Figma Context MCP
Give your coding agent access to your Figma data. Implement designs in any framework in one-shot.
作者による説明(英語の原文)
LLMs can't draw. This MCP can. Pixel art animation toolkit — draw, animate, compose, export.
この3つを1つのスコアにまとめることはしません。意見、測定、人気はそれぞれ別のものだからです。
このサーバーのやさしい解説はまだ書いていません。以下はレジストリから読み取った事実です。
使っているAIアプリを選んで、設定をコピーしてください。
必要なもの
どのアプリを使っていますか?
上でアプリを選んでください。選んだアプリを覚えておくので、次からはボタンに「…にインストール」と表示されます。
Claude Desktop → Settings → Developer → Edit Config を開き、claude_desktop_config.json にこれを貼り付けます
{
"mcpServers": {
"pixscii": {
"command": "npx",
"args": [
"-y",
"pixscii"
]
}
}
}ターミナルでこれを実行します
claude mcp add pixscii -- npx -y pixsciiプロジェクトの .cursor/mcp.json、または ~/.cursor/mcp.json に貼り付けます
{
"mcpServers": {
"pixscii": {
"command": "npx",
"args": [
"-y",
"pixscii"
]
}
}
}ブラウザがアプリを開いてよいか確認し、そのあとアプリが設定を表示して確認を求めます。キーの値は空欄のままなので、自分で入力してください。
プロジェクトの .vscode/mcp.json に貼り付けます
{
"servers": {
"pixscii": {
"type": "stdio",
"command": "npx",
"args": [
"-y",
"pixscii"
]
}
}
}ブラウザがアプリを開いてよいか確認し、そのあとアプリが設定を表示して確認を求めます。キーの値は空欄のままなので、自分で入力してください。
これはパソコンで動くサーバーですが、ChatGPTがつなげるのはインターネット上のサーバーだけです。ほかのアプリを選んでください。
選んだアプリは、この端末のCookieに保存されます。アカウントは不要です。
この設定は、作者のレジストリ登録情報から作成しています。READMEと違う場合は、READMEに従ってください。
パソコンで動くサーバーです。インストールすると、ツール一覧がAIアプリに表示されます。
誰でも見られる情報をチェックしており、コードは読んでいません。当てはまらない項目は数に入れていません。 · 2026年11月6日にチェック
レジストリ名は、リポジトリを所有するGitHubアカウント rxolve で確認済みです
このリポジトリはまだGitHubから読み取っていません
このリポジトリはまだGitHubから読み取っていません
これはパソコンで動くため、インターネット上のエンドポイントはありません
パソコンで動き、代わりにローカルの設定を使います
パソコンで動くサーバーです。ツール一覧を読み取れるのは、インターネット上のエンドポイントがある場合だけです
レジストリでこのカテゴリにある有効なすべてのサーバーと比較しています。スターは、公開者がリポジトリの所有者である場合だけ数えます。
当てはまる基本チェック1項目のうち1項目に合格しました。コードは読んでいません。キーやトークンを追加する前に、サーバーがどんなアクセスを求めているかを確認し、必要な権限だけを持つキーを使ってください。
レジストリには必須のキーは載っていません。ただし、最初に使うときにサインインを求めるサーバーもあります。
あなたのパソコンで動きます。必要なときにAIアプリが起動し、データは作者のサーバーを通りません(サーバー自体がオンラインサービスを呼び出す場合を除きます)。
GitHubリポジトリの最終更新は–、最新バージョン(0.5.0)がレジストリに届いたのは9 日前です。
Claude Desktop、Claude Code、Cursor、VS CodeなどのMCP対応アプリで使えます。パソコンにNode.jsも必要です。
同じカテゴリには:Figma Context MCP, Claude Real Video, Figma MCP Server
同じカテゴリで、ほかの作者が作ったサーバー。スターの多い順。
カードの見方:★ GitHubスターi3つの柱:レビュー · チェック · 利用状況i更新=最新バージョンをレジストリに公開した日i
Give your coding agent access to your Figma data. Implement designs in any framework in one-shot.
Let any LLM watch a video locally — and search everything it has ever watched.
The Figma MCP server brings Figma design context directly into your AI workflow.
作者のリポジトリから書かれたとおりにコピーしたものです。PopNx MCPは内容を確認・推奨していません。HTML、画像、スクリプトは取り除いています。リンクはこのサイトの外へ移動します。
LLMs can't draw. This MCP can. A pixel art animation toolkit for AI agents.
