [[Integrated_Circuit_(IC10)|Integrated Circuits]] and [[Sensor#Daylight_Sensor|Daylight Sensors]] to automatically rotate the panel to face the sun.

At the extreme attitude settings (0/100) the solar panel still faces 15 degrees above the horizon. Thus the total arc of vertical rotation is only 150 degrees from input values 0-100.

Can also be destroyed by [[Storm|storms]], or left with very little health. Best course of action is to remove the solar panels when you are notified of a [[storm]] by a [[Weather Station]], Which allows you to replace them once the [[storm]] is over.

During [[Solar Storms]] Solar Panels output more [[energy]]. Due to this, unexpected cable burnings and power shortages can happen.

They can be repaired with [[Duct Tape]], or by dissembling them and reassembling them. You could even cover them with windows to protect them from [[Storm|storms]] at the cost of some efficiency of the panels themselves being lost. And Heavy Solar Panels are a more expensive version that do not take [[storm]] damage but it is debatable if its worth making the tier 2 metal [[Astroloy]] to prevent [[storm]] damage whilst retaining maximum efficiency.

== Types of Solar Panel Kit ==

{{Itembox
| name = Kit (Solar Panel Heavy)
| image = [[File:ItemKitSolarPanel.png]]
| createdwith = [[Electronics Printer]] (Tier Two)
| cost = 20g [[Copper]], 10g [[Steel]], 5g [[Electrum]], 15g [[Astroloy]]
| constructs = [[Solar Panel (Heavy Dual)]], [[Solar Panel (Heavy)]]
| stacks = 5
| prefabhash = -364868685
| prefabname = x
}}
{{Structurebox
| name = Solar Panel
| power_usage = 0W to 500W generated
| placed_with_item = [[Kit (Solar Panel)]]
| placed_on_grid = Large Grid
| const_with_item1 = [[Glass Sheets|Glass Sheet]]
| decon_with_tool1 = [[Hand Drill]]
| item_rec1 = [[Kit (Solar Panel)]]
| decon_with_tool2 = [[Crowbar]]
| item_rec2 = [[Glass Sheets|Glass Sheet]]
| prefab_hash = -2045627372
| prefab_name = StructureSolarPanel
}}
{{Structurebox
| name = Solar Panel (Dual)
| power_usage = 0W to 500W generated
| placed_with_item = [[Kit (Solar Panel)]]
| placed_on_grid = Large Grid
| const_with_item1 = [[Glass Sheets|Glass Sheet]]
| decon_with_tool1 = [[Hand Drill]]
| item_rec1 = [[Kit (Solar Panel)]]
| decon_with_tool2 = [[Crowbar]]
| item_rec2 = [[Glass Sheets|Glass Sheet]]
| prefab_hash = -539224550
| prefab_name = StructureSolarPanelDual
}}
=== Printed with the Electronics Printer (Tier One) ===
These are useful early on when resources are limited.
*'''Kit (Solar Panel Basic)''' don't have [[logic]] inputs so they can't be set up to automatically track the sun and spend most of their [[time]] at reduced power output. The position of Basic Solar Panel greatly effects the amount of energy the will collect.
*The position of '''Kit (Solar Panels)''' can be set manually using the [[Wrench|Wrench]]. In addition they have logic inputs and can be [[Solar Logic Circuits Guide|programmed to automatically track the sun]] for optimal power output.

=== Printed with the Electronics Printer (Tier Two) ===
Heavy Solar Panels are protected against [[Storm|storm]] damage, but are more expensive to build. Note that not all [[planets]] have storms.

*'''Kit (Solar Panel Basic Heavy)''' are similar to Basic Solar Panels and do not have logic inputs.
*'''Kit (Solar Panel Heavy)''' are similar to Solar Panels and have logic inputs.
===Comparison===
{| class="wikitable"
|-
! Name of Construction !! Kit to Build !! Programmable Angle !! Immune to Storms !! Combined Power/Data Ports
|-
| Solar Panel (Flat) || Kit (Solar Panel Basic) || No || No || N/A
|-
| Solar Panel (Angled) || Kit (Solar Panel Basic) || No || No || N/A
|-
| Solar Panel || Kit (Solar Panel) || '''Yes''' || No || '''Yes'''
|-
| Solar Panel (Dual) || Kit (Solar Panel) || '''Yes'''|| No || No
|-
| Solar Panel (Heavy Flat) || Kit (Solar Panel Basic Heavy) || No || '''Yes'''|| N/A
|-
| Solar Panel (Heavy Angled) || Kit (Solar Panel Basic Heavy) || No || '''Yes'''|| N/A
|-
| Solar Panel (Heavy) || Kit (Solar Panel Heavy) || '''Yes'''|| '''Yes'''|| '''Yes'''
|-
| Solar Panel (Heavy Dual) || Kit (Solar Panel Heavy) || '''Yes'''|| '''Yes'''|| No
|-
|}

==Power Output==
{| class="wikitable"
|-
! [[World]] !! Solar Energy !! % of Earth !! Solar Angle
|-
| [[Worlds#Moon|Moon]] || 750W || 100% || 0°
|-
| [[Worlds#Mars|Mars]] || 550W || 51% || 8°
|-
| [[Worlds#Europa|Europa]] || 210W || 28% || 32°
|-
| [[Worlds#Mimas|Mimas]] || 90W || 12% || 126°
|-
| [[Worlds#Vulcan|Vulcan]] || 500W-1.2KW || 160% || 48°
|-
| [[Worlds#Venus|Venus]] || 1.15KW || 150% || 0°
|-
|}

==Usage==
===Positioning===

Pay close attention to the positioning of your solar panel since their automation will depend heavily on it. Any user-made scripts and guides will assume the solar panel is oriented with the [[Data Port|data port]] facing in a particular direction. Be sure to orient the panels with the [[Data Port|data port]] facing the same way as the guide you are following.

[[File:Solar panel yaw-Horizontal setting.png|400x300px|solar panel horizontal rotation]]

===Control===

Basic Solar panels can be manually positioned during construction to capture the most solar energy over the course of the day. On the [[Moon]] the best orientation is either a flat horizontal orientation or a 45° configuration facing East or West. On [[Mars]] the best Orientation is a 45° orientation facing south.

Solar panel can be manually pointed using the Wrench or automatically positioned by writing the desired position to [[Data Port|Data port]]. When setting up an automatic positioning system the orientation of the [[Data Port|Data port]] is a vary important factor for both the Daylight [[sensor]] and the Solar Panel.
Detailed information can be found in the [[Solar_Logic_Circuits_Guide|Solar Logic Circuits Guide]].

==Notes==
After placement be sure to install one [[Glass Sheets|Glass Sheet]] to make it functional.

See [[Sensors]] and [[Solar_Logic_Circuits_Guide|Solar Logic Circuits Guide]] for panel automation using logic [[circuits]].

{{Data Network Header}}

{{Data Parameters}}
{| class="wikitable"
|-
! Parameter Name !! Data Type !! Description
|-
| Horizontal || Degrees || Set the horizontal rotation of the Solar Panel (clockwise, 0-360°, [[Data Port|data port]] is at 270°)
|-
| Vertical || Degrees || Sets the vertical angle of the Solar Panel (As of at least version 0.2.3263.16264, solar panels accept input in degrees above the horizon instead of in percent, so the solar panels travel between inputs of 15 and 165, with 90 being straight up. Previously, this was supposedly a Percentage "accepting 0-100% which translates to 15°-165°, 50%=90° =zenith")
|-
| On || Boolean || Turns the solar panel on or off
|}

{{Data Outputs}}
{| class="wikitable"
|-
! Output Name !! Data Type !! Description
|-
| Charge || W || Returns the power generated in Watts
|-
| Horizontal || degrees || Returns the horizontal rotation of the Solar Panel
|-
| Vertical || % || Returns the vertical angle of the Solar Panel
|-
| Maximum || W || Maximum possible power for this planet
|-
| Ratio || || How close to maximum current performance is, 1.0 means panel is perfectly directed and unobstructed
|-
| On || Boolean || Returns the on/off state of the solar panel
|}

Solar Panel

2026-03-21T23:45:33Z

Starviking: Repositioned item boxes , trying to get edit bracket to remain in the correct section instead of piling up in other sections.

[[Category:Solar power]] [[Category:Power]]

[[Category:Machines]]
[[Category:Items]]
{{Itembox
| name = Kit (Solar Panel Basic)
| image = [[File:ItemKitSolarPanel.png]]
| createdwith = [[Electronics Printer]]
| cost = 10g [[Iron]], 2g [[Gold]], 10g [[Copper]]
| constructs = [[Solar Panel (Flat)]], [[Solar Panel (Angled)]]
| stacks = 5
| prefabhash = 844961456
| prefabname = ItemKitSolarPanelBasic
}}
{{Itembox
| name = Kit (Solar Panel)
| image = [[File:ItemKitSolarPanel.png]]
| createdwith = [[Electronics Printer]]
| cost = 5g [[Gold]], 20g [[Copper]], 15g [[Steel]]
| constructs = [[Solar Panel (Dual)]], [[Solar Panel]]
| stacks = 5
| prefabhash = -1924492105
| prefabname = ItemKitSolarPanel
}}
{{Itembox
| name = Kit (Solar Panel Basic Heavy)
| image = [[File:ItemKitSolarPanel.png]]
| createdwith = [[Electronics Printer]] (Tier Two)
| cost = 10g [[Copper]], 10g [[Steel]], 2g [[Electrum]], 10g [[Invar]]
| constructs = [[Solar Panel (Heavy Flat)]], [[Solar Panel (Heavy Angled)]]
| stacks = 5
| prefabhash = -528695432
| prefabname = x
}}
== Description ==
The '''Solar Panel''' generates [[power]] by absorbing sunlight, depending on solar intensity. Can be manually rotated using a [[Wrench]]. They can be built in two configurations: "dual" configuration with opposite side split power/data ports, or normal configuration with same side combined power/data ports.

Data ports can interact with [[Kit (Logic I/O)|Logic Chips]] or [[Integrated_Circuit_(IC10)|Integrated Circuits]] and [[Sensor#Daylight_Sensor|Daylight Sensors]] to automatically rotate the panel to face the sun.

At the extreme attitude settings (0/100) the solar panel still faces 15 degrees above the horizon. Thus the total arc of vertical rotation is only 150 degrees from input values 0-100.

Can also be destroyed by [[Storm|storms]], or left with very little health. Best course of action is to remove the solar panels when you are notified of a [[storm]] by a [[Weather Station]], Which allows you to replace them once the [[storm]] is over.

During [[Solar Storms]] Solar Panels output more [[energy]]. Due to this, unexpected cable burnings and power shortages can happen.

They can be repaired with [[Duct Tape]], or by dissembling them and reassembling them. You could even cover them with windows to protect them from [[Storm|storms]] at the cost of some efficiency of the panels themselves being lost. And Heavy Solar Panels are a more expensive version that do not take [[storm]] damage but it is debatable if its worth making the tier 2 metal [[Astroloy]] to prevent [[storm]] damage whilst retaining maximum efficiency.

== Types of Solar Panel Kit ==

{{Itembox
| name = Kit (Solar Panel Heavy)
| image = [[File:ItemKitSolarPanel.png]]
| createdwith = [[Electronics Printer]] (Tier Two)
| cost = 20g [[Copper]], 10g [[Steel]], 5g [[Electrum]], 15g [[Astroloy]]
| constructs = [[Solar Panel (Heavy Dual)]], [[Solar Panel (Heavy)]]
| stacks = 5
| prefabhash = -364868685
| prefabname = x
}}
{{Structurebox
| name = Solar Panel
| power_usage = 0W to 500W generated
| placed_with_item = [[Kit (Solar Panel)]]
| placed_on_grid = Large Grid
| const_with_item1 = [[Glass Sheets|Glass Sheet]]
| decon_with_tool1 = [[Hand Drill]]
| item_rec1 = [[Kit (Solar Panel)]]
| decon_with_tool2 = [[Crowbar]]
| item_rec2 = [[Glass Sheets|Glass Sheet]]
| prefab_hash = -2045627372
| prefab_name = StructureSolarPanel
}}
{{Structurebox
| name = Solar Panel (Dual)
| power_usage = 0W to 500W generated
| placed_with_item = [[Kit (Solar Panel)]]
| placed_on_grid = Large Grid
| const_with_item1 = [[Glass Sheets|Glass Sheet]]
| decon_with_tool1 = [[Hand Drill]]
| item_rec1 = [[Kit (Solar Panel)]]
| decon_with_tool2 = [[Crowbar]]
| item_rec2 = [[Glass Sheets|Glass Sheet]]
| prefab_hash = -539224550
| prefab_name = StructureSolarPanelDual
}}
=== Printed with the Electronics Printer (Tier One) ===
These are useful early on when resources are limited.
*'''Kit (Solar Panel Basic)''' don't have [[logic]] inputs so they can't be set up to automatically track the sun and spend most of their [[time]] at reduced power output. The position of Basic Solar Panel greatly effects the amount of energy the will collect.
*The position of '''Kit (Solar Panels)''' can be set manually using the [[Wrench|Wrench]]. In addition they have logic inputs and can be [[Solar Logic Circuits Guide|programmed to automatically track the sun]] for optimal power output.

=== Printed with the Electronics Printer (Tier Two) ===
Heavy Solar Panels are protected against [[Storm|storm]] damage, but more expensive. Note that not all [[planets]] have storms.

*'''Kit (Solar Panel Basic Heavy)''' are similar to Basic Solar Panels and do not have logic inputs.
*'''Kit (Solar Panel Heavy)''' are similar to Solar Panels and have logic inputs.
===Comparison===
{| class="wikitable"
|-
! Name of Construction !! Kit to Build !! Programmable Angle !! Immune to Storms !! Combined Power/Data Ports
|-
| Solar Panel (Flat) || Kit (Solar Panel Basic) || No || No || N/A
|-
| Solar Panel (Angled) || Kit (Solar Panel Basic) || No || No || N/A
|-
| Solar Panel || Kit (Solar Panel) || '''Yes''' || No || '''Yes'''
|-
| Solar Panel (Dual) || Kit (Solar Panel) || '''Yes'''|| No || No
|-
| Solar Panel (Heavy Flat) || Kit (Solar Panel Basic Heavy) || No || '''Yes'''|| N/A
|-
| Solar Panel (Heavy Angled) || Kit (Solar Panel Basic Heavy) || No || '''Yes'''|| N/A
|-
| Solar Panel (Heavy) || Kit (Solar Panel Heavy) || '''Yes'''|| '''Yes'''|| '''Yes'''
|-
| Solar Panel (Heavy Dual) || Kit (Solar Panel Heavy) || '''Yes'''|| '''Yes'''|| No
|-
|}

==Power Output==
{| class="wikitable"
|-
! [[World]] !! Solar Energy !! % of Earth !! Solar Angle
|-
| [[Worlds#Moon|Moon]] || 750W || 100% || 0°
|-
| [[Worlds#Mars|Mars]] || 550W || 51% || 8°
|-
| [[Worlds#Europa|Europa]] || 210W || 28% || 32°
|-
| [[Worlds#Mimas|Mimas]] || 90W || 12% || 126°
|-
| [[Worlds#Vulcan|Vulcan]] || 500W-1.2KW || 160% || 48°
|-
| [[Worlds#Venus|Venus]] || 1.15KW || 150% || 0°
|-
|}

==Usage==
===Positioning===

Pay close attention to the positioning of your solar panel since their automation will depend heavily on it. Any user-made scripts and guides will assume the solar panel is oriented with the [[Data Port|data port]] facing in a particular direction. Be sure to orient the panels with the [[Data Port|data port]] facing the same way as the guide you are following.

