Battery Puzzle Solutions & Wiring Guide

DERELIKT puzzle solutions for the battery room: equal-resistance wire routing, route math, and fixes for the most common wiring mistakes.

Why the Battery Board Stops So Many Players

The first battery puzzle is the earliest hard stop in DERELIKT, and it has nothing to do with the creatures shuffling around outside the room. You get fixed boxes stamped with arrows, a set of loose wire tiles you can swap, and two terminals that need the correct polarity — then the board simply sits there while you guess. The DERELIKT puzzle solutions you actually need here are arithmetic, not exploration: total the arrows, split them into two equal halves, then route each half from the right battery pole to the right terminal. The DERELIKT puzzle solutions below walk the board step by step, explain why a 1-arrow box and a 2-arrow box belong on the same path as a lone 3, and cover the mistakes that keep the circuit dark.

Board Anatomy: What Moves and What Doesn't

Before swapping a single tile, separate the board into two categories. The arrow boxes are anchors — they are fixed in place and cannot be moved, no matter how convincing the prompt looks. The wire tiles are your only tools, and they get swapped around those anchors to form two separate paths between the battery and its terminals. There is no hidden code, no color sequence, and no order-of-operations trick. The puzzle tells you the goal up front and then tests whether you can split a small set of numbers evenly while keeping polarity straight.

Board elementMovable?What it does
Arrow-marked boxesNoFixed anchors, each carrying 1, 2, or 3 arrows
Wire tilesYesSwapped around the anchors to build two separate routes
Battery polesNoPositive pole and negative pole, each needing its matching terminal
TerminalsNoPositive terminal and negative terminal at the far end of the routes

Three rules govern the whole board:

  • Polarity must match. The battery's positive pole connects to the positive terminal, and the negative pole connects to the negative terminal. Reaching only one side does nothing.
  • Both routes need equal resistance. Reaching both terminals is not enough on its own; the two paths must carry the same load, counted in arrows.
  • Each arrow box belongs to exactly one route. A box cannot serve both paths, so the split has to be clean.

DERELIKT Puzzle Solutions: Step by Step

On the first battery board you get three arrow boxes — one showing a single arrow, one showing two, and one showing three. That means your total resistance budget is six arrows, and each route needs three. The clean split is the 1-arrow and 2-arrow boxes on one path, with the 3-arrow box taking the other. Nothing about the board is random; it is a division problem wearing a wire harness.

StepActionWhat to check
1Read every arrow box before touching a tileCount how many boxes show 1, 2, and 3 arrows
2Locate the positive pole and positive terminalTrace the direction the route has to travel
3Locate the negative pole and negative terminalSame direction check, opposite side
4Total the arrows and halve itThree boxes at 1 + 2 + 3 give a target of 3 per route
5Assign the 1-arrow and 2-arrow boxes to one route1 + 2 = 3
6Assign the 3-arrow box to the other route3 = 3
7Place wire tiles until both paths are continuousEvery box sits on one path, and no path has a gap
8Confirm polarity on both sidesPositive to positive, negative to negative

When both routes are complete and balanced, the circuit closes and the 1.21 gigawatts trophy pops. If the trophy does not appear, the board is not solved — the game does not award it for a partially correct layout, so treat the trophy as your confirmation that polarity and resistance are both right.

Do You Have to Match an Exact Screenshot?

No. There is no single blessed tile arrangement, and memorizing someone else's finished layout is more fragile than understanding the rule, because tile positions depend on how your board is currently scrambled. Any arrangement that keeps each arrow box on one path, matches positive to positive and negative to negative, and gives both routes the same arrow total will close the circuit. If you rebuild from the rule rather than from a picture, you cannot get stuck re-tracing someone else's swaps.

Route Math: Why 1 + 2 Sits Opposite 3

Think of each arrow box as a weight the route has to carry. A route with the 1-arrow and 2-arrow boxes is carrying three units. A route with only the 3-arrow box is also carrying three units. Balanced. Any other grouping on this board fails, and it fails for an easy-to-check reason.

Arrow splitRoute A loadRoute B loadResult
1 + 2 vs. 333Balanced, circuit closes
1 + 3 vs. 242Unbalanced, nothing happens
3 + 2 vs. 151Unbalanced, nothing happens
All three on one route60One route never completes

The useful habit to take away from these DERELIKT puzzle solutions is the halving check: total the arrows on the board, divide by two, and see which combination hits that number exactly. On this board the answer is unmistakable because 1 + 2 equals 3, but the same check protects you when the numbers look less friendly. Do the arithmetic before you drag tiles, because swapping tiles to "see what happens" burns far more time than counting three numbers.

