Solar Logic Circuits Guide

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 (2025-09-25)

Solar tracking using Logic Chips - Moon

Solar tracking on the Moon is very minimal and straightforward due to its having a near 0° solar angle. You will need the following:

• x1 Daylight Sensor
• x1 Logic Reader
• x1 Batch Writer
• Cable Coils, a Wrench, a Screwdriver, and Wire Cutters at a minimum

The orientation of the Daylight Sensor is important for any solar logic control circuit. Since we are only controlling the vertical alignment (0° solar angle negates the need for horizontal control), the direction of the data port does not matter; however, the blue solar face of the Daylight Sensor must face either east or west. You will have to manually adjust the angle of the horizontal angle on the Solar Panel with a Wrench, dependent on the orientation you build the Solar Panel, and whether the Daylight Sensor faces east or west. Simply wait for the sun to be up and adjust until the panel is ~98% efficient.

Hook up the logical components as follows:

Component	Port A	Connection A	Port B	Connection B	Port C	Connection C
Logic Reader	IN	Daylight Sensor	VAR	Vertical	N/A	N/A
Batch Writer	IN	Logic Reader	OUT VAR	Vertical	OUT TYPE	Solar Panel

Solar tracking using Logic Chips - Non-Moon

THE FOLLOWING INFORMATION NEEDS TESTING ON A NON-MOON PLANET., I (ERIZAMANU) DON'T HAVE A WORKING NON-MOON SAVE (IM GOING FOR YEAR ACHIEVEMENT ON THE MOON RN) FOLLOWING THE TERRAIN UPDATE, SO IF SOMEONE COULD VERIFY THIS CIRCUIT OFF THE MOON AND DM ME I WOULD BE ETERNALLY GRATEFUL THANKS

Solar tracking not on the Moon remains straightforward, however is inherently more complicated due to not having a near 0° solar angle. You will need the following:

• x1 Daylight Sensor
• x2 Logic Reader
• x2 Batch Writer
• Cable Coils, a Wrench, a Screwdriver, and Wire Cutters at a minimum
• A Labeller is recommended to differentiate horizontal/vertical components, but not required

The orientation of the Daylight Sensor is important for any solar logic control circuit. Since we are controlling both the vertical and horizontal alignments, the direction of the data port does matter, and must face either north or south. Additionally, the blue solar face of the Daylight Sensor must face either east or west, and the Solar Panel power port must face east or west. The pairing of the facings is as follows:

	Blue Face / Solar Panel Power Port	Daylight Sensor Data Port
Option 1	West	South
Option 2	East	North

Hook up the logical components as follows:

Component	Port A	Connection A	Port B	Connection B	Port C	Connection C
Vertical Logic Reader	IN	Daylight Sensor	VAR	Vertical	N/A	N/A
Vertical Batch Writer	IN	Vertical Logic Reader	OUT VAR	Vertical	OUT TYPE	Solar Panel
Horizontal Logic Reader	IN	Daylight Sensor	VAR	Horizontal	N/A	N/A
Horizontal Batch Writer	IN	Horizontal Logic Reader	OUT VAR	Horizontal	OUT TYPE	Solar Panel

Solar tracking using IC-10

Using the in-game IC10 code is a complicated process that requires learning and/or knowledge of programming in an assembly-level language similar to MIPS, which IC10 was based upon/inspired by. Even if you are not proficient at programming, given its simplistic nature, a solar tracking script is a great way to start learning IC10, and the general logic and programming skills required to write even more complicated and advanced IC10 code to automate your systems in Stationeers.

If you are unable or prefer not to learn IC10, you can find all sorts of prewritten IC10 code such as Tallinu's IC10 Free-form Solar Tracking Script.

Geometry Of Solar Panels and Daylight Sensors

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  Geometry of horizontal values measured by daylight sensor

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  Geometry of vertical values measured by daylight sensor

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  Horizontal rotation of a solar panel

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  Equations relating horizontal sensor measurements from various orientations to solar panel horizontal rotation