[[File:Solar panel yaw-Horizontal setting.png|400x300px|solar panel horizontal rotation]]

===Control===

Basic Solar panels can be manually positioned during construction to capture the most solar energy over the course of the day. On the [[Moon]] the best orientation is either a flat horizontal orientation or a 45° configuration facing East or West. On [[Mars]] the best Orientation is a 45° orientation facing south.

Solar panel can be manually pointed using the Wrench or automatically positioned by writing the desired position to [[Data Port|Data port]]. When setting up an automatic positioning system the orientation of the [[Data Port|Data port]] is a vary important factor for both the Daylight [[sensor]] and the Solar Panel.
Detailed information can be found in the [[Solar_Logic_Circuits_Guide|Solar Logic Circuits Guide]].

==Notes==
After placement be sure to install one [[Glass Sheets|Glass Sheet]] to make it functional.

See [[Sensors]] and [[Solar_Logic_Circuits_Guide|Solar Logic Circuits Guide]] for panel automation using logic [[circuits]].

{{Data Network Header}}

{{Data Parameters}}
{| class="wikitable"
|-
! Parameter Name !! Data Type !! Description
|-
| Horizontal || Degrees || Set the horizontal rotation of the Solar Panel (clockwise, 0-360°, [[Data Port|data port]] is at 270°)
|-
| Vertical || Degrees || Sets the vertical angle of the Solar Panel (As of at least version 0.2.3263.16264, solar panels accept input in degrees above the horizon instead of in percent, so the solar panels travel between inputs of 15 and 165, with 90 being straight up. Previously, this was supposedly a Percentage "accepting 0-100% which translates to 15°-165°, 50%=90° =zenith")
|-
| On || Boolean || Turns the solar panel on or off
|}

{{Data Outputs}}
{| class="wikitable"
|-
! Output Name !! Data Type !! Description
|-
| Charge || W || Returns the power generated in Watts
|-
| Horizontal || degrees || Returns the horizontal rotation of the Solar Panel
|-
| Vertical || % || Returns the vertical angle of the Solar Panel
|-
| Maximum || W || Maximum possible power for this planet
|-
| Ratio || || How close to maximum current performance is, 1.0 means panel is perfectly directed and unobstructed
|-
| On || Boolean || Returns the on/off state of the solar panel
|}

Solar Panel

2026-03-21T23:41:06Z

Starviking: /* Types of Solar Panel Kit */ add "comparison" headed to table

[[Category:Solar power]] [[Category:Power]]

[[Category:Machines]]
[[Category:Items]]
{{Itembox
| name = Kit (Solar Panel Basic)
| image = [[File:ItemKitSolarPanel.png]]
| createdwith = [[Electronics Printer]]
| cost = 10g [[Iron]], 2g [[Gold]], 10g [[Copper]]
| constructs = [[Solar Panel (Flat)]], [[Solar Panel (Angled)]]
| stacks = 5
| prefabhash = 844961456
| prefabname = ItemKitSolarPanelBasic
}}
{{Itembox
| name = Kit (Solar Panel)
| image = [[File:ItemKitSolarPanel.png]]
| createdwith = [[Electronics Printer]]
| cost = 5g [[Gold]], 20g [[Copper]], 15g [[Steel]]
| constructs = [[Solar Panel (Dual)]], [[Solar Panel]]
| stacks = 5
| prefabhash = -1924492105
| prefabname = ItemKitSolarPanel
}}
{{Itembox
| name = Kit (Solar Panel Basic Heavy)
| image = [[File:ItemKitSolarPanel.png]]
| createdwith = [[Electronics Printer]] (Tier Two)
| cost = 10g [[Copper]], 10g [[Steel]], 2g [[Electrum]], 10g [[Invar]]
| constructs = [[Solar Panel (Heavy Flat)]], [[Solar Panel (Heavy Angled)]]
| stacks = 5
| prefabhash = -528695432
| prefabname = x
}}
{{Itembox
| name = Kit (Solar Panel Heavy)
| image = [[File:ItemKitSolarPanel.png]]
| createdwith = [[Electronics Printer]] (Tier Two)
| cost = 20g [[Copper]], 10g [[Steel]], 5g [[Electrum]], 15g [[Astroloy]]
| constructs = [[Solar Panel (Heavy Dual)]], [[Solar Panel (Heavy)]]
| stacks = 5
| prefabhash = -364868685
| prefabname = x
}}
{{Structurebox
| name = Solar Panel
| power_usage = 0W to 500W generated
| placed_with_item = [[Kit (Solar Panel)]]
| placed_on_grid = Large Grid
| const_with_item1 = [[Glass Sheets|Glass Sheet]]
| decon_with_tool1 = [[Hand Drill]]
| item_rec1 = [[Kit (Solar Panel)]]
| decon_with_tool2 = [[Crowbar]]
| item_rec2 = [[Glass Sheets|Glass Sheet]]
| prefab_hash = -2045627372
| prefab_name = StructureSolarPanel
}}
{{Structurebox
| name = Solar Panel (Dual)
| power_usage = 0W to 500W generated
| placed_with_item = [[Kit (Solar Panel)]]
| placed_on_grid = Large Grid
| const_with_item1 = [[Glass Sheets|Glass Sheet]]
| decon_with_tool1 = [[Hand Drill]]
| item_rec1 = [[Kit (Solar Panel)]]
| decon_with_tool2 = [[Crowbar]]
| item_rec2 = [[Glass Sheets|Glass Sheet]]
| prefab_hash = -539224550
| prefab_name = StructureSolarPanelDual
}}

== Description ==
The '''Solar Panel''' generates [[power]] by absorbing sunlight, depending on solar intensity. Can be manually rotated using a [[Wrench]]. They can be built in two configurations: "dual" configuration with opposite side split power/data ports, or normal configuration with same side combined power/data ports.

Data ports can interact with [[Kit (Logic I/O)|Logic Chips]] or [[Integrated_Circuit_(IC10)|Integrated Circuits]] and [[Sensor#Daylight_Sensor|Daylight Sensors]] to automatically rotate the panel to face the sun.

At the extreme attitude settings (0/100) the solar panel still faces 15 degrees above the horizon. Thus the total arc of vertical rotation is only 150 degrees from input values 0-100.

Can also be destroyed by [[Storm|storms]], or left with very little health. Best course of action is to remove the solar panels when you are notified of a [[storm]] by a [[Weather Station]], Which allows you to replace them once the [[storm]] is over.

During [[Solar Storms]] Solar Panels output more [[energy]]. Due to this, unexpected cable burnings and power shortages can happen.

They can be repaired with [[Duct Tape]], or by dissembling them and reassembling them. You could even cover them with windows to protect them from [[Storm|storms]] at the cost of some efficiency of the panels themselves being lost. And Heavy Solar Panels are a more expensive version that do not take [[storm]] damage but it is debatable if its worth making the tier 2 metal [[Astroloy]] to prevent [[storm]] damage whilst retaining maximum efficiency.

== Types of Solar Panel Kit ==
<br>
=== Printed with the Electronics Printer (Tier One) ===
These are useful early on when resources are limited.
*'''Kit (Solar Panel Basic)''' don't have [[logic]] inputs so they can't be set up to automatically track the sun and spend most of their [[time]] at reduced power output. The position of Basic Solar Panel greatly effects the amount of energy the will collect.
*The position of '''Kit (Solar Panels)''' can be set manually using the [[Wrench|Wrench]]. In addition they have logic inputs and can be [[Solar Logic Circuits Guide|programmed to automatically track the sun]] for optimal power output.

=== Printed with the Electronics Printer (Tier Two) ===
Heavy Solar Panels are protected against [[Storm|storm]] damage, but more expensive. Note that not all [[planets]] have storms.

*'''Kit (Solar Panel Basic Heavy)''' are similar to Basic Solar Panels and do not have logic inputs.
*'''Kit (Solar Panel Heavy)''' are similar to Solar Panels and have logic inputs.
===Comparison===
{| class="wikitable"
|-
! Name of Construction !! Kit to Build !! Programmable Angle !! Immune to Storms !! Combined Power/Data Ports
|-
| Solar Panel (Flat) || Kit (Solar Panel Basic) || No || No || N/A
|-
| Solar Panel (Angled) || Kit (Solar Panel Basic) || No || No || N/A
|-
| Solar Panel || Kit (Solar Panel) || '''Yes''' || No || '''Yes'''
|-
| Solar Panel (Dual) || Kit (Solar Panel) || '''Yes'''|| No || No
|-
| Solar Panel (Heavy Flat) || Kit (Solar Panel Basic Heavy) || No || '''Yes'''|| N/A
|-
| Solar Panel (Heavy Angled) || Kit (Solar Panel Basic Heavy) || No || '''Yes'''|| N/A
|-
| Solar Panel (Heavy) || Kit (Solar Panel Heavy) || '''Yes'''|| '''Yes'''|| '''Yes'''
|-
| Solar Panel (Heavy Dual) || Kit (Solar Panel Heavy) || '''Yes'''|| '''Yes'''|| No
|-
|}

==Power Output==
{| class="wikitable"
|-
! [[World]] !! Solar Energy !! % of Earth !! Solar Angle
|-
| [[Worlds#Moon|Moon]] || 750W || 100% || 0°
|-
| [[Worlds#Mars|Mars]] || 550W || 51% || 8°
|-
| [[Worlds#Europa|Europa]] || 210W || 28% || 32°
|-
| [[Worlds#Mimas|Mimas]] || 90W || 12% || 126°
|-
| [[Worlds#Vulcan|Vulcan]] || 500W-1.2KW || 160% || 48°
|-
| [[Worlds#Venus|Venus]] || 1.15KW || 150% || 0°
|-
|}

==Usage==
===Positioning===

Pay close attention to the positioning of your solar panel since their automation will depend heavily on it. Any user-made scripts and guides will assume the solar panel is oriented with the [[Data Port|data port]] facing in a particular direction. Be sure to orient the panels with the [[Data Port|data port]] facing the same way as the guide you are following.

[[File:Solar panel yaw-Horizontal setting.png|400x300px|solar panel horizontal rotation]]

===Control===

Basic Solar panels can be manually positioned during construction to capture the most solar energy over the course of the day. On the [[Moon]] the best orientation is either a flat horizontal orientation or a 45° configuration facing East or West. On [[Mars]] the best Orientation is a 45° orientation facing south.

Solar panel can be manually pointed using the Wrench or automatically positioned by writing the desired position to [[Data Port|Data port]]. When setting up an automatic positioning system the orientation of the [[Data Port|Data port]] is a vary important factor for both the Daylight [[sensor]] and the Solar Panel.
Detailed information can be found in the [[Solar_Logic_Circuits_Guide|Solar Logic Circuits Guide]].

==Notes==
After placement be sure to install one [[Glass Sheets|Glass Sheet]] to make it functional.

See [[Sensors]] and [[Solar_Logic_Circuits_Guide|Solar Logic Circuits Guide]] for panel automation using logic [[circuits]].

{{Data Network Header}}

{{Data Parameters}}
{| class="wikitable"
|-
! Parameter Name !! Data Type !! Description
|-
| Horizontal || Degrees || Set the horizontal rotation of the Solar Panel (clockwise, 0-360°, [[Data Port|data port]] is at 270°)
|-
| Vertical || Degrees || Sets the vertical angle of the Solar Panel (As of at least version 0.2.3263.16264, solar panels accept input in degrees above the horizon instead of in percent, so the solar panels travel between inputs of 15 and 165, with 90 being straight up. Previously, this was supposedly a Percentage "accepting 0-100% which translates to 15°-165°, 50%=90° =zenith")
|-
| On || Boolean || Turns the solar panel on or off
|}

{{Data Outputs}}
{| class="wikitable"
|-
! Output Name !! Data Type !! Description
|-
| Charge || W || Returns the power generated in Watts
|-
| Horizontal || degrees || Returns the horizontal rotation of the Solar Panel
|-
| Vertical || % || Returns the vertical angle of the Solar Panel
|-
| Maximum || W || Maximum possible power for this planet
|-
| Ratio || || How close to maximum current performance is, 1.0 means panel is perfectly directed and unobstructed
|-
| On || Boolean || Returns the on/off state of the solar panel
|}

Solar Panel

2026-03-21T23:40:02Z

Starviking: /* Types of Solar Panel Kit */

[[Category:Solar power]] [[Category:Power]]

[[Category:Machines]]
[[Category:Items]]
{{Itembox
| name = Kit (Solar Panel Basic)
| image = [[File:ItemKitSolarPanel.png]]
| createdwith = [[Electronics Printer]]
| cost = 10g [[Iron]], 2g [[Gold]], 10g [[Copper]]
| constructs = [[Solar Panel (Flat)]], [[Solar Panel (Angled)]]
| stacks = 5
| prefabhash = 844961456
| prefabname = ItemKitSolarPanelBasic
}}
{{Itembox
| name = Kit (Solar Panel)
| image = [[File:ItemKitSolarPanel.png]]
| createdwith = [[Electronics Printer]]
| cost = 5g [[Gold]], 20g [[Copper]], 15g [[Steel]]
| constructs = [[Solar Panel (Dual)]], [[Solar Panel]]
| stacks = 5
| prefabhash = -1924492105
| prefabname = ItemKitSolarPanel
}}
{{Itembox
| name = Kit (Solar Panel Basic Heavy)
| image = [[File:ItemKitSolarPanel.png]]
| createdwith = [[Electronics Printer]] (Tier Two)
| cost = 10g [[Copper]], 10g [[Steel]], 2g [[Electrum]], 10g [[Invar]]
| constructs = [[Solar Panel (Heavy Flat)]], [[Solar Panel (Heavy Angled)]]
| stacks = 5
| prefabhash = -528695432
| prefabname = x
}}
{{Itembox
| name = Kit (Solar Panel Heavy)
| image = [[File:ItemKitSolarPanel.png]]
| createdwith = [[Electronics Printer]] (Tier Two)
| cost = 20g [[Copper]], 10g [[Steel]], 5g [[Electrum]], 15g [[Astroloy]]
| constructs = [[Solar Panel (Heavy Dual)]], [[Solar Panel (Heavy)]]
| stacks = 5
| prefabhash = -364868685
| prefabname = x
}}
{{Structurebox
| name = Solar Panel
| power_usage = 0W to 500W generated
| placed_with_item = [[Kit (Solar Panel)]]
| placed_on_grid = Large Grid
| const_with_item1 = [[Glass Sheets|Glass Sheet]]
| decon_with_tool1 = [[Hand Drill]]
| item_rec1 = [[Kit (Solar Panel)]]
| decon_with_tool2 = [[Crowbar]]
| item_rec2 = [[Glass Sheets|Glass Sheet]]
| prefab_hash = -2045627372
| prefab_name = StructureSolarPanel
}}
{{Structurebox
| name = Solar Panel (Dual)
| power_usage = 0W to 500W generated
| placed_with_item = [[Kit (Solar Panel)]]
| placed_on_grid = Large Grid
| const_with_item1 = [[Glass Sheets|Glass Sheet]]
| decon_with_tool1 = [[Hand Drill]]
| item_rec1 = [[Kit (Solar Panel)]]
| decon_with_tool2 = [[Crowbar]]
| item_rec2 = [[Glass Sheets|Glass Sheet]]
| prefab_hash = -539224550
| prefab_name = StructureSolarPanelDual
}}

== Description ==
The '''Solar Panel''' generates [[power]] by absorbing sunlight, depending on solar intensity. Can be manually rotated using a [[Wrench]]. They can be built in two configurations: "dual" configuration with opposite side split power/data ports, or normal configuration with same side combined power/data ports.