Sister project of artscii. While artscii provides terminal ASCII art, pixscii gives AI agents a full pixel art workbench — generate characters, animate scenes, draw sprites, and export PNGs. Offline, deterministic, zero latency.
animate_scene {
"width": 128, "height": 48, "background": { "tiles": [["tree","grass","grass","sand","stone","wall","wall","door"]] }, "actors": [ { "seed": "hero", "species": "human", "armor": "plate", "weapon": "sword", "motion": "walk", "from": {"x":0,"y":28}, "to": {"x":96,"y":28} }, { "seed": "mage", "species": "elf", "armor": "cloth", "weapon": "staff", "motion": "walk", "from": {"x":-16,"y":30}, "to": {"x":72,"y":30} }, { "seed": "guard", "species": "skeleton", "motion": "idle", "from": {"x":108,"y":28}, "to": {"x":108,"y":28} } ], "frames": 24, "delay": 150 }
One tool call. 3 characters, tiled background, 24 frames. 9ms.
The LLM translates a scene description into structured input. pixscii executes it instantly.
npx pixscii
Or add to your MCP client config:
{
"mcpServers": { "pixscii": { "command": "npx", "args": ["-y", "pixscii"] } } }
| Tool | Description |
|---|---|
animate_scene | Text description → animated scene with characters, background, and motion |
| Tool | Description |
|---|---|
create | New blank canvas with optional fill color |
get | Load a bundled sprite into an editable canvas |
character | Generate a procedural pixel character |
convert | Quantize any image (URL or base64) to pixel art |
search | Browse the sprite library |
creature | Endless symmetric robots, aliens and critters from a mask and a seed, or an asymmetric nebula |
being | A 24×24 person, cat or elf as a baby, an adult or old |
landscape | Generate a landscape from a seed: sky by time of day, sun or moon, stars, clouds, mountains, hills, sea, forest, ground, rain |
| Tool | Description |
|---|---|
pixel | Set individual pixels (batch up to 512) |
line | Bresenham line between two points |
rect | Rectangle — outline or filled |
fill | Flood fill from a point (with leak detection) |
mirror | Mirror left half to right half |
shapes | Draw geometry as crisp pixel art: rect, circle, ellipse, polygon, line, curve, with dithered fills and gradients |
undo | Revert the last drawing operation |
| Tool | Description |
|---|---|
inspect | View the canvas as a hex character grid |
| Tool | Description |
|---|---|
sequence | Animate actors across a scene with per-frame positions |
compose | Layer multiple canvases/sprites into a scene |
tilemap | Build a map from a tile grid |
spritesheet | Stitch frames into a single PNG (horizontal/vertical/grid) |
animate | Animate a sprite with pixel motion (idle, walk, attack...) |
export | Render a canvas to scaled PNG |
| Tool | Description |
|---|---|
palettes | List palettes and their named slots (filter by schema) |
repalette | Switch a canvas to another palette: same schema keeps pixels, others map by slot name or nearest color |
LLMs can't place pixels well, but they write coordinates fine. shapes rasterizes geometry at pixel centers with no anti-aliasing, so every pixel is one palette index. Soft fills come from ordered dithering:
shapes {
"width": 128, "height": 72, "palette": "scene-dusk", "shapes": [ { "type": "rect", "x": 0, "y": 0, "w": 128, "h": 46, "fill": { "gradient": ["sky-top", "sky-mid", "sky-low"] } }, { "type": "circle", "cx": 92, "cy": 40, "r": 9, "fill": "sun" }, { "type": "polygon", "points": [[0,46],[22,26],[40,38],[62,20],[90,42],[128,40],[128,48],[0,48]], "fill": "far" }, { "type": "rect", "x": 0, "y": 46, "w": 128, "h": 26, "fill": { "gradient": ["water", "near"] } }, { "type": "curve", "points": [[34,56],[44,44],[56,56]], "color": "accent" } ] }
Then repalette to scene-sea or scene-night for the same picture in another mood. In code: drawShapes(sprite, shapes, palette).
landscape builds a whole scene from a seed in the scene schema, so one seed is one place you can show in any mood:
landscape { "seed": "harbor-town", "preset": "dusk" }
landscape { "seed": "harbor-town", "preset": "dusk", "palette": "scene-night" } landscape { "seed": "pine-ridge", "time": "dawn", "layers": ["sky", "sun", "mountains", "forest", "ground"] }
Presets match the scene palettes: dawn, home, school, night, sea, storm, window, forest, dusk, stars. Layers: sky (dithered gradient), stars, sun or moon (with a halo, and glitter on water), clouds, mountains (midpoint-displacement ridge), hills (value noise), sea (waves), forest (pines and round trees), ground, rain. Default size 128×72. In code: landscape({ seed, preset }).
creature mirrors a mask filled by the seed (body, maybe-body, empty), drops stray pixels, outlines it, