gamedev-skills/awesome-gamedev-agent-skills

card-game

Build a card game: card data, deck/hand/discard zones, draw/shuffle/reshuffle, a turn structure, costs, and effect resolution.

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사용 방법

  1. 설치 명령을 복사하고 자신의 에이전트 환경에 설치하기 전에 소스 패키지를 확인하세요.
  2. 필요한 도구, 인증 정보, 지원 환경은 원본 문서에서 확인하세요.
  3. 입력과 원하는 산출물을 설명하고 출처와 결과를 대조하세요.
npx skills add https://github.com/gamedev-skills/awesome-gamedev-agent-skills --skill card-game

시작 전 확인

  • 설치에는 모델 구독, API 한도, 파일 접근 권한이 포함되지 않습니다.
  • 별점 수와 설치 수는 활동 지표이며 독립적인 품질·보안 검증이 아닙니다.
원본 Skill 문서

원본 저장소의 제목, 예시, 코드, 표, 링크, 이미지를 유지해 표시합니다.

Card Game

A playbook for card games — card data, the deck/hand/discard zones, the turn structure, and how card effects resolve. This is a compositional skill: it models cards as data and wires them to UI. It does not re-teach data assets or UI nodes; it defines the zone model, the draw machinery, and the effect-resolution rules that keep a card game correct and bug-free.

When to use

  • Use when building any game where the core objects are cards moving between zones

(deck → hand → play → discard): deckbuilder, TCG/CCG, solitaire, roguelike deckbuilder.

  • Use when designing draw/shuffle/reshuffle, turn structure, card costs, or how effects resolve.

When not to use:* board/tile state with matching rules → puzzle. RPG with an incidental card battler → start from rpg. For defining cards as assets, use godot-resources / unity-scriptableobjects; for the hand/drag UI, use godot-ui-control.

Core loop

Draw to your hand → spend resources to play cards → effects resolve and change the board → end the turn (cleanup/discard) → opponent/next phase → repeat until a win condition. Depth comes from the combinations a hand allows; the engine's job is to resolve them unambiguously.

Must-have systems

  1. Card data — id, name, cost, type, text, and an effect spec (data, not code).
  2. Zones — deck (draw pile), hand, play/board, discard, exile/removed; cards live in exactly one.
  3. Draw + shuffle + reshuffle — draw from deck to hand; reshuffle discard into deck when empty.
  4. Turn structure — phases (untap/draw/main/combat/end) as a state machine.
  5. Resource system — mana/energy/actions that gate how much you do per turn.
  6. Effect resolution — apply a card's effects in a defined order; handle targets and triggers.
  7. Win/loss condition — life total, deck-out, objective.
  8. UI — hand layout, drag/drop or tap-to-play, zone counts, targeting affordances.

Design knobs

KnobEffectNotes
Starting hand / draw-per-turntempo, consistencyMore draw = less variance.
Hand size limithoarding vs. useDiscard down at end of turn.
Deck size (min)consistencySmaller = more reliable combos.
Resource curvewhat's playable when"Mana curve" paces power.
Card rarity / power budgetbalanceStronger cards cost more / are rarer.
Determinism vs. randomnessskill vs. swingShuffle + random effects add variance.
Reshuffle rulesdeck-out, fatigueReshuffle discard, or punish empty deck.
Removal / answerscounterplayEvery threat needs an answer in the pool.

Patterns

1. Zones + draw with automatic reshuffle

python
# Pseudocode. A card is in exactly one zone at a time; moving = remove here, add there.
def draw(n):
    for _ in range(n):
        if not deck:
            if not discard:          # truly empty: deck-out (lose, or take fatigue)
                on_deck_out(); return
            deck.extend(discard)     # reshuffle discard into deck
            discard.clear()
            shuffle(deck, rng)       # use a seeded RNG (see save-systems for replays)
        hand.append(deck.pop())

2. Card as data + effect resolution

python
# Pseudocode. Effects are a data list interpreted by the engine — not bespoke code per card.
card = {
    "id": "fireball", "cost": 3, "type": "spell",
    "effects": [ {"op": "damage", "amount": 6, "target": "chosen_enemy"} ],
}
def play(card, caster):
    if resources[caster] < card.cost: return False     # can't afford
    resources[caster] -= card.cost
    move(card, from_zone=hand, to_zone=play_or_discard(card))
    for fx in card.effects:
        resolve_effect(fx, caster)                      # one interpreter handles every card
    return True

3. Turn structure as a phase machine

python
# Pseudocode. Fixed phases keep timing windows (triggers, priority) unambiguous.
PHASES = ["untap", "draw", "main", "combat", "end"]
def take_turn(player):
    for phase in PHASES:
        enter_phase(player, phase)        # fire "on_phase" triggers here
        if phase == "draw":   draw(1)
        if phase == "main":   await player_plays_cards()
        if phase == "combat": resolve_combat()
        if phase == "end":    discard_to_hand_limit(player); clear_temporary_effects()

Pitfalls / failure modes

  • A card existing in two zones at once → duplication/loss bugs. Enforce "exactly one zone";

move = remove-then-add, and assert no card appears twice.

  • Forgetting to reshuffle → draws silently fail or crash on empty deck. Reshuffle discard,

or define deck-out/fatigue explicitly (Pattern 1).

  • One function per card → unmaintainable and untestable. Make effects data interpreted

by a small set of operations (Pattern 2).

  • Ambiguous effect order / simultaneous triggers → nondeterministic outcomes. Resolve in a

defined order (a queue or stack); document LIFO vs. FIFO (refs).

  • Unseeded shuffle in a game that needs replays/undo → can't reproduce. Use a seeded RNG.
  • No hand limit / no answers → degenerate hoarding or unbeatable threats. Add a hand cap and

ensure removal exists for every threat archetype.

  • Targeting state leaks → a cancelled play leaves the board mid-targeting. Make play

atomic: validate cost + targets first, then commit.

Composition (build it from these skills)

  • Card content: godot-resources / unity-scriptableobjects — define each card as a data asset.
  • UI: game-ui-ux for layout, scaling, and focus navigation; godot-ui-control for hand layout, drag/drop, zone counts, and targeting prompts.
  • Persistence/replays: save-systems for collection, run state (roguelike deckbuilder), and seeded replays.
  • Opponent AI: game-ai for an AI that evaluates playable cards and picks targets.
  • Animation/feedback: the engine animation skill for card movement; audio-design for cues.
  • Scripting: godot-gdscript / unity-csharp-scripting for the effect interpreter.

References

  • For the effect queue/stack, keywords/triggers, targeting, deckbuilder vs. constructed

archetypes, and shuffle fairness, read references/effect-resolution.md.

관련 작업

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