Data ports can interact with [[Kit (Logic I/O)|Logic Chips]] or [[Integrated_Circuit_(IC10)|Integrated Circuits]] and [[Sensor#Daylight_Sensor|Daylight Sensors]] to automatically rotate the panel to face the sun.

At the extreme attitude settings (0/100) the solar panel still faces 15 degrees above the horizon. Thus the total arc of vertical rotation is only 150 degrees from input values 0-100.

Can also be destroyed by [[Storm|storms]], or left with very little health. Best course of action is to remove the solar panels when you are notified of a [[storm]] by a [[Weather Station]], Which allows you to replace them once the [[storm]] is over.

During [[Solar Storms]] Solar Panels output more [[energy]]. Due to this, unexpected cable burnings and power shortages can happen.

They can be repaired with [[Duct Tape]], or by dissembling them and reassembling them. You could even cover them with windows to protect them from [[Storm|storms]] at the cost of some efficiency of the panels themselves being lost. And Heavy Solar Panels are a more expensive version that do not take [[storm]] damage but it is debatable if its worth making the tier 2 metal [[Astroloy]] to prevent [[storm]] damage whilst retaining maximum efficiency.

== Types of Solar Panel Kit ==
<br>
=== Printed with the Electronics Printer (Tier One) ===
These are useful early on when resources are limited.
*'''Kit (Solar Panel Basic)''' don't have [[logic]] inputs so they can't be set up to automatically track the sun and spend most of their [[time]] at reduced power output. The position of Basic Solar Panel greatly effects the amount of energy the will collect.
*The position of '''Kit (Solar Panels)''' can be set manually using the [[Wrench|Wrench]]. In addition they have logic inputs and can be [[Solar Logic Circuits Guide|programmed to automatically track the sun]] for optimal power output.

=== Printed with the Electronics Printer (Tier Two) ===
Heavy Solar Panels are protected against [[Storm|storm]] damage, but more expensive. Note that not all [[planets]] have storms.

*'''Kit (Solar Panel Basic Heavy)''' are similar to Basic Solar Panels and do not have logic inputs.
*'''Kit (Solar Panel Heavy)''' are similar to Solar Panels and have logic inputs.

{| class="wikitable"
|-
! Name of Construction !! Kit to Build !! Programmable Angle !! Immune to Storms !! Combined Power/Data Ports
|-
| Solar Panel (Flat) || Kit (Solar Panel Basic) || No || No || N/A
|-
| Solar Panel (Angled) || Kit (Solar Panel Basic) || No || No || N/A
|-
| Solar Panel || Kit (Solar Panel) || '''Yes''' || No || '''Yes'''
|-
| Solar Panel (Dual) || Kit (Solar Panel) || '''Yes'''|| No || No
|-
| Solar Panel (Heavy Flat) || Kit (Solar Panel Basic Heavy) || No || '''Yes'''|| N/A
|-
| Solar Panel (Heavy Angled) || Kit (Solar Panel Basic Heavy) || No || '''Yes'''|| N/A
|-
| Solar Panel (Heavy) || Kit (Solar Panel Heavy) || '''Yes'''|| '''Yes'''|| '''Yes'''
|-
| Solar Panel (Heavy Dual) || Kit (Solar Panel Heavy) || '''Yes'''|| '''Yes'''|| No
|-
|}

==Power Output==
{| class="wikitable"
|-
! [[World]] !! Solar Energy !! % of Earth !! Solar Angle
|-
| [[Worlds#Moon|Moon]] || 750W || 100% || 0°
|-
| [[Worlds#Mars|Mars]] || 550W || 51% || 8°
|-
| [[Worlds#Europa|Europa]] || 210W || 28% || 32°
|-
| [[Worlds#Mimas|Mimas]] || 90W || 12% || 126°
|-
| [[Worlds#Vulcan|Vulcan]] || 500W-1.2KW || 160% || 48°
|-
| [[Worlds#Venus|Venus]] || 1.15KW || 150% || 0°
|-
|}

==Usage==
===Positioning===

Pay close attention to the positioning of your solar panel since their automation will depend heavily on it. Any user-made scripts and guides will assume the solar panel is oriented with the [[Data Port|data port]] facing in a particular direction. Be sure to orient the panels with the [[Data Port|data port]] facing the same way as the guide you are following.

[[File:Solar panel yaw-Horizontal setting.png|400x300px|solar panel horizontal rotation]]

===Control===

Basic Solar panels can be manually positioned during construction to capture the most solar energy over the course of the day. On the [[Moon]] the best orientation is either a flat horizontal orientation or a 45° configuration facing East or West. On [[Mars]] the best Orientation is a 45° orientation facing south.

Solar panel can be manually pointed using the Wrench or automatically positioned by writing the desired position to [[Data Port|Data port]]. When setting up an automatic positioning system the orientation of the Data port is a vary important factor for both the Daylight [[sensor]] and the Solar Panel.
Detailed information can be found in the [[Solar_Logic_Circuits_Guide|Solar Logic Circuits Guide]].

==Notes==
After placement be sure to install one [[Glass Sheets|Glass Sheet]] to make it functional.

See [[Sensors]] and [[Solar_Logic_Circuits_Guide|Solar Logic Circuits Guide]] for panel automation using logic [[circuits]].

{{Data Network Header}}

{{Data Parameters}}
{| class="wikitable"
|-
! Parameter Name !! Data Type !! Description
|-
| Horizontal || Degrees || Set the horizontal rotation of the Solar Panel (clockwise, 0-360°, [[Data Port|data port]] is at 270°)
|-
| Vertical || Degrees || Sets the vertical angle of the Solar Panel (As of at least version 0.2.3263.16264, solar panels accept input in degrees above the horizon instead of in percent, so the solar panels travel between inputs of 15 and 165, with 90 being straight up. Previously, this was supposedly a Percentage "accepting 0-100% which translates to 15°-165°, 50%=90° =zenith")
|-
| On || Boolean || Turns the solar panel on or off
|}

{{Data Outputs}}
{| class="wikitable"
|-
! Output Name !! Data Type !! Description
|-
| Charge || W || Returns the power generated in Watts
|-
| Horizontal || degrees || Returns the horizontal rotation of the Solar Panel
|-
| Vertical || % || Returns the vertical angle of the Solar Panel
|-
| Maximum || W || Maximum possible power for this planet
|-
| Ratio || || How close to maximum current performance is, 1.0 means panel is perfectly directed and unobstructed
|-
| On || Boolean || Returns the on/off state of the solar panel
|}

Solar Panel

2026-03-21T23:39:29Z

Starviking: /* Types of Solar Panel Kit */

[[Category:Solar power]] [[Category:Power]]

[[Category:Machines]]
[[Category:Items]]
{{Itembox
| name = Kit (Solar Panel Basic)
| image = [[File:ItemKitSolarPanel.png]]
| createdwith = [[Electronics Printer]]
| cost = 10g [[Iron]], 2g [[Gold]], 10g [[Copper]]
| constructs = [[Solar Panel (Flat)]], [[Solar Panel (Angled)]]
| stacks = 5
| prefabhash = 844961456
| prefabname = ItemKitSolarPanelBasic
}}
{{Itembox
| name = Kit (Solar Panel)
| image = [[File:ItemKitSolarPanel.png]]
| createdwith = [[Electronics Printer]]
| cost = 5g [[Gold]], 20g [[Copper]], 15g [[Steel]]
| constructs = [[Solar Panel (Dual)]], [[Solar Panel]]
| stacks = 5
| prefabhash = -1924492105
| prefabname = ItemKitSolarPanel
}}
{{Itembox
| name = Kit (Solar Panel Basic Heavy)
| image = [[File:ItemKitSolarPanel.png]]
| createdwith = [[Electronics Printer]] (Tier Two)
| cost = 10g [[Copper]], 10g [[Steel]], 2g [[Electrum]], 10g [[Invar]]
| constructs = [[Solar Panel (Heavy Flat)]], [[Solar Panel (Heavy Angled)]]
| stacks = 5
| prefabhash = -528695432
| prefabname = x
}}
{{Itembox
| name = Kit (Solar Panel Heavy)
| image = [[File:ItemKitSolarPanel.png]]
| createdwith = [[Electronics Printer]] (Tier Two)
| cost = 20g [[Copper]], 10g [[Steel]], 5g [[Electrum]], 15g [[Astroloy]]
| constructs = [[Solar Panel (Heavy Dual)]], [[Solar Panel (Heavy)]]
| stacks = 5
| prefabhash = -364868685
| prefabname = x
}}
{{Structurebox
| name = Solar Panel
| power_usage = 0W to 500W generated
| placed_with_item = [[Kit (Solar Panel)]]
| placed_on_grid = Large Grid
| const_with_item1 = [[Glass Sheets|Glass Sheet]]
| decon_with_tool1 = [[Hand Drill]]
| item_rec1 = [[Kit (Solar Panel)]]
| decon_with_tool2 = [[Crowbar]]
| item_rec2 = [[Glass Sheets|Glass Sheet]]
| prefab_hash = -2045627372
| prefab_name = StructureSolarPanel
}}
{{Structurebox
| name = Solar Panel (Dual)
| power_usage = 0W to 500W generated
| placed_with_item = [[Kit (Solar Panel)]]
| placed_on_grid = Large Grid
| const_with_item1 = [[Glass Sheets|Glass Sheet]]
| decon_with_tool1 = [[Hand Drill]]
| item_rec1 = [[Kit (Solar Panel)]]
| decon_with_tool2 = [[Crowbar]]
| item_rec2 = [[Glass Sheets|Glass Sheet]]
| prefab_hash = -539224550
| prefab_name = StructureSolarPanelDual
}}

== Description ==
The '''Solar Panel''' generates [[power]] by absorbing sunlight, depending on solar intensity. Can be manually rotated using a [[Wrench]]. They can be built in two configurations: "dual" configuration with opposite side split power/data ports, or normal configuration with same side combined power/data ports.

Data ports can interact with [[Kit (Logic I/O)|Logic Chips]] or [[Integrated_Circuit_(IC10)|Integrated Circuits]] and [[Sensor#Daylight_Sensor|Daylight Sensors]] to automatically rotate the panel to face the sun.

At the extreme attitude settings (0/100) the solar panel still faces 15 degrees above the horizon. Thus the total arc of vertical rotation is only 150 degrees from input values 0-100.

Can also be destroyed by [[Storm|storms]], or left with very little health. Best course of action is to remove the solar panels when you are notified of a [[storm]] by a [[Weather Station]], Which allows you to replace them once the [[storm]] is over.

During [[Solar Storms]] Solar Panels output more [[energy]]. Due to this, unexpected cable burnings and power shortages can happen.

They can be repaired with [[Duct Tape]], or by dissembling them and reassembling them. You could even cover them with windows to protect them from [[Storm|storms]] at the cost of some efficiency of the panels themselves being lost. And Heavy Solar Panels are a more expensive version that do not take [[storm]] damage but it is debatable if its worth making the tier 2 metal [[Astroloy]] to prevent [[storm]] damage whilst retaining maximum efficiency.

== Types of Solar Panel Kit ==
<br>
=== Printed with the Electronics Printer (Tier One) ===
These are useful early on when resources are limited.
*'''Kit (Solar Panel Basic)''' don't have [[logic]] inputs so they can't be set up to automatically track the sun and spend most of their [[time]] at reduced power output. The position of Basic Solar Panel greatly effects the amount of energy the will collect.
*The position of '''Kit (Solar Panels)''' can be set manually using the [[Wrench|Wrench]]. In addition they have logic inputs and can be [[Solar Logic Circuits Guide|programmed to automatically track the sun]] for optimal power output.

=== Printed with the Electronics Printer (Tier Two) ===
Heavy Solar Panels are protected against [[Storm|storm]] damage, but more expensive. Note that not all [[planets]] have storms.

*'''Kit (Solar Panel Basic Heavy)''' are similar to Basic Solar Panels and do not have logic inputs.
*'''Kit (Solar Panel Heavy)''' are similar to Solar Panels and have logic inputs.
===Comparison===

{| class="wikitable"
|-
! Name of Construction !! Kit to Build !! Programmable Angle !! Immune to Storms !! Combined Power/Data Ports
|-
| Solar Panel (Flat) || Kit (Solar Panel Basic) || No || No || N/A
|-
| Solar Panel (Angled) || Kit (Solar Panel Basic) || No || No || N/A
|-
| Solar Panel || Kit (Solar Panel) || '''Yes''' || No || '''Yes'''
|-
| Solar Panel (Dual) || Kit (Solar Panel) || '''Yes'''|| No || No
|-
| Solar Panel (Heavy Flat) || Kit (Solar Panel Basic Heavy) || No || '''Yes'''|| N/A
|-
| Solar Panel (Heavy Angled) || Kit (Solar Panel Basic Heavy) || No || '''Yes'''|| N/A
|-
| Solar Panel (Heavy) || Kit (Solar Panel Heavy) || '''Yes'''|| '''Yes'''|| '''Yes'''
|-
| Solar Panel (Heavy Dual) || Kit (Solar Panel Heavy) || '''Yes'''|| '''Yes'''|| No
|-
|}

==Power Output==
{| class="wikitable"
|-
! [[World]] !! Solar Energy !! % of Earth !! Solar Angle
|-
| [[Worlds#Moon|Moon]] || 750W || 100% || 0°
|-
| [[Worlds#Mars|Mars]] || 550W || 51% || 8°
|-
| [[Worlds#Europa|Europa]] || 210W || 28% || 32°
|-
| [[Worlds#Mimas|Mimas]] || 90W || 12% || 126°
|-
| [[Worlds#Vulcan|Vulcan]] || 500W-1.2KW || 160% || 48°
|-
| [[Worlds#Venus|Venus]] || 1.15KW || 150% || 0°
|-
|}

==Usage==
===Positioning===

Pay close attention to the positioning of your solar panel since their automation will depend heavily on it. Any user-made scripts and guides will assume the solar panel is oriented with the [[Data Port|data port]] facing in a particular direction. Be sure to orient the panels with the [[Data Port|data port]] facing the same way as the guide you are following.

[[File:Solar panel yaw-Horizontal setting.png|400x300px|solar panel horizontal rotation]]

===Control===

Basic Solar panels can be manually positioned during construction to capture the most solar energy over the course of the day. On the [[Moon]] the best orientation is either a flat horizontal orientation or a 45° configuration facing East or West. On [[Mars]] the best Orientation is a 45° orientation facing south.

Solar panel can be manually pointed using the Wrench or automatically positioned by writing the desired position to [[Data Port|Data port]]. When setting up an automatic positioning system the orientation of the Data port is a vary important factor for both the Daylight [[sensor]] and the Solar Panel.
Detailed information can be found in the [[Solar_Logic_Circuits_Guide|Solar Logic Circuits Guide]].

==Notes==
After placement be sure to install one [[Glass Sheets|Glass Sheet]] to make it functional.

See [[Sensors]] and [[Solar_Logic_Circuits_Guide|Solar Logic Circuits Guide]] for panel automation using logic [[circuits]].

{{Data Network Header}}

{{Data Parameters}}
{| class="wikitable"
|-
! Parameter Name !! Data Type !! Description
|-
| Horizontal || Degrees || Set the horizontal rotation of the Solar Panel (clockwise, 0-360°, [[Data Port|data port]] is at 270°)
|-
| Vertical || Degrees || Sets the vertical angle of the Solar Panel (As of at least version 0.2.3263.16264, solar panels accept input in degrees above the horizon instead of in percent, so the solar panels travel between inputs of 15 and 165, with 90 being straight up. Previously, this was supposedly a Percentage "accepting 0-100% which translates to 15°-165°, 50%=90° =zenith")
|-
| On || Boolean || Turns the solar panel on or off
|}

{{Data Outputs}}
{| class="wikitable"
|-
! Output Name !! Data Type !! Description
|-
| Charge || W || Returns the power generated in Watts
|-
| Horizontal || degrees || Returns the horizontal rotation of the Solar Panel
|-
| Vertical || % || Returns the vertical angle of the Solar Panel
|-
| Maximum || W || Maximum possible power for this planet
|-
| Ratio || || How close to maximum current performance is, 1.0 means panel is perfectly directed and unobstructed
|-
| On || Boolean || Returns the on/off state of the solar panel
|}

Solar Panel

2026-03-21T23:36:54Z

Starviking:

[[Category:Solar power]] [[Category:Power]]

[[Category:Machines]]
[[Category:Items]]
{{Itembox
| name = Kit (Solar Panel Basic)
| image = [[File:ItemKitSolarPanel.png]]
| createdwith = [[Electronics Printer]]
| cost = 10g [[Iron]], 2g [[Gold]], 10g [[Copper]]
| constructs = [[Solar Panel (Flat)]], [[Solar Panel (Angled)]]
| stacks = 5
| prefabhash = 844961456
| prefabname = ItemKitSolarPanelBasic
}}
{{Itembox
| name = Kit (Solar Panel)
| image = [[File:ItemKitSolarPanel.png]]
| createdwith = [[Electronics Printer]]
| cost = 5g [[Gold]], 20g [[Copper]], 15g [[Steel]]
| constructs = [[Solar Panel (Dual)]], [[Solar Panel]]
| stacks = 5
| prefabhash = -1924492105
| prefabname = ItemKitSolarPanel
}}
{{Itembox
| name = Kit (Solar Panel Basic Heavy)
| image = [[File:ItemKitSolarPanel.png]]
| createdwith = [[Electronics Printer]] (Tier Two)
| cost = 10g [[Copper]], 10g [[Steel]], 2g [[Electrum]], 10g [[Invar]]
| constructs = [[Solar Panel (Heavy Flat)]], [[Solar Panel (Heavy Angled)]]
| stacks = 5
| prefabhash = -528695432
| prefabname = x
}}
{{Itembox
| name = Kit (Solar Panel Heavy)
| image = [[File:ItemKitSolarPanel.png]]
| createdwith = [[Electronics Printer]] (Tier Two)
| cost = 20g [[Copper]], 10g [[Steel]], 5g [[Electrum]], 15g [[Astroloy]]
| constructs = [[Solar Panel (Heavy Dual)]], [[Solar Panel (Heavy)]]
| stacks = 5
| prefabhash = -364868685
| prefabname = x
}}
{{Structurebox
| name = Solar Panel
| power_usage = 0W to 500W generated
| placed_with_item = [[Kit (Solar Panel)]]
| placed_on_grid = Large Grid
| const_with_item1 = [[Glass Sheets|Glass Sheet]]
| decon_with_tool1 = [[Hand Drill]]
| item_rec1 = [[Kit (Solar Panel)]]
| decon_with_tool2 = [[Crowbar]]
| item_rec2 = [[Glass Sheets|Glass Sheet]]
| prefab_hash = -2045627372
| prefab_name = StructureSolarPanel
}}
{{Structurebox
| name = Solar Panel (Dual)
| power_usage = 0W to 500W generated
| placed_with_item = [[Kit (Solar Panel)]]
| placed_on_grid = Large Grid
| const_with_item1 = [[Glass Sheets|Glass Sheet]]
| decon_with_tool1 = [[Hand Drill]]
| item_rec1 = [[Kit (Solar Panel)]]
| decon_with_tool2 = [[Crowbar]]
| item_rec2 = [[Glass Sheets|Glass Sheet]]
| prefab_hash = -539224550
| prefab_name = StructureSolarPanelDual
}}

== Description ==
The '''Solar Panel''' generates [[power]] by absorbing sunlight, depending on solar intensity. Can be manually rotated using a [[Wrench]]. They can be built in two configurations: "dual" configuration with opposite side split power/data ports, or normal configuration with same side combined power/data ports.

Data ports can interact with [[Kit (Logic I/O)|Logic Chips]] or [[Integrated_Circuit_(IC10)|Integrated Circuits]] and [[Sensor#Daylight_Sensor|Daylight Sensors]] to automatically rotate the panel to face the sun.

At the extreme attitude settings (0/100) the solar panel still faces 15 degrees above the horizon. Thus the total arc of vertical rotation is only 150 degrees from input values 0-100.

Can also be destroyed by [[Storm|storms]], or left with very little health. Best course of action is to remove the solar panels when you are notified of a [[storm]] by a [[Weather Station]], Which allows you to replace them once the [[storm]] is over.

During [[Solar Storms]] Solar Panels output more [[energy]]. Due to this, unexpected cable burnings and power shortages can happen.

They can be repaired with [[Duct Tape]], or by dissembling them and reassembling them. You could even cover them with windows to protect them from [[Storm|storms]] at the cost of some efficiency of the panels themselves being lost. And Heavy Solar Panels are a more expensive version that do not take [[storm]] damage but it is debatable if its worth making the tier 2 metal [[Astroloy]] to prevent [[storm]] damage whilst retaining maximum efficiency.

== Types of Solar Panel Kit ==
<br>
=== Printed with the Electronics Printer (Tier One) ===
These are useful early on when resources are limited.
*'''Kit (Solar Panel Basic)''' don't have [[logic]] inputs so they can't be set up to automatically track the sun and spend most of their [[time]] at reduced power output. The position of Basic Solar Panel greatly effects the amount of energy the will collect.
*The position of '''Kit (Solar Panels)''' can be set manually using the [[Wrench|Wrench]]. In addition they have logic inputs and can be [[Solar Logic Circuits Guide|programmed to automatically track the sun]] for optimal power output.

=== Printed with the Electronics Printer (Tier Two) ===
Heavy Solar Panels are protected against [[Storm|storm]] damage, but more expensive. Note that not all [[planets]] have storms.

*'''Kit (Solar Panel Basic Heavy)''' are similar to Basic Solar Panels and do not have logic inputs.
*'''Kit (Solar Panel Heavy)''' are similar to Solar Panels and have logic inputs.

{| class="wikitable"
|-
! Name of Construction !! Kit to Build !! Programmable Angle !! Immune to Storms !! Combined Power/Data Ports
|-
| Solar Panel (Flat) || Kit (Solar Panel Basic) || No || No || N/A
|-
| Solar Panel (Angled) || Kit (Solar Panel Basic) || No || No || N/A
|-
| Solar Panel || Kit (Solar Panel) || '''Yes''' || No || '''Yes'''
|-
| Solar Panel (Dual) || Kit (Solar Panel) || '''Yes'''|| No || No
|-
| Solar Panel (Heavy Flat) || Kit (Solar Panel Basic Heavy) || No || '''Yes'''|| N/A
|-
| Solar Panel (Heavy Angled) || Kit (Solar Panel Basic Heavy) || No || '''Yes'''|| N/A
|-
| Solar Panel (Heavy) || Kit (Solar Panel Heavy) || '''Yes'''|| '''Yes'''|| '''Yes'''
|-
| Solar Panel (Heavy Dual) || Kit (Solar Panel Heavy) || '''Yes'''|| '''Yes'''|| No
|-
|}

==Power Output==
{| class="wikitable"
|-
! [[World]] !! Solar Energy !! % of Earth !! Solar Angle
|-
| [[Worlds#Moon|Moon]] || 750W || 100% || 0°
|-
| [[Worlds#Mars|Mars]] || 550W || 51% || 8°
|-
| [[Worlds#Europa|Europa]] || 210W || 28% || 32°
|-
| [[Worlds#Mimas|Mimas]] || 90W || 12% || 126°
|-
| [[Worlds#Vulcan|Vulcan]] || 500W-1.2KW || 160% || 48°
|-
| [[Worlds#Venus|Venus]] || 1.15KW || 150% || 0°
|-
|}

==Usage==
===Positioning===

Pay close attention to the positioning of your solar panel since their automation will depend heavily on it. Any user-made scripts and guides will assume the solar panel is oriented with the [[Data Port|data port]] facing in a particular direction. Be sure to orient the panels with the [[Data Port|data port]] facing the same way as the guide you are following.

[[File:Solar panel yaw-Horizontal setting.png|400x300px|solar panel horizontal rotation]]

===Control===

Basic Solar panels can be manually positioned during construction to capture the most solar energy over the course of the day. On the [[Moon]] the best orientation is either a flat horizontal orientation or a 45° configuration facing East or West. On [[Mars]] the best Orientation is a 45° orientation facing south.

Solar panel can be manually pointed using the Wrench or automatically positioned by writing the desired position to [[Data Port|Data port]]. When setting up an automatic positioning system the orientation of the Data port is a vary important factor for both the Daylight [[sensor]] and the Solar Panel.
Detailed information can be found in the [[Solar_Logic_Circuits_Guide|Solar Logic Circuits Guide]].

==Notes==
After placement be sure to install one [[Glass Sheets|Glass Sheet]] to make it functional.

See [[Sensors]] and [[Solar_Logic_Circuits_Guide|Solar Logic Circuits Guide]] for panel automation using logic [[circuits]].

{{Data Network Header}}

{{Data Parameters}}
{| class="wikitable"
|-
! Parameter Name !! Data Type !! Description
|-
| Horizontal || Degrees || Set the horizontal rotation of the Solar Panel (clockwise, 0-360°, [[Data Port|data port]] is at 270°)
|-
| Vertical || Degrees || Sets the vertical angle of the Solar Panel (As of at least version 0.2.3263.16264, solar panels accept input in degrees above the horizon instead of in percent, so the solar panels travel between inputs of 15 and 165, with 90 being straight up. Previously, this was supposedly a Percentage "accepting 0-100% which translates to 15°-165°, 50%=90° =zenith")
|-
| On || Boolean || Turns the solar panel on or off
|}

{{Data Outputs}}
{| class="wikitable"
|-
! Output Name !! Data Type !! Description
|-
| Charge || W || Returns the power generated in Watts
|-
| Horizontal || degrees || Returns the horizontal rotation of the Solar Panel
|-
| Vertical || % || Returns the vertical angle of the Solar Panel
|-
| Maximum || W || Maximum possible power for this planet
|-
| Ratio || || How close to maximum current performance is, 1.0 means panel is perfectly directed and unobstructed
|-
| On || Boolean || Returns the on/off state of the solar panel
|}

Solar Panel

2026-03-21T23:32:52Z

Starviking: /* Power output of a single Solar Panel on different planets */

[[Category:Solar power]] [[Category:Power]]

[[Category:Machines]]
[[Category:Items]]
{{Itembox
| name = Kit (Solar Panel Basic)
| image = [[File:ItemKitSolarPanel.png]]
| createdwith = [[Electronics Printer]]
| cost = 10g [[Iron]], 2g [[Gold]], 10g [[Copper]]
| constructs = [[Solar Panel (Flat)]], [[Solar Panel (Angled)]]
| stacks = 5
| prefabhash = 844961456
| prefabname = ItemKitSolarPanelBasic
}}
{{Itembox
| name = Kit (Solar Panel)
| image = [[File:ItemKitSolarPanel.png]]
| createdwith = [[Electronics Printer]]
| cost = 5g [[Gold]], 20g [[Copper]], 15g [[Steel]]
| constructs = [[Solar Panel (Dual)]], [[Solar Panel]]
| stacks = 5
| prefabhash = -1924492105
| prefabname = ItemKitSolarPanel
}}
{{Itembox
| name = Kit (Solar Panel Basic Heavy)
| image = [[File:ItemKitSolarPanel.png]]
| createdwith = [[Electronics Printer]] (Tier Two)
| cost = 10g [[Copper]], 10g [[Steel]], 2g [[Electrum]], 10g [[Invar]]
| constructs = [[Solar Panel (Heavy Flat)]], [[Solar Panel (Heavy Angled)]]
| stacks = 5
| prefabhash = -528695432
| prefabname = x
}}
{{Itembox
| name = Kit (Solar Panel Heavy)
| image = [[File:ItemKitSolarPanel.png]]
| createdwith = [[Electronics Printer]] (Tier Two)
| cost = 20g [[Copper]], 10g [[Steel]], 5g [[Electrum]], 15g [[Astroloy]]
| constructs = [[Solar Panel (Heavy Dual)]], [[Solar Panel (Heavy)]]
| stacks = 5
| prefabhash = -364868685
| prefabname = x
}}
{{Structurebox
| name = Solar Panel
| power_usage = 0W to 500W generated
| placed_with_item = [[Kit (Solar Panel)]]
| placed_on_grid = Large Grid
| const_with_item1 = [[Glass Sheets|Glass Sheet]]
| decon_with_tool1 = [[Hand Drill]]
| item_rec1 = [[Kit (Solar Panel)]]
| decon_with_tool2 = [[Crowbar]]
| item_rec2 = [[Glass Sheets|Glass Sheet]]
| prefab_hash = -2045627372
| prefab_name = StructureSolarPanel
}}
{{Structurebox
| name = Solar Panel (Dual)
| power_usage = 0W to 500W generated
| placed_with_item = [[Kit (Solar Panel)]]
| placed_on_grid = Large Grid
| const_with_item1 = [[Glass Sheets|Glass Sheet]]
| decon_with_tool1 = [[Hand Drill]]
| item_rec1 = [[Kit (Solar Panel)]]
| decon_with_tool2 = [[Crowbar]]
| item_rec2 = [[Glass Sheets|Glass Sheet]]
| prefab_hash = -539224550
| prefab_name = StructureSolarPanelDual
}}

== Description ==
The '''Solar Panel''' generates [[power]] by absorbing sunlight, depending on solar intensity. Can be manually rotated using a [[Wrench]]. They can be built in two configurations: "dual" configuration with opposite side split power/data ports, or normal configuration with same side combined power/data ports.

Data ports can interact with [[Kit (Logic I/O)|Logic Chips]] or [[Integrated_Circuit_(IC10)|Integrated Circuits]] and [[Sensor#Daylight_Sensor|Daylight Sensors]] to automatically rotate the panel to face the sun.

At the extreme attitude settings (0/100) the solar panel still faces 15 degrees above the horizon. Thus the total arc of vertical rotation is only 150 degrees from input values 0-100.

Can also be destroyed by [[Storm|storms]], or left with very little health. Best course of action is to remove the solar panels when you are notified of a [[storm]] by a [[Weather Station]], Which allows you to replace them once the [[storm]] is over.

During [[Solar Storms]] Solar Panels output more [[energy]]. Due to this, unexpected cable burnings and power shortages can happen.

They can be repaired with [[Duct Tape]], or by dissembling them and reassembling them. You could even cover them with windows to protect them from [[Storm|storms]] at the cost of some efficiency of the panels themselves being lost. And Heavy Solar Panels are a more expensive version that do not take [[storm]] damage but it is debatable if its worth making the tier 2 metal [[Astroloy]] to prevent [[storm]] damage whilst retaining maximum efficiency.