Troubleshooting: When the Circuit Stays Dark

Most failed attempts on this board come down to four mistakes, and each one has a fast diagnosis. Work through them in order rather than randomly re-swapping tiles.

SymptomLikely causeFix
Both terminals look connected, but nothing triggersRoutes are unequal in arrowsRecount each path and move a box so both total the same
One side of the board never lightsRoute only reaches one terminalTrace the missing path from pole to terminal and fill the gap
Positive side works, negative side deadPolarity crossed on one routeRe-check which pole feeds which terminal
One route keeps absorbing every boxA box is being counted on both pathsGive each arrow box to a single route only
You lost track of your editsToo many blind swapsRe-read the arrow values and rebuild from the split rule

A slow, deliberate pass beats rapid tile shuffling. Clear the board mentally, restate the target number, then build one complete route from pole to terminal before touching the other side. Finishing one path at a time prevents the most common trap: half-routing both sides and losing track of which boxes already belong to which route.

Prep Before You Touch the Wires

The battery room rewards players who explore before they solve. This is a short narrative first-person shooter with a heavy PS1 aesthetic, text-based conversations, and branching dialogue trees with the station's residents, so reading the room pays off in context as well as supplies. Sweep the area after combat, pick up the obvious medical kits and ammo, and check nooks that look decorative — secrets are tucked into corners, and arriving at a puzzle with full reserves means you are not solving it under pressure.

PriorityWhy it mattersWhat to do
Clear the room firstEnemies interrupting a solve is worse than a delayFight or bypass threats, then return to the board
Stock ammo and medkitsWeapons hit hard and reserves run thinRotate guns and sweep corners for pickups
Read the dialogueText conversations carry the story setupLet NPC lines land before moving on
Use the in-game mapWrong turns are the real time sinkCheck it when a corridor dead-ends, not after ten minutes
Note upgrades you findInsights and runes improve your kitGrab optional items that sit on your route

Ammo is a routing problem as much as a combat one. Reserves stay tight enough that constant gun swapping is normal, so avoid dumping rounds into enemies you can walk past, and save the heavy weapons for rooms you cannot skirt. That discipline keeps you calm in the battery room, where the only thing standing between you and progress is a three-number split.

Applying These Solutions Beyond the First Board

The puzzles in the playable demo are described as fairly simple, and the battery board is the clearest example of why: the logic is readable, but the presentation makes you second-guess it. The transferable method behind all the DERELIKT puzzle solutions on this page is a short loop — identify the fixed elements, identify the one variable you control, find the numeric condition the game states out loud, then verify your work against that condition before declaring victory.

If you are stuck on a later board, resist the urge to brute-force tile placement. Ask three questions instead: what can I move, what must match, and what has to balance? On the battery puzzle those answers are "wire tiles," "polarity," and "arrow totals." Most environmental obstacles in a compact horror shooter follow the same shape, and treating them as small logic problems rather than as mysteries keeps your momentum.

Documented solutions beyond the demo battery room are still thin on the ground, so the honest answer for later puzzles is that the rules on the board are your best guide. Read interactables, check the map, and re-read the prompt text — this game does not hide its conditions in obscure lore.

FAQ

What is the solution to the first battery puzzle in DERELIKT? Put the 1-arrow box and the 2-arrow box on one route and the 3-arrow box on the other. Both routes then carry three arrows of resistance, and you connect the positive pole to the positive terminal and the negative pole to the negative terminal. Closing both balanced routes awards the 1.21 gigawatts trophy.

Do I need an exact tile layout to solve it? No. Any wiring that keeps each arrow box on a single route, matches polarity on both sides, and gives both paths the same arrow total will work. Understanding the arithmetic is more reliable than copying a screenshot, since your starting tile positions differ.

Why does the board do nothing when both ends look connected? Reaching both terminals is only half the requirement. If you connected everything but the arrow totals differ between routes, the circuit stays open. Recount the arrows on each path and move a box until both sides match.

Where can I find more DERELIKT puzzle solutions? The demo's puzzles are described as straightforward, and the battery board is the best-documented example so far. For anything beyond it, rely on the stated conditions on the board itself, check interactables, and use the map when a room dead-ends — clear written solutions for later puzzles are still limited.