gamedev-skills/awesome-gamedev-agent-skills

level-design

Design and build playable levels — the blockout/whitebox-to-playable workflow, player metrics and grid layout, pacing and flow (tension/rest curve), gating and the critical path, and encounter design.

Quelltext ansehen

Verwendung

  1. Installationsbefehl kopieren und das Quellpaket vor der Installation in der eigenen Agentenumgebung prüfen.
  2. Benötigte Werkzeuge, Zugangsdaten und Hosts im Original prüfen.
  3. Eingabe und gewünschtes Ergebnis beschreiben und die Ausgabe mit den Quellen abgleichen.
npx skills add https://github.com/gamedev-skills/awesome-gamedev-agent-skills --skill level-design

Vor dem Start

  • Die Installation umfasst weder Modellabo noch API-Kontingent oder Dateizugriffsrechte.
  • Sterne und Installationen zeigen Aktivität, keine unabhängige Qualitäts- oder Sicherheitsprüfung.
Originales Skill-Dokument

Aus dem Quell-Repository gerendert; Überschriften, Beispiele, Code, Tabellen, Links und Bilder bleiben erhalten.

Level design

A level is a sequence of intentional experiences delivered through space. Good level design is a process: define the metrics movement is built on, block out geometry with primitives, play it, then dress it — never the reverse. This skill is the engine-neutral practice; use godot-tilemap/unity-tilemap-2d to lay out 2D grids and gridmaps for 3D.

When to use

  • Use to plan a level's structure: critical path, pacing, gating, encounters,

and where the player learns vs is tested.

  • Use the blockout → test → iterate → dress workflow to build a level that

plays well before any art exists.

  • Use to derive level metrics from the character's movement so geometry is

reachable and fair.

When not to use: to generate* levels algorithmically, use procedural-gen (authored and procedural design are complementary). For the engine's tile/grid painting tools, use godot-tilemap / unity-tilemap-2d. For the movement abilities the metrics come from, that's the engine movement skill + input-systems.

Core workflow

  1. Derive metrics first. Measure the character: max jump height and distance,

run speed, reach, camera range. Every gap, ledge, and corridor is sized in these units. Lock them before building geometry.

  1. Blockout (whitebox/greybox). Build the whole level from untextured

primitives at correct scale. Validate flow, sightlines, and reachability while changes are cheap. No art yet. Tools: Godot CSGBox3D and friends with use_collision on (prototype only: the docs flag their CPU cost, so bake to static meshes later), Unity's ProBuilder package (com.unity.probuilder), Unreal's Modeling Mode (Cube Grid), and a plain grey tileset for 2D.

  1. Define the critical path (start → goal) and the golden path you expect

most players to take. Layer optional/secret paths off it.

  1. Pace the experience. Alternate tension and rest in a deliberate curve;

don't run combat-combat-combat. Give the player room to breathe and to anticipate.

  1. Teach, then test. Introduce each mechanic in a safe space, let the player

practice, then test it under pressure. Difficulty rises in a sawtooth, not a straight line.

  1. Gate with intent. Use locks/keys, abilities, and one-way drops to control

order and pacing; guide with light, lines, and landmarks rather than walls.

  1. Playtest and iterate. Watch real players: where do they get lost, stuck,

bored, or killed unfairly? Fix the blockout; only dress when it plays well.

Patterns

1. Player metrics drive every dimension

gdscript
# Derive the metrics from the SAME constants the character controller uses, then
# size geometry in these units. If the jump changes, the numbers follow.
const RUN_SPEED      := 240.0   # px/s (or m/s in 3D)
const JUMP_VELOCITY  := 420.0   # initial upward speed of a full jump
const GRAVITY        := 980.0   # px/s², the value the controller applies
const MAX_JUMP_H     := JUMP_VELOCITY * JUMP_VELOCITY / (2.0 * GRAVITY)  # 90: peak height
const AIR_TIME       := 2.0 * JUMP_VELOCITY / GRAVITY   # ~0.86 s, take-off to same height
const MAX_JUMP_DIST  := RUN_SPEED * AIR_TIME            # ~206: running jump, level ground
const SAFE_GAP       := MAX_JUMP_DIST * 0.7   # comfortable, not pixel-perfect
const HARD_GAP       := MAX_JUMP_DIST * 0.95  # a deliberate skill check
# Build platforms so required jumps use SAFE_GAP; reserve HARD_GAP for optional reward.