== Types of Solar Panel Kit ==
=== Printed with the Electronics Printer (Tier One) ===
These are useful early on when resources are limited.
*'''Kit (Solar Panel Basic)''' don't have [[logic]] inputs so they can't be set up to automatically track the sun and spend most of their [[time]] at reduced power output. The position of Basic Solar Panel greatly effects the amount of energy the will collect.
*The position of '''Kit (Solar Panels)''' can be set manually using the [[Wrench|Wrench]]. In addition they have logic inputs and can be [[Solar Logic Circuits Guide|programmed to automatically track the sun]] for optimal power output.

=== Printed with the Electronics Printer (Tier Two) ===
Heavy Solar Panels are protected against [[Storm|storm]] damage, but more expensive. Note that not all [[planets]] have storms.

*'''Kit (Solar Panel Basic Heavy)''' are similar to Basic Solar Panels and do not have logic inputs.
*'''Kit (Solar Panel Heavy)''' are similar to Solar Panels and have logic inputs.

{| class="wikitable"
|-
! Name of Construction !! Kit to Build !! Programmable Angle !! Immune to Storms !! Combined Power/Data Ports
|-
| Solar Panel (Flat) || Kit (Solar Panel Basic) || No || No || N/A
|-
| Solar Panel (Angled) || Kit (Solar Panel Basic) || No || No || N/A
|-
| Solar Panel || Kit (Solar Panel) || '''Yes''' || No || '''Yes'''
|-
| Solar Panel (Dual) || Kit (Solar Panel) || '''Yes'''|| No || No
|-
| Solar Panel (Heavy Flat) || Kit (Solar Panel Basic Heavy) || No || '''Yes'''|| N/A
|-
| Solar Panel (Heavy Angled) || Kit (Solar Panel Basic Heavy) || No || '''Yes'''|| N/A
|-
| Solar Panel (Heavy) || Kit (Solar Panel Heavy) || '''Yes'''|| '''Yes'''|| '''Yes'''
|-
| Solar Panel (Heavy Dual) || Kit (Solar Panel Heavy) || '''Yes'''|| '''Yes'''|| No
|-
|}

==Power Output==
{| class="wikitable"
|-
! [[World]] !! Solar Energy !! % of Earth !! Solar Angle
|-
| [[Worlds#Moon|Moon]] || 750W || 100% || 0°
|-
| [[Worlds#Mars|Mars]] || 550W || 51% || 8°
|-
| [[Worlds#Europa|Europa]] || 210W || 28% || 32°
|-
| [[Worlds#Mimas|Mimas]] || 90W || 12% || 126°
|-
| [[Worlds#Vulcan|Vulcan]] || 500W-1.2KW || 160% || 48°
|-
| [[Worlds#Venus|Venus]] || 1.15KW || 150% || 0°
|-
|}

==Usage==
===Positioning===

Pay close attention to the positioning of your solar panel since their automation will depend heavily on it. Any user-made scripts and guides will assume the solar panel is oriented with the [[Data Port|data port]] facing in a particular direction. Be sure to orient the panels with the [[Data Port|data port]] facing the same way as the guide you are following.

[[File:Solar panel yaw-Horizontal setting.png|400x300px|solar panel horizontal rotation]]

===Control===

Basic Solar panels can be manually positioned during construction to capture the most solar energy over the course of the day. On the [[Moon]] the best orientation is either a flat horizontal orientation or a 45° configuration facing East or West. On [[Mars]] the best Orientation is a 45° orientation facing south.

Solar panel can be manually pointed using the Wrench or automatically positioned by writing the desired position to [[Data Port|Data port]]. When setting up an automatic positioning system the orientation of the Data port is a vary important factor for both the Daylight [[sensor]] and the Solar Panel.
Detailed information can be found in the [[Solar_Logic_Circuits_Guide|Solar Logic Circuits Guide]].

==Notes==
After placement be sure to install one [[Glass Sheets|Glass Sheet]] to make it functional.

See [[Sensors]] and [[Solar_Logic_Circuits_Guide|Solar Logic Circuits Guide]] for panel automation using logic [[circuits]].

{{Data Network Header}}

{{Data Parameters}}
{| class="wikitable"
|-
! Parameter Name !! Data Type !! Description
|-
| Horizontal || Degrees || Set the horizontal rotation of the Solar Panel (clockwise, 0-360°, [[Data Port|data port]] is at 270°)
|-
| Vertical || Degrees || Sets the vertical angle of the Solar Panel (As of at least version 0.2.3263.16264, solar panels accept input in degrees above the horizon instead of in percent, so the solar panels travel between inputs of 15 and 165, with 90 being straight up. Previously, this was supposedly a Percentage "accepting 0-100% which translates to 15°-165°, 50%=90° =zenith")
|-
| On || Boolean || Turns the solar panel on or off
|}

{{Data Outputs}}
{| class="wikitable"
|-
! Output Name !! Data Type !! Description
|-
| Charge || W || Returns the power generated in Watts
|-
| Horizontal || degrees || Returns the horizontal rotation of the Solar Panel
|-
| Vertical || % || Returns the vertical angle of the Solar Panel
|-
| Maximum || W || Maximum possible power for this planet
|-
| Ratio || || How close to maximum current performance is, 1.0 means panel is perfectly directed and unobstructed
|-
| On || Boolean || Returns the on/off state of the solar panel
|}

Solar Panel

2026-03-21T23:31:16Z

Starviking: Moved solar panel output

[[Category:Solar power]] [[Category:Power]]

[[Category:Machines]]
[[Category:Items]]
{{Itembox
| name = Kit (Solar Panel Basic)
| image = [[File:ItemKitSolarPanel.png]]
| createdwith = [[Electronics Printer]]
| cost = 10g [[Iron]], 2g [[Gold]], 10g [[Copper]]
| constructs = [[Solar Panel (Flat)]], [[Solar Panel (Angled)]]
| stacks = 5
| prefabhash = 844961456
| prefabname = ItemKitSolarPanelBasic
}}
{{Itembox
| name = Kit (Solar Panel)
| image = [[File:ItemKitSolarPanel.png]]
| createdwith = [[Electronics Printer]]
| cost = 5g [[Gold]], 20g [[Copper]], 15g [[Steel]]
| constructs = [[Solar Panel (Dual)]], [[Solar Panel]]
| stacks = 5
| prefabhash = -1924492105
| prefabname = ItemKitSolarPanel
}}
{{Itembox
| name = Kit (Solar Panel Basic Heavy)
| image = [[File:ItemKitSolarPanel.png]]
| createdwith = [[Electronics Printer]] (Tier Two)
| cost = 10g [[Copper]], 10g [[Steel]], 2g [[Electrum]], 10g [[Invar]]
| constructs = [[Solar Panel (Heavy Flat)]], [[Solar Panel (Heavy Angled)]]
| stacks = 5
| prefabhash = -528695432
| prefabname = x
}}
{{Itembox
| name = Kit (Solar Panel Heavy)
| image = [[File:ItemKitSolarPanel.png]]
| createdwith = [[Electronics Printer]] (Tier Two)
| cost = 20g [[Copper]], 10g [[Steel]], 5g [[Electrum]], 15g [[Astroloy]]
| constructs = [[Solar Panel (Heavy Dual)]], [[Solar Panel (Heavy)]]
| stacks = 5
| prefabhash = -364868685
| prefabname = x
}}
{{Structurebox
| name = Solar Panel
| power_usage = 0W to 500W generated
| placed_with_item = [[Kit (Solar Panel)]]
| placed_on_grid = Large Grid
| const_with_item1 = [[Glass Sheets|Glass Sheet]]
| decon_with_tool1 = [[Hand Drill]]
| item_rec1 = [[Kit (Solar Panel)]]
| decon_with_tool2 = [[Crowbar]]
| item_rec2 = [[Glass Sheets|Glass Sheet]]
| prefab_hash = -2045627372
| prefab_name = StructureSolarPanel
}}
{{Structurebox
| name = Solar Panel (Dual)
| power_usage = 0W to 500W generated
| placed_with_item = [[Kit (Solar Panel)]]
| placed_on_grid = Large Grid
| const_with_item1 = [[Glass Sheets|Glass Sheet]]
| decon_with_tool1 = [[Hand Drill]]
| item_rec1 = [[Kit (Solar Panel)]]
| decon_with_tool2 = [[Crowbar]]
| item_rec2 = [[Glass Sheets|Glass Sheet]]
| prefab_hash = -539224550
| prefab_name = StructureSolarPanelDual
}}

== Description ==
The '''Solar Panel''' generates [[power]] by absorbing sunlight, depending on solar intensity. Can be manually rotated using a [[Wrench]]. They can be built in two configurations: "dual" configuration with opposite side split power/data ports, or normal configuration with same side combined power/data ports.

Data ports can interact with [[Kit (Logic I/O)|Logic Chips]] or [[Integrated_Circuit_(IC10)|Integrated Circuits]] and [[Sensor#Daylight_Sensor|Daylight Sensors]] to automatically rotate the panel to face the sun.

At the extreme attitude settings (0/100) the solar panel still faces 15 degrees above the horizon. Thus the total arc of vertical rotation is only 150 degrees from input values 0-100.

Can also be destroyed by [[Storm|storms]], or left with very little health. Best course of action is to remove the solar panels when you are notified of a [[storm]] by a [[Weather Station]], Which allows you to replace them once the [[storm]] is over.

During [[Solar Storms]] Solar Panels output more [[energy]]. Due to this, unexpected cable burnings and power shortages can happen.

They can be repaired with [[Duct Tape]], or by dissembling them and reassembling them. You could even cover them with windows to protect them from [[Storm|storms]] at the cost of some efficiency of the panels themselves being lost. And Heavy Solar Panels are a more expensive version that do not take [[storm]] damage but it is debatable if its worth making the tier 2 metal [[Astroloy]] to prevent [[storm]] damage whilst retaining maximum efficiency.

== Types of Solar Panel Kit ==
=== Printed with the Electronics Printer (Tier One) ===
These are useful early on when resources are limited.
*'''Kit (Solar Panel Basic)''' don't have [[logic]] inputs so they can't be set up to automatically track the sun and spend most of their [[time]] at reduced power output. The position of Basic Solar Panel greatly effects the amount of energy the will collect.
*The position of '''Kit (Solar Panels)''' can be set manually using the [[Wrench|Wrench]]. In addition they have logic inputs and can be [[Solar Logic Circuits Guide|programmed to automatically track the sun]] for optimal power output.

=== Printed with the Electronics Printer (Tier Two) ===
Heavy Solar Panels are protected against [[Storm|storm]] damage, but more expensive. Note that not all [[planets]] have storms.

*'''Kit (Solar Panel Basic Heavy)''' are similar to Basic Solar Panels and do not have logic inputs.
*'''Kit (Solar Panel Heavy)''' are similar to Solar Panels and have logic inputs.

{| class="wikitable"
|-
! Name of Construction !! Kit to Build !! Programmable Angle !! Immune to Storms !! Combined Power/Data Ports
|-
| Solar Panel (Flat) || Kit (Solar Panel Basic) || No || No || N/A
|-
| Solar Panel (Angled) || Kit (Solar Panel Basic) || No || No || N/A
|-
| Solar Panel || Kit (Solar Panel) || '''Yes''' || No || '''Yes'''
|-
| Solar Panel (Dual) || Kit (Solar Panel) || '''Yes'''|| No || No
|-
| Solar Panel (Heavy Flat) || Kit (Solar Panel Basic Heavy) || No || '''Yes'''|| N/A
|-
| Solar Panel (Heavy Angled) || Kit (Solar Panel Basic Heavy) || No || '''Yes'''|| N/A
|-
| Solar Panel (Heavy) || Kit (Solar Panel Heavy) || '''Yes'''|| '''Yes'''|| '''Yes'''
|-
| Solar Panel (Heavy Dual) || Kit (Solar Panel Heavy) || '''Yes'''|| '''Yes'''|| No
|-
|}

==Power output of a single Solar Panel on different planets==
{| class="wikitable"
|-
! [[World]] !! Solar Energy !! % of Earth !! Solar Angle
|-
| [[Worlds#Moon|Moon]] || 750W || 100% || 0°
|-
| [[Worlds#Mars|Mars]] || 550W || 51% || 8°
|-
| [[Worlds#Europa|Europa]] || 210W || 28% || 32°
|-
| [[Worlds#Mimas|Mimas]] || 90W || 12% || 126°
|-
| [[Worlds#Vulcan|Vulcan]] || 500W-1.2KW || 160% || 48°
|-
| [[Worlds#Venus|Venus]] || 1.15KW || 150% || 0°
|-
|}

==Usage==
===Positioning===

Pay close attention to the positioning of your solar panel since their automation will depend heavily on it. Any user-made scripts and guides will assume the solar panel is oriented with the [[Data Port|data port]] facing in a particular direction. Be sure to orient the panels with the [[Data Port|data port]] facing the same way as the guide you are following.

[[File:Solar panel yaw-Horizontal setting.png|400x300px|solar panel horizontal rotation]]

===Control===

Basic Solar panels can be manually positioned during construction to capture the most solar energy over the course of the day. On the [[Moon]] the best orientation is either a flat horizontal orientation or a 45° configuration facing East or West. On [[Mars]] the best Orientation is a 45° orientation facing south.

Solar panel can be manually pointed using the Wrench or automatically positioned by writing the desired position to [[Data Port|Data port]]. When setting up an automatic positioning system the orientation of the Data port is a vary important factor for both the Daylight [[sensor]] and the Solar Panel.
Detailed information can be found in the [[Solar_Logic_Circuits_Guide|Solar Logic Circuits Guide]].

==Notes==
After placement be sure to install one [[Glass Sheets|Glass Sheet]] to make it functional.

See [[Sensors]] and [[Solar_Logic_Circuits_Guide|Solar Logic Circuits Guide]] for panel automation using logic [[circuits]].

{{Data Network Header}}

{{Data Parameters}}
{| class="wikitable"
|-
! Parameter Name !! Data Type !! Description
|-
| Horizontal || Degrees || Set the horizontal rotation of the Solar Panel (clockwise, 0-360°, [[Data Port|data port]] is at 270°)
|-
| Vertical || Degrees || Sets the vertical angle of the Solar Panel (As of at least version 0.2.3263.16264, solar panels accept input in degrees above the horizon instead of in percent, so the solar panels travel between inputs of 15 and 165, with 90 being straight up. Previously, this was supposedly a Percentage "accepting 0-100% which translates to 15°-165°, 50%=90° =zenith")
|-
| On || Boolean || Turns the solar panel on or off
|}

{{Data Outputs}}
{| class="wikitable"
|-
! Output Name !! Data Type !! Description
|-
| Charge || W || Returns the power generated in Watts
|-
| Horizontal || degrees || Returns the horizontal rotation of the Solar Panel
|-
| Vertical || % || Returns the vertical angle of the Solar Panel
|-
| Maximum || W || Maximum possible power for this planet
|-
| Ratio || || How close to maximum current performance is, 1.0 means panel is perfectly directed and unobstructed
|-
| On || Boolean || Returns the on/off state of the solar panel
|}

Solar Panel

2026-03-21T23:28:32Z

Starviking: /* Usage */ Added information on basic solar panel orientation and solar panel control logic.

[[Category:Solar power]] [[Category:Power]]

[[Category:Machines]]
[[Category:Items]]
{{Itembox
| name = Kit (Solar Panel Basic)
| image = [[File:ItemKitSolarPanel.png]]
| createdwith = [[Electronics Printer]]
| cost = 10g [[Iron]], 2g [[Gold]], 10g [[Copper]]
| constructs = [[Solar Panel (Flat)]], [[Solar Panel (Angled)]]
| stacks = 5
| prefabhash = 844961456
| prefabname = ItemKitSolarPanelBasic
}}
{{Itembox
| name = Kit (Solar Panel)
| image = [[File:ItemKitSolarPanel.png]]
| createdwith = [[Electronics Printer]]
| cost = 5g [[Gold]], 20g [[Copper]], 15g [[Steel]]
| constructs = [[Solar Panel (Dual)]], [[Solar Panel]]
| stacks = 5
| prefabhash = -1924492105
| prefabname = ItemKitSolarPanel
}}
{{Itembox
| name = Kit (Solar Panel Basic Heavy)
| image = [[File:ItemKitSolarPanel.png]]
| createdwith = [[Electronics Printer]] (Tier Two)
| cost = 10g [[Copper]], 10g [[Steel]], 2g [[Electrum]], 10g [[Invar]]
| constructs = [[Solar Panel (Heavy Flat)]], [[Solar Panel (Heavy Angled)]]
| stacks = 5
| prefabhash = -528695432
| prefabname = x
}}
{{Itembox
| name = Kit (Solar Panel Heavy)
| image = [[File:ItemKitSolarPanel.png]]
| createdwith = [[Electronics Printer]] (Tier Two)
| cost = 20g [[Copper]], 10g [[Steel]], 5g [[Electrum]], 15g [[Astroloy]]
| constructs = [[Solar Panel (Heavy Dual)]], [[Solar Panel (Heavy)]]
| stacks = 5
| prefabhash = -364868685
| prefabname = x
}}
{{Structurebox
| name = Solar Panel
| power_usage = 0W to 500W generated
| placed_with_item = [[Kit (Solar Panel)]]
| placed_on_grid = Large Grid
| const_with_item1 = [[Glass Sheets|Glass Sheet]]
| decon_with_tool1 = [[Hand Drill]]
| item_rec1 = [[Kit (Solar Panel)]]
| decon_with_tool2 = [[Crowbar]]
| item_rec2 = [[Glass Sheets|Glass Sheet]]
| prefab_hash = -2045627372
| prefab_name = StructureSolarPanel
}}
{{Structurebox
| name = Solar Panel (Dual)
| power_usage = 0W to 500W generated
| placed_with_item = [[Kit (Solar Panel)]]
| placed_on_grid = Large Grid
| const_with_item1 = [[Glass Sheets|Glass Sheet]]
| decon_with_tool1 = [[Hand Drill]]
| item_rec1 = [[Kit (Solar Panel)]]
| decon_with_tool2 = [[Crowbar]]
| item_rec2 = [[Glass Sheets|Glass Sheet]]
| prefab_hash = -539224550
| prefab_name = StructureSolarPanelDual
}}

== Description ==
The '''Solar Panel''' generates [[power]] by absorbing sunlight, depending on solar intensity. Can be manually rotated using a [[Wrench]]. They can be built in two configurations: "dual" configuration with opposite side split power/data ports, or normal configuration with same side combined power/data ports.

Data ports can interact with [[Kit (Logic I/O)|Logic Chips]] or [[Integrated_Circuit_(IC10)|Integrated Circuits]] and [[Sensor#Daylight_Sensor|Daylight Sensors]] to automatically rotate the panel to face the sun.

At the extreme attitude settings (0/100) the solar panel still faces 15 degrees above the horizon. Thus the total arc of vertical rotation is only 150 degrees from input values 0-100.

Can also be destroyed by [[Storm|storms]], or left with very little health. Best course of action is to remove the solar panels when you are notified of a [[storm]] by a [[Weather Station]], Which allows you to replace them once the [[storm]] is over.

During [[Solar Storms]] Solar Panels output more [[energy]]. Due to this, unexpected cable burnings and power shortages can happen.

They can be repaired with [[Duct Tape]], or by dissembling them and reassembling them. You could even cover them with windows to protect them from [[Storm|storms]] at the cost of some efficiency of the panels themselves being lost. And Heavy Solar Panels are a more expensive version that do not take [[storm]] damage but it is debatable if its worth making the tier 2 metal [[Astroloy]] to prevent [[storm]] damage whilst retaining maximum efficiency.

== Types of Solar Panel Kit ==
=== Printed with the Electronics Printer (Tier One) ===
These are useful early on when resources are limited.
*'''Kit (Solar Panel Basic)''' don't have [[logic]] inputs so they can't be set up to automatically track the sun and spend most of their [[time]] at reduced power output. The position of Basic Solar Panel greatly effects the amount of energy the will collect.
*The position of '''Kit (Solar Panels)''' can be set manually using the [[Wrench|Wrench]]. In addition they have logic inputs and can be [[Solar Logic Circuits Guide|programmed to automatically track the sun]] for optimal power output.

=== Printed with the Electronics Printer (Tier Two) ===
Heavy Solar Panels are protected against [[Storm|storm]] damage, but more expensive. Note that not all [[planets]] have storms.

*'''Kit (Solar Panel Basic Heavy)''' are similar to Basic Solar Panels and do not have logic inputs.
*'''Kit (Solar Panel Heavy)''' are similar to Solar Panels and have logic inputs.

{| class="wikitable"
|-
! Name of Construction !! Kit to Build !! Programmable Angle !! Immune to Storms !! Combined Power/Data Ports
|-
| Solar Panel (Flat) || Kit (Solar Panel Basic) || No || No || N/A
|-
| Solar Panel (Angled) || Kit (Solar Panel Basic) || No || No || N/A
|-
| Solar Panel || Kit (Solar Panel) || '''Yes''' || No || '''Yes'''
|-
| Solar Panel (Dual) || Kit (Solar Panel) || '''Yes'''|| No || No
|-
| Solar Panel (Heavy Flat) || Kit (Solar Panel Basic Heavy) || No || '''Yes'''|| N/A
|-
| Solar Panel (Heavy Angled) || Kit (Solar Panel Basic Heavy) || No || '''Yes'''|| N/A
|-
| Solar Panel (Heavy) || Kit (Solar Panel Heavy) || '''Yes'''|| '''Yes'''|| '''Yes'''
|-
| Solar Panel (Heavy Dual) || Kit (Solar Panel Heavy) || '''Yes'''|| '''Yes'''|| No
|-
|}

==Usage==
===Positioning===

Pay close attention to the positioning of your solar panel since their automation will depend heavily on it. Any user-made scripts and guides will assume the solar panel is oriented with the [[Data Port|data port]] facing in a particular direction. Be sure to orient the panels with the [[Data Port|data port]] facing the same way as the guide you are following.

[[File:Solar panel yaw-Horizontal setting.png|400x300px|solar panel horizontal rotation]]

===Control===

Basic Solar panels can be manually positioned during construction to capture the most solar energy over the course of the day. On the [[Moon]] the best orientation is either a flat horizontal orientation or a 45° configuration facing East or West. On [[Mars]] the best Orientation is a 45° orientation facing south.

Solar panel can be manually pointed using the Wrench or automatically positioned by writing the desired position to Data port. When setting up an automatic positioning system the orientation of the Data port is a vary important factor for both the Daylight [[sensor]] and the Solar Panel.
Detailed information can be found in the [[Solar_Logic_Circuits_Guide|Solar Logic Circuits Guide]].

==Notes==
After placement be sure to install one [[Glass Sheets|Glass Sheet]] to make it functional.

See [[Sensors]] and [[Solar_Logic_Circuits_Guide|Solar Logic Circuits Guide]] for panel automation using logic [[circuits]].

==Power output of a single Solar Panel on different planets==
{| class="wikitable"
|-
! [[World]] !! Solar Energy !! % of Earth !! Solar Angle
|-
| [[Worlds#Moon|Moon]] || 750W || 100% || 0°
|-
| [[Worlds#Mars|Mars]] || 550W || 51% || 8°
|-
| [[Worlds#Europa|Europa]] || 210W || 28% || 32°
|-
| [[Worlds#Mimas|Mimas]] || 90W || 12% || 126°
|-
| [[Worlds#Vulcan|Vulcan]] || 500W-1.2KW || 160% || 48°
|-
| [[Worlds#Venus|Venus]] || 1.15KW || 150% || 0°
|-
|}

{{Data Network Header}}

{{Data Parameters}}
{| class="wikitable"
|-
! Parameter Name !! Data Type !! Description
|-
| Horizontal || Degrees || Set the horizontal rotation of the Solar Panel (clockwise, 0-360°, [[Data Port|data port]] is at 270°)
|-
| Vertical || Degrees || Sets the vertical angle of the Solar Panel (As of at least version 0.2.3263.16264, solar panels accept input in degrees above the horizon instead of in percent, so the solar panels travel between inputs of 15 and 165, with 90 being straight up. Previously, this was supposedly a Percentage "accepting 0-100% which translates to 15°-165°, 50%=90° =zenith")
|-
| On || Boolean || Turns the solar panel on or off
|}

{{Data Outputs}}
{| class="wikitable"
|-
! Output Name !! Data Type !! Description
|-
| Charge || W || Returns the power generated in Watts
|-
| Horizontal || degrees || Returns the horizontal rotation of the Solar Panel
|-
| Vertical || % || Returns the vertical angle of the Solar Panel
|-
| Maximum || W || Maximum possible power for this planet
|-
| Ratio || || How close to maximum current performance is, 1.0 means panel is perfectly directed and unobstructed
|-
| On || Boolean || Returns the on/off state of the solar panel
|}

Solar Panel

2026-03-21T23:17:10Z

Starviking: /* Notes */

[[Category:Solar power]] [[Category:Power]]

[[Category:Machines]]
[[Category:Items]]
{{Itembox
| name = Kit (Solar Panel Basic)
| image = [[File:ItemKitSolarPanel.png]]
| createdwith = [[Electronics Printer]]
| cost = 10g [[Iron]], 2g [[Gold]], 10g [[Copper]]
| constructs = [[Solar Panel (Flat)]], [[Solar Panel (Angled)]]
| stacks = 5
| prefabhash = 844961456
| prefabname = ItemKitSolarPanelBasic
}}
{{Itembox
| name = Kit (Solar Panel)
| image = [[File:ItemKitSolarPanel.png]]
| createdwith = [[Electronics Printer]]
| cost = 5g [[Gold]], 20g [[Copper]], 15g [[Steel]]
| constructs = [[Solar Panel (Dual)]], [[Solar Panel]]
| stacks = 5
| prefabhash = -1924492105
| prefabname = ItemKitSolarPanel
}}
{{Itembox
| name = Kit (Solar Panel Basic Heavy)
| image = [[File:ItemKitSolarPanel.png]]
| createdwith = [[Electronics Printer]] (Tier Two)
| cost = 10g [[Copper]], 10g [[Steel]], 2g [[Electrum]], 10g [[Invar]]
| constructs = [[Solar Panel (Heavy Flat)]], [[Solar Panel (Heavy Angled)]]
| stacks = 5
| prefabhash = -528695432
| prefabname = x
}}
{{Itembox
| name = Kit (Solar Panel Heavy)
| image = [[File:ItemKitSolarPanel.png]]
| createdwith = [[Electronics Printer]] (Tier Two)
| cost = 20g [[Copper]], 10g [[Steel]], 5g [[Electrum]], 15g [[Astroloy]]
| constructs = [[Solar Panel (Heavy Dual)]], [[Solar Panel (Heavy)]]
| stacks = 5
| prefabhash = -364868685
| prefabname = x
}}
{{Structurebox
| name = Solar Panel
| power_usage = 0W to 500W generated
| placed_with_item = [[Kit (Solar Panel)]]
| placed_on_grid = Large Grid
| const_with_item1 = [[Glass Sheets|Glass Sheet]]
| decon_with_tool1 = [[Hand Drill]]
| item_rec1 = [[Kit (Solar Panel)]]
| decon_with_tool2 = [[Crowbar]]
| item_rec2 = [[Glass Sheets|Glass Sheet]]
| prefab_hash = -2045627372
| prefab_name = StructureSolarPanel
}}
{{Structurebox
| name = Solar Panel (Dual)
| power_usage = 0W to 500W generated
| placed_with_item = [[Kit (Solar Panel)]]
| placed_on_grid = Large Grid
| const_with_item1 = [[Glass Sheets|Glass Sheet]]
| decon_with_tool1 = [[Hand Drill]]
| item_rec1 = [[Kit (Solar Panel)]]
| decon_with_tool2 = [[Crowbar]]
| item_rec2 = [[Glass Sheets|Glass Sheet]]
| prefab_hash = -539224550
| prefab_name = StructureSolarPanelDual
}}

== Description ==
The '''Solar Panel''' generates [[power]] by absorbing sunlight, depending on solar intensity. Can be manually rotated using a [[Wrench]]. They can be built in two configurations: "dual" configuration with opposite side split power/data ports, or normal configuration with same side combined power/data ports.

Data ports can interact with [[Kit (Logic I/O)|Logic Chips]] or [[Integrated_Circuit_(IC10)|Integrated Circuits]] and [[Sensor#Daylight_Sensor|Daylight Sensors]] to automatically rotate the panel to face the sun.

At the extreme attitude settings (0/100) the solar panel still faces 15 degrees above the horizon. Thus the total arc of vertical rotation is only 150 degrees from input values 0-100.

Can also be destroyed by [[Storm|storms]], or left with very little health. Best course of action is to remove the solar panels when you are notified of a [[storm]] by a [[Weather Station]], Which allows you to replace them once the [[storm]] is over.

During [[Solar Storms]] Solar Panels output more [[energy]]. Due to this, unexpected cable burnings and power shortages can happen.

They can be repaired with [[Duct Tape]], or by dissembling them and reassembling them. You could even cover them with windows to protect them from [[Storm|storms]] at the cost of some efficiency of the panels themselves being lost. And Heavy Solar Panels are a more expensive version that do not take [[storm]] damage but it is debatable if its worth making the tier 2 metal [[Astroloy]] to prevent [[storm]] damage whilst retaining maximum efficiency.

== Types of Solar Panel Kit ==
=== Printed with the Electronics Printer (Tier One) ===
These are useful early on when resources are limited.
*'''Kit (Solar Panel Basic)''' don't have [[logic]] inputs so they can't be set up to automatically track the sun and spend most of their [[time]] at reduced power output. The position of Basic Solar Panel greatly effects the amount of energy the will collect.
*The position of '''Kit (Solar Panels)''' can be set manually using the [[Wrench|Wrench]]. In addition they have logic inputs and can be [[Solar Logic Circuits Guide|programmed to automatically track the sun]] for optimal power output.

=== Printed with the Electronics Printer (Tier Two) ===
Heavy Solar Panels are protected against [[Storm|storm]] damage, but more expensive. Note that not all [[planets]] have storms.

*'''Kit (Solar Panel Basic Heavy)''' are similar to Basic Solar Panels and do not have logic inputs.
*'''Kit (Solar Panel Heavy)''' are similar to Solar Panels and have logic inputs.

{| class="wikitable"
|-
! Name of Construction !! Kit to Build !! Programmable Angle !! Immune to Storms !! Combined Power/Data Ports
|-
| Solar Panel (Flat) || Kit (Solar Panel Basic) || No || No || N/A
|-
| Solar Panel (Angled) || Kit (Solar Panel Basic) || No || No || N/A
|-
| Solar Panel || Kit (Solar Panel) || '''Yes''' || No || '''Yes'''
|-
| Solar Panel (Dual) || Kit (Solar Panel) || '''Yes'''|| No || No
|-
| Solar Panel (Heavy Flat) || Kit (Solar Panel Basic Heavy) || No || '''Yes'''|| N/A
|-
| Solar Panel (Heavy Angled) || Kit (Solar Panel Basic Heavy) || No || '''Yes'''|| N/A
|-
| Solar Panel (Heavy) || Kit (Solar Panel Heavy) || '''Yes'''|| '''Yes'''|| '''Yes'''
|-
| Solar Panel (Heavy Dual) || Kit (Solar Panel Heavy) || '''Yes'''|| '''Yes'''|| No
|-
|}

==Usage==
===Positioning===

Pay close attention to the positioning of your solar panel since their automation will depend heavily on it. Any user-made scripts and guides will assume the solar panel is oriented with the [[Data Port|data port]] facing in a particular direction. Be sure to orient the panels with the [[Data Port|data port]] facing the same way as the guide you are following.

[[File:Solar panel yaw-Horizontal setting.png|400x300px|solar panel horizontal rotation]]

===Control===

==Notes==
After placement be sure to install one [[Glass Sheets|Glass Sheet]] to make it functional.

See [[Sensors]] and [[Solar_Logic_Circuits_Guide|Solar Logic Circuits Guide]] for panel automation using logic [[circuits]].

==Power output of a single Solar Panel on different planets==
{| class="wikitable"
|-
! [[World]] !! Solar Energy !! % of Earth !! Solar Angle
|-
| [[Worlds#Moon|Moon]] || 750W || 100% || 0°
|-
| [[Worlds#Mars|Mars]] || 550W || 51% || 8°
|-
| [[Worlds#Europa|Europa]] || 210W || 28% || 32°
|-
| [[Worlds#Mimas|Mimas]] || 90W || 12% || 126°
|-
| [[Worlds#Vulcan|Vulcan]] || 500W-1.2KW || 160% || 48°
|-
| [[Worlds#Venus|Venus]] || 1.15KW || 150% || 0°
|-
|}

{{Data Network Header}}

{{Data Parameters}}
{| class="wikitable"
|-
! Parameter Name !! Data Type !! Description
|-
| Horizontal || Degrees || Set the horizontal rotation of the Solar Panel (clockwise, 0-360°, [[Data Port|data port]] is at 270°)
|-
| Vertical || Degrees || Sets the vertical angle of the Solar Panel (As of at least version 0.2.3263.16264, solar panels accept input in degrees above the horizon instead of in percent, so the solar panels travel between inputs of 15 and 165, with 90 being straight up. Previously, this was supposedly a Percentage "accepting 0-100% which translates to 15°-165°, 50%=90° =zenith")
|-
| On || Boolean || Turns the solar panel on or off
|}

{{Data Outputs}}
{| class="wikitable"
|-
! Output Name !! Data Type !! Description
|-
| Charge || W || Returns the power generated in Watts
|-
| Horizontal || degrees || Returns the horizontal rotation of the Solar Panel
|-
| Vertical || % || Returns the vertical angle of the Solar Panel
|-
| Maximum || W || Maximum possible power for this planet
|-
| Ratio || || How close to maximum current performance is, 1.0 means panel is perfectly directed and unobstructed
|-
| On || Boolean || Returns the on/off state of the solar panel
|}

Solar Panel

2026-03-21T23:14:40Z

Starviking: /* Control */

[[Category:Solar power]] [[Category:Power]]

[[Category:Machines]]
[[Category:Items]]
{{Itembox
| name = Kit (Solar Panel Basic)
| image = [[File:ItemKitSolarPanel.png]]
| createdwith = [[Electronics Printer]]
| cost = 10g [[Iron]], 2g [[Gold]], 10g [[Copper]]
| constructs = [[Solar Panel (Flat)]], [[Solar Panel (Angled)]]
| stacks = 5
| prefabhash = 844961456
| prefabname = ItemKitSolarPanelBasic
}}
{{Itembox
| name = Kit (Solar Panel)
| image = [[File:ItemKitSolarPanel.png]]
| createdwith = [[Electronics Printer]]
| cost = 5g [[Gold]], 20g [[Copper]], 15g [[Steel]]
| constructs = [[Solar Panel (Dual)]], [[Solar Panel]]
| stacks = 5
| prefabhash = -1924492105
| prefabname = ItemKitSolarPanel
}}
{{Itembox
| name = Kit (Solar Panel Basic Heavy)
| image = [[File:ItemKitSolarPanel.png]]
| createdwith = [[Electronics Printer]] (Tier Two)
| cost = 10g [[Copper]], 10g [[Steel]], 2g [[Electrum]], 10g [[Invar]]
| constructs = [[Solar Panel (Heavy Flat)]], [[Solar Panel (Heavy Angled)]]
| stacks = 5
| prefabhash = -528695432
| prefabname = x
}}
{{Itembox
| name = Kit (Solar Panel Heavy)
| image = [[File:ItemKitSolarPanel.png]]
| createdwith = [[Electronics Printer]] (Tier Two)
| cost = 20g [[Copper]], 10g [[Steel]], 5g [[Electrum]], 15g [[Astroloy]]
| constructs = [[Solar Panel (Heavy Dual)]], [[Solar Panel (Heavy)]]
| stacks = 5
| prefabhash = -364868685
| prefabname = x
}}
{{Structurebox
| name = Solar Panel
| power_usage = 0W to 500W generated
| placed_with_item = [[Kit (Solar Panel)]]
| placed_on_grid = Large Grid
| const_with_item1 = [[Glass Sheets|Glass Sheet]]
| decon_with_tool1 = [[Hand Drill]]
| item_rec1 = [[Kit (Solar Panel)]]
| decon_with_tool2 = [[Crowbar]]
| item_rec2 = [[Glass Sheets|Glass Sheet]]
| prefab_hash = -2045627372
| prefab_name = StructureSolarPanel
}}
{{Structurebox
| name = Solar Panel (Dual)
| power_usage = 0W to 500W generated
| placed_with_item = [[Kit (Solar Panel)]]
| placed_on_grid = Large Grid
| const_with_item1 = [[Glass Sheets|Glass Sheet]]
| decon_with_tool1 = [[Hand Drill]]
| item_rec1 = [[Kit (Solar Panel)]]
| decon_with_tool2 = [[Crowbar]]
| item_rec2 = [[Glass Sheets|Glass Sheet]]
| prefab_hash = -539224550
| prefab_name = StructureSolarPanelDual
}}

== Description ==
The '''Solar Panel''' generates [[power]] by absorbing sunlight, depending on solar intensity. Can be manually rotated using a [[Wrench]]. They can be built in two configurations: "dual" configuration with opposite side split power/data ports, or normal configuration with same side combined power/data ports.

Data ports can interact with [[Kit (Logic I/O)|Logic Chips]] or [[Integrated_Circuit_(IC10)|Integrated Circuits]] and [[Sensor#Daylight_Sensor|Daylight Sensors]] to automatically rotate the panel to face the sun.

At the extreme attitude settings (0/100) the solar panel still faces 15 degrees above the horizon. Thus the total arc of vertical rotation is only 150 degrees from input values 0-100.

Can also be destroyed by [[Storm|storms]], or left with very little health. Best course of action is to remove the solar panels when you are notified of a [[storm]] by a [[Weather Station]], Which allows you to replace them once the [[storm]] is over.

During [[Solar Storms]] Solar Panels output more [[energy]]. Due to this, unexpected cable burnings and power shortages can happen.

They can be repaired with [[Duct Tape]], or by dissembling them and reassembling them. You could even cover them with windows to protect them from [[Storm|storms]] at the cost of some efficiency of the panels themselves being lost. And Heavy Solar Panels are a more expensive version that do not take [[storm]] damage but it is debatable if its worth making the tier 2 metal [[Astroloy]] to prevent [[storm]] damage whilst retaining maximum efficiency.

== Types of Solar Panel Kit ==
=== Printed with the Electronics Printer (Tier One) ===
These are useful early on when resources are limited.
*'''Kit (Solar Panel Basic)''' don't have [[logic]] inputs so they can't be set up to automatically track the sun and spend most of their [[time]] at reduced power output. The position of Basic Solar Panel greatly effects the amount of energy the will collect.
*The position of '''Kit (Solar Panels)''' can be set manually using the [[Wrench|Wrench]]. In addition they have logic inputs and can be [[Solar Logic Circuits Guide|programmed to automatically track the sun]] for optimal power output.

=== Printed with the Electronics Printer (Tier Two) ===
Heavy Solar Panels are protected against [[Storm|storm]] damage, but more expensive. Note that not all [[planets]] have storms.

*'''Kit (Solar Panel Basic Heavy)''' are similar to Basic Solar Panels and do not have logic inputs.
*'''Kit (Solar Panel Heavy)''' are similar to Solar Panels and have logic inputs.

{| class="wikitable"
|-
! Name of Construction !! Kit to Build !! Programmable Angle !! Immune to Storms !! Combined Power/Data Ports
|-
| Solar Panel (Flat) || Kit (Solar Panel Basic) || No || No || N/A
|-
| Solar Panel (Angled) || Kit (Solar Panel Basic) || No || No || N/A
|-
| Solar Panel || Kit (Solar Panel) || '''Yes''' || No || '''Yes'''
|-
| Solar Panel (Dual) || Kit (Solar Panel) || '''Yes'''|| No || No
|-
| Solar Panel (Heavy Flat) || Kit (Solar Panel Basic Heavy) || No || '''Yes'''|| N/A
|-
| Solar Panel (Heavy Angled) || Kit (Solar Panel Basic Heavy) || No || '''Yes'''|| N/A
|-
| Solar Panel (Heavy) || Kit (Solar Panel Heavy) || '''Yes'''|| '''Yes'''|| '''Yes'''
|-
| Solar Panel (Heavy Dual) || Kit (Solar Panel Heavy) || '''Yes'''|| '''Yes'''|| No
|-
|}

==Usage==
===Positioning===

Pay close attention to the positioning of your solar panel since their automation will depend heavily on it. Any user-made scripts and guides will assume the solar panel is oriented with the [[Data Port|data port]] facing in a particular direction. Be sure to orient the panels with the [[Data Port|data port]] facing the same way as the guide you are following.

[[File:Solar panel yaw-Horizontal setting.png|400x300px|solar panel horizontal rotation]]

===Control===

==Notes==
After placement be sure to install one [[Glass Sheets|Glass Sheet]] to make it functional.

See [[Sensors]] and [[Solar_Logic_Circuits_Guide]] for panel automation using logic [[circuits]].

==Power output of a single Solar Panel on different planets==
{| class="wikitable"
|-
! [[World]] !! Solar Energy !! % of Earth !! Solar Angle
|-
| [[Worlds#Moon|Moon]] || 750W || 100% || 0°
|-
| [[Worlds#Mars|Mars]] || 550W || 51% || 8°
|-
| [[Worlds#Europa|Europa]] || 210W || 28% || 32°
|-
| [[Worlds#Mimas|Mimas]] || 90W || 12% || 126°
|-
| [[Worlds#Vulcan|Vulcan]] || 500W-1.2KW || 160% || 48°
|-
| [[Worlds#Venus|Venus]] || 1.15KW || 150% || 0°
|-
|}

{{Data Network Header}}

{{Data Parameters}}
{| class="wikitable"
|-
! Parameter Name !! Data Type !! Description
|-
| Horizontal || Degrees || Set the horizontal rotation of the Solar Panel (clockwise, 0-360°, [[Data Port|data port]] is at 270°)
|-
| Vertical || Degrees || Sets the vertical angle of the Solar Panel (As of at least version 0.2.3263.16264, solar panels accept input in degrees above the horizon instead of in percent, so the solar panels travel between inputs of 15 and 165, with 90 being straight up. Previously, this was supposedly a Percentage "accepting 0-100% which translates to 15°-165°, 50%=90° =zenith")
|-
| On || Boolean || Turns the solar panel on or off
|}

{{Data Outputs}}
{| class="wikitable"
|-
! Output Name !! Data Type !! Description
|-
| Charge || W || Returns the power generated in Watts
|-
| Horizontal || degrees || Returns the horizontal rotation of the Solar Panel
|-
| Vertical || % || Returns the vertical angle of the Solar Panel
|-
| Maximum || W || Maximum possible power for this planet
|-
| Ratio || || How close to maximum current performance is, 1.0 means panel is perfectly directed and unobstructed
|-
| On || Boolean || Returns the on/off state of the solar panel
|}

Solar Panel

2026-03-21T23:13:28Z

Starviking: Moved positioning under "usage" added section for "control"

[[Category:Solar power]] [[Category:Power]]

[[Category:Machines]]
[[Category:Items]]
{{Itembox
| name = Kit (Solar Panel Basic)
| image = [[File:ItemKitSolarPanel.png]]
| createdwith = [[Electronics Printer]]
| cost = 10g [[Iron]], 2g [[Gold]], 10g [[Copper]]
| constructs = [[Solar Panel (Flat)]], [[Solar Panel (Angled)]]
| stacks = 5
| prefabhash = 844961456
| prefabname = ItemKitSolarPanelBasic
}}
{{Itembox
| name = Kit (Solar Panel)
| image = [[File:ItemKitSolarPanel.png]]
| createdwith = [[Electronics Printer]]
| cost = 5g [[Gold]], 20g [[Copper]], 15g [[Steel]]
| constructs = [[Solar Panel (Dual)]], [[Solar Panel]]
| stacks = 5
| prefabhash = -1924492105
| prefabname = ItemKitSolarPanel
}}
{{Itembox
| name = Kit (Solar Panel Basic Heavy)
| image = [[File:ItemKitSolarPanel.png]]
| createdwith = [[Electronics Printer]] (Tier Two)
| cost = 10g [[Copper]], 10g [[Steel]], 2g [[Electrum]], 10g [[Invar]]
| constructs = [[Solar Panel (Heavy Flat)]], [[Solar Panel (Heavy Angled)]]
| stacks = 5
| prefabhash = -528695432
| prefabname = x
}}
{{Itembox
| name = Kit (Solar Panel Heavy)
| image = [[File:ItemKitSolarPanel.png]]
| createdwith = [[Electronics Printer]] (Tier Two)
| cost = 20g [[Copper]], 10g [[Steel]], 5g [[Electrum]], 15g [[Astroloy]]
| constructs = [[Solar Panel (Heavy Dual)]], [[Solar Panel (Heavy)]]
| stacks = 5
| prefabhash = -364868685
| prefabname = x
}}
{{Structurebox
| name = Solar Panel
| power_usage = 0W to 500W generated
| placed_with_item = [[Kit (Solar Panel)]]
| placed_on_grid = Large Grid
| const_with_item1 = [[Glass Sheets|Glass Sheet]]
| decon_with_tool1 = [[Hand Drill]]
| item_rec1 = [[Kit (Solar Panel)]]
| decon_with_tool2 = [[Crowbar]]
| item_rec2 = [[Glass Sheets|Glass Sheet]]
| prefab_hash = -2045627372
| prefab_name = StructureSolarPanel
}}
{{Structurebox
| name = Solar Panel (Dual)
| power_usage = 0W to 500W generated
| placed_with_item = [[Kit (Solar Panel)]]
| placed_on_grid = Large Grid
| const_with_item1 = [[Glass Sheets|Glass Sheet]]
| decon_with_tool1 = [[Hand Drill]]
| item_rec1 = [[Kit (Solar Panel)]]
| decon_with_tool2 = [[Crowbar]]
| item_rec2 = [[Glass Sheets|Glass Sheet]]
| prefab_hash = -539224550
| prefab_name = StructureSolarPanelDual
}}

== Description ==
The '''Solar Panel''' generates [[power]] by absorbing sunlight, depending on solar intensity. Can be manually rotated using a [[Wrench]]. They can be built in two configurations: "dual" configuration with opposite side split power/data ports, or normal configuration with same side combined power/data ports.