The formulas are the ideal arc. Variable jump height, a separate fall gravity, air acceleration, the fixed physics step and the collider's width all move the real numbers, and landing higher shortens the reach. Confirm them once in a test room with a measured gap ladder, then treat the measured values as the truth. A platform placed MAX_JUMP_DIST + 1 away is impossible; one at SAFE_GAP is fair. Keep these constants beside the level data so designers and code agree.

2. Encounter / pacing as data (a tension timeline)

gdscript
# Author the level as a sequence of beats with an intended intensity (0..1).
# This makes the pacing curve explicit and reviewable before you build rooms.
const BEATS := [
    { "room": "entry",      "type": "teach",   "intensity": 0.1 },
    { "room": "hall_1",     "type": "combat",  "intensity": 0.5 },
    { "room": "vista",      "type": "rest",    "intensity": 0.1 },  # breather + reward
    { "room": "gauntlet",   "type": "combat",  "intensity": 0.8 },
    { "room": "save_room",  "type": "rest",    "intensity": 0.2 },  # before the boss
    { "room": "boss",       "type": "climax",  "intensity": 1.0 },
]
# Read the intensity column top-to-bottom: it should rise overall but dip for rests
# (a sawtooth), never flatline high. Drive spawns/music intensity from this.

3. Gating and the critical path (a small graph)

gdscript
# Model the level as rooms + gated connections. Validate that the goal is
# reachable with the keys/abilities the player can actually obtain in order.
const ROOMS := {
    "entry":   { "exits": [ { "to": "hall_1" } ] },
    "hall_1":  { "exits": [ { "to": "vista", "needs": "double_jump" },
                            { "to": "side_room" } ] },           # optional branch
    "side_room": { "exits": [ { "to": "hall_1" } ], "grants": "double_jump" },
    "vista":   { "exits": [ { "to": "boss", "needs": "red_key" } ] },
}

# Grow the reachable set until nothing new opens: collect what each reached room
# grants, then follow every exit whose `needs` is already held. Assumes keys are
# never used up and doors never re-lock; model consumable keys as counts.
func goal_reachable(rooms: Dictionary, start: String, goal: String) -> bool:
    var have := {}                                 # keys/abilities collected
    var reached := {start: true}
    var changed := true
    while changed:
        changed = false
        for room in reached.keys():
            var info: Dictionary = rooms.get(room, {})
            var grant = info.get("grants")
            if grant != null and not have.has(grant):
                have[grant] = true
                changed = true
            for exit in info.get("exits", []):
                var open: bool = not exit.has("needs") or have.has(exit["needs"])
                if open and not reached.has(exit["to"]):
                    reached[exit["to"]] = true
                    changed = true
    return reached.has(goal)
# goal_reachable(ROOMS, "entry", "boss") is FALSE for the table above: no room
# grants "red_key". That is exactly the soft-lock this check exists to catch.
# Run it in a test or editor tool whenever the room graph changes.

Pitfalls

  • Dressing before it plays. Detailing a blockout you haven't validated wastes

the most expensive work on a layout you'll change. Greybox and test first.

  • Geometry that ignores metrics: gaps the jump can't clear, ledges below

reach, corridors narrower than the camera needs. Size everything in player units.

  • Flat pacing. Wall-to-wall combat (or wall-to-wall calm) numbs the player.

Alternate tension and rest; place a breather and a save before the climax.

  • Testing a mechanic before teaching it. Players meet a hazard for the first

time in a lethal spot. Introduce safely, let them practice, then test.

  • Soft-locks and dead ends. A gate needs an ability/key obtainable only past

the gate. Validate the critical path's key/ability order, not just connectivity.

  • No readability / guidance. Players get lost when nothing draws the eye. Use

light, leading lines, color, and landmarks to point toward the path.

  • One-way drops with no signposting strand or surprise players. Telegraph

irreversible moves.

  • Confusing procedural with authored. Generation gives variety, not

authored pacing. Use procedural-gen for variety; hand-author for intent.

References

  • references/pacing-and-flow.md — the difficulty/tension curve in depth,

teaching-loop design (introduce→develop→twist→test), readability and guidance techniques, 2D vs 3D layout considerations, and a blockout review checklist.

Related skills

  • godot-tilemap, unity-tilemap-2d — paint 2D level grids; gridmaps for 3D.
  • procedural-gen — generate variety to complement authored structure.
  • game-ai — encounter enemies that navigate the space you build.
  • platformer, puzzle, roguelike — genres that compose this skill.
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