Data ports can interact with [[Kit (Logic I/O)|Logic Chips]] or [[Integrated_Circuit_(IC10)|Integrated Circuits]] and [[Sensor#Daylight_Sensor|Daylight Sensors]] to automatically rotate the panel to face the sun.

At the extreme attitude settings (0/100) the solar panel still faces 15 degrees above the horizon. Thus the total arc of vertical rotation is only 150 degrees from input values 0-100.

Can also be destroyed by [[Storm|storms]], or left with very little health. Best course of action is to remove the solar panels when you are notified of a [[storm]] by a [[Weather Station]], Which allows you to replace them once the [[storm]] is over.

During [[Solar Storms]] Solar Panels output more [[energy]]. Due to this, unexpected cable burnings and power shortages can happen.

They can be repaired with [[Duct Tape]], or by dissembling them and reassembling them. You could even cover them with windows to protect them from [[Storm|storms]] at the cost of some efficiency of the panels themselves being lost. And Heavy Solar Panels are a more expensive version that do not take [[storm]] damage but it is debatable if its worth making the tier 2 metal [[Astroloy]] to prevent [[storm]] damage whilst retaining maximum efficiency.

== Types of Solar Panel Kit ==
=== Printed with the Electronics Printer (Tier One) ===
These are useful early on when resources are limited.
*'''Kit (Solar Panel Basic)''' don't have [[logic]] inputs so they can't be set up to automatically track the sun and spend most of their [[time]] at reduced power output. The position of Basic Solar Panel greatly effects the amount of energy the will collect.
*The position of '''Kit (Solar Panels)''' can be set manually using the [[Wrench|Wrench]]. In addition they have logic inputs and can be [[Solar Logic Circuits Guide|programmed to automatically track the sun]] for optimal power output.

=== Printed with the Electronics Printer (Tier Two) ===
Heavy Solar Panels are protected against [[Storm|storm]] damage, but more expensive. Note that not all [[planets]] have storms.

*'''Kit (Solar Panel Basic Heavy)''' are similar to Basic Solar Panels and do not have logic inputs.
*'''Kit (Solar Panel Heavy)''' are similar to Solar Panels and have logic inputs.

{| class="wikitable"
|-
! Name of Construction !! Kit to Build !! Programmable Angle !! Immune to Storms !! Combined Power/Data Ports
|-
| Solar Panel (Flat) || Kit (Solar Panel Basic) || No || No || N/A
|-
| Solar Panel (Angled) || Kit (Solar Panel Basic) || No || No || N/A
|-
| Solar Panel || Kit (Solar Panel) || '''Yes''' || No || '''Yes'''
|-
| Solar Panel (Dual) || Kit (Solar Panel) || '''Yes'''|| No || No
|-
| Solar Panel (Heavy Flat) || Kit (Solar Panel Basic Heavy) || No || '''Yes'''|| N/A
|-
| Solar Panel (Heavy Angled) || Kit (Solar Panel Basic Heavy) || No || '''Yes'''|| N/A
|-
| Solar Panel (Heavy) || Kit (Solar Panel Heavy) || '''Yes'''|| '''Yes'''|| '''Yes'''
|-
| Solar Panel (Heavy Dual) || Kit (Solar Panel Heavy) || '''Yes'''|| '''Yes'''|| No
|-
|}

==Usage==
===Positioning===

Pay close attention to the positioning of your solar panel since their automation will depend heavily on it. Any user-made scripts and guides will assume the solar panel is oriented with the [[Data Port|data port]] facing in a particular direction. Be sure to orient the panels with the [[Data Port|data port]] facing the same way as the guide you are following.

[[File:Solar panel yaw-Horizontal setting.png|400x300px|solar panel horizontal rotation]]

==Control==

==Notes==
After placement be sure to install one [[Glass Sheets|Glass Sheet]] to make it functional.

See [[Sensors]] and [[Solar_Logic_Circuits_Guide]] for panel automation using logic [[circuits]].

==Power output of a single Solar Panel on different planets==
{| class="wikitable"
|-
! [[World]] !! Solar Energy !! % of Earth !! Solar Angle
|-
| [[Worlds#Moon|Moon]] || 750W || 100% || 0°
|-
| [[Worlds#Mars|Mars]] || 550W || 51% || 8°
|-
| [[Worlds#Europa|Europa]] || 210W || 28% || 32°
|-
| [[Worlds#Mimas|Mimas]] || 90W || 12% || 126°
|-
| [[Worlds#Vulcan|Vulcan]] || 500W-1.2KW || 160% || 48°
|-
| [[Worlds#Venus|Venus]] || 1.15KW || 150% || 0°
|-
|}

{{Data Network Header}}

{{Data Parameters}}
{| class="wikitable"
|-
! Parameter Name !! Data Type !! Description
|-
| Horizontal || Degrees || Set the horizontal rotation of the Solar Panel (clockwise, 0-360°, [[Data Port|data port]] is at 270°)
|-
| Vertical || Degrees || Sets the vertical angle of the Solar Panel (As of at least version 0.2.3263.16264, solar panels accept input in degrees above the horizon instead of in percent, so the solar panels travel between inputs of 15 and 165, with 90 being straight up. Previously, this was supposedly a Percentage "accepting 0-100% which translates to 15°-165°, 50%=90° =zenith")
|-
| On || Boolean || Turns the solar panel on or off
|}

{{Data Outputs}}
{| class="wikitable"
|-
! Output Name !! Data Type !! Description
|-
| Charge || W || Returns the power generated in Watts
|-
| Horizontal || degrees || Returns the horizontal rotation of the Solar Panel
|-
| Vertical || % || Returns the vertical angle of the Solar Panel
|-
| Maximum || W || Maximum possible power for this planet
|-
| Ratio || || How close to maximum current performance is, 1.0 means panel is perfectly directed and unobstructed
|-
| On || Boolean || Returns the on/off state of the solar panel
|}

Solar Panel

2026-03-21T23:10:17Z

Starviking: /* Description */ Changed Daylight sensor link from external link to internal link, added link to Integrated ciruits.

[[Category:Solar power]] [[Category:Power]]

[[Category:Machines]]
[[Category:Items]]
{{Itembox
| name = Kit (Solar Panel Basic)
| image = [[File:ItemKitSolarPanel.png]]
| createdwith = [[Electronics Printer]]
| cost = 10g [[Iron]], 2g [[Gold]], 10g [[Copper]]
| constructs = [[Solar Panel (Flat)]], [[Solar Panel (Angled)]]
| stacks = 5
| prefabhash = 844961456
| prefabname = ItemKitSolarPanelBasic
}}
{{Itembox
| name = Kit (Solar Panel)
| image = [[File:ItemKitSolarPanel.png]]
| createdwith = [[Electronics Printer]]
| cost = 5g [[Gold]], 20g [[Copper]], 15g [[Steel]]
| constructs = [[Solar Panel (Dual)]], [[Solar Panel]]
| stacks = 5
| prefabhash = -1924492105
| prefabname = ItemKitSolarPanel
}}
{{Itembox
| name = Kit (Solar Panel Basic Heavy)
| image = [[File:ItemKitSolarPanel.png]]
| createdwith = [[Electronics Printer]] (Tier Two)
| cost = 10g [[Copper]], 10g [[Steel]], 2g [[Electrum]], 10g [[Invar]]
| constructs = [[Solar Panel (Heavy Flat)]], [[Solar Panel (Heavy Angled)]]
| stacks = 5
| prefabhash = -528695432
| prefabname = x
}}
{{Itembox
| name = Kit (Solar Panel Heavy)
| image = [[File:ItemKitSolarPanel.png]]
| createdwith = [[Electronics Printer]] (Tier Two)
| cost = 20g [[Copper]], 10g [[Steel]], 5g [[Electrum]], 15g [[Astroloy]]
| constructs = [[Solar Panel (Heavy Dual)]], [[Solar Panel (Heavy)]]
| stacks = 5
| prefabhash = -364868685
| prefabname = x
}}
{{Structurebox
| name = Solar Panel
| power_usage = 0W to 500W generated
| placed_with_item = [[Kit (Solar Panel)]]
| placed_on_grid = Large Grid
| const_with_item1 = [[Glass Sheets|Glass Sheet]]
| decon_with_tool1 = [[Hand Drill]]
| item_rec1 = [[Kit (Solar Panel)]]
| decon_with_tool2 = [[Crowbar]]
| item_rec2 = [[Glass Sheets|Glass Sheet]]
| prefab_hash = -2045627372
| prefab_name = StructureSolarPanel
}}
{{Structurebox
| name = Solar Panel (Dual)
| power_usage = 0W to 500W generated
| placed_with_item = [[Kit (Solar Panel)]]
| placed_on_grid = Large Grid
| const_with_item1 = [[Glass Sheets|Glass Sheet]]
| decon_with_tool1 = [[Hand Drill]]
| item_rec1 = [[Kit (Solar Panel)]]
| decon_with_tool2 = [[Crowbar]]
| item_rec2 = [[Glass Sheets|Glass Sheet]]
| prefab_hash = -539224550
| prefab_name = StructureSolarPanelDual
}}

== Description ==
The '''Solar Panel''' generates [[power]] by absorbing sunlight, depending on solar intensity. Can be manually rotated using a [[Wrench]]. They can be built in two configurations: "dual" configuration with opposite side split power/data ports, or normal configuration with same side combined power/data ports.

Data ports can interact with [[Kit (Logic I/O)|Logic Chips]] or [[Integrated_Circuit_(IC10)|Integrated Circuits]] and [[Sensor#Daylight_Sensor|Daylight Sensors]] to automatically rotate the panel to face the sun.

At the extreme attitude settings (0/100) the solar panel still faces 15 degrees above the horizon. Thus the total arc of vertical rotation is only 150 degrees from input values 0-100.

Can also be destroyed by [[Storm|storms]], or left with very little health. Best course of action is to remove the solar panels when you are notified of a [[storm]] by a [[Weather Station]], Which allows you to replace them once the [[storm]] is over.

During [[Solar Storms]] Solar Panels output more [[energy]]. Due to this, unexpected cable burnings and power shortages can happen.

They can be repaired with [[Duct Tape]], or by dissembling them and reassembling them. You could even cover them with windows to protect them from [[Storm|storms]] at the cost of some efficiency of the panels themselves being lost. And Heavy Solar Panels are a more expensive version that do not take [[storm]] damage but it is debatable if its worth making the tier 2 metal [[Astroloy]] to prevent [[storm]] damage whilst retaining maximum efficiency.

== Types of Solar Panel Kit ==
=== Printed with the Electronics Printer (Tier One) ===
These are useful early on when resources are limited.
*'''Kit (Solar Panel Basic)''' don't have [[logic]] inputs so they can't be set up to automatically track the sun and spend most of their [[time]] at reduced power output. The position of Basic Solar Panel greatly effects the amount of energy the will collect.
*The position of '''Kit (Solar Panels)''' can be set manually using the [[Wrench|Wrench]]. In addition they have logic inputs and can be [[Solar Logic Circuits Guide|programmed to automatically track the sun]] for optimal power output.

=== Printed with the Electronics Printer (Tier Two) ===
Heavy Solar Panels are protected against [[Storm|storm]] damage, but more expensive. Note that not all [[planets]] have storms.

*'''Kit (Solar Panel Basic Heavy)''' are similar to Basic Solar Panels and do not have logic inputs.
*'''Kit (Solar Panel Heavy)''' are similar to Solar Panels and have logic inputs.

{| class="wikitable"
|-
! Name of Construction !! Kit to Build !! Programmable Angle !! Immune to Storms !! Combined Power/Data Ports
|-
| Solar Panel (Flat) || Kit (Solar Panel Basic) || No || No || N/A
|-
| Solar Panel (Angled) || Kit (Solar Panel Basic) || No || No || N/A
|-
| Solar Panel || Kit (Solar Panel) || '''Yes''' || No || '''Yes'''
|-
| Solar Panel (Dual) || Kit (Solar Panel) || '''Yes'''|| No || No
|-
| Solar Panel (Heavy Flat) || Kit (Solar Panel Basic Heavy) || No || '''Yes'''|| N/A
|-
| Solar Panel (Heavy Angled) || Kit (Solar Panel Basic Heavy) || No || '''Yes'''|| N/A
|-
| Solar Panel (Heavy) || Kit (Solar Panel Heavy) || '''Yes'''|| '''Yes'''|| '''Yes'''
|-
| Solar Panel (Heavy Dual) || Kit (Solar Panel Heavy) || '''Yes'''|| '''Yes'''|| No
|-
|}

== Positioning ==

Pay close attention to the positioning of your solar panel since their automation will depend heavily on it. Any user-made scripts and guides will assume the solar panel is oriented with the [[Data Port|data port]] facing in a particular direction. Be sure to orient the panels with the [[Data Port|data port]] facing the same way as the guide you are following.

[[File:Solar panel yaw-Horizontal setting.png|400x300px|solar panel horizontal rotation]]

==Notes==
After placement be sure to install one [[Glass Sheets|Glass Sheet]] to make it functional.

See [[Sensors]] and [[Solar_Logic_Circuits_Guide]] for panel automation using logic [[circuits]].

==Power output of a single Solar Panel on different planets==
{| class="wikitable"
|-
! [[World]] !! Solar Energy !! % of Earth !! Solar Angle
|-
| [[Worlds#Moon|Moon]] || 750W || 100% || 0°
|-
| [[Worlds#Mars|Mars]] || 550W || 51% || 8°
|-
| [[Worlds#Europa|Europa]] || 210W || 28% || 32°
|-
| [[Worlds#Mimas|Mimas]] || 90W || 12% || 126°
|-
| [[Worlds#Vulcan|Vulcan]] || 500W-1.2KW || 160% || 48°
|-
| [[Worlds#Venus|Venus]] || 1.15KW || 150% || 0°
|-
|}

{{Data Network Header}}

{{Data Parameters}}
{| class="wikitable"
|-
! Parameter Name !! Data Type !! Description
|-
| Horizontal || Degrees || Set the horizontal rotation of the Solar Panel (clockwise, 0-360°, [[Data Port|data port]] is at 270°)
|-
| Vertical || Degrees || Sets the vertical angle of the Solar Panel (As of at least version 0.2.3263.16264, solar panels accept input in degrees above the horizon instead of in percent, so the solar panels travel between inputs of 15 and 165, with 90 being straight up. Previously, this was supposedly a Percentage "accepting 0-100% which translates to 15°-165°, 50%=90° =zenith")
|-
| On || Boolean || Turns the solar panel on or off
|}

{{Data Outputs}}
{| class="wikitable"
|-
! Output Name !! Data Type !! Description
|-
| Charge || W || Returns the power generated in Watts
|-
| Horizontal || degrees || Returns the horizontal rotation of the Solar Panel
|-
| Vertical || % || Returns the vertical angle of the Solar Panel
|-
| Maximum || W || Maximum possible power for this planet
|-
| Ratio || || How close to maximum current performance is, 1.0 means panel is perfectly directed and unobstructed
|-
| On || Boolean || Returns the on/off state of the solar panel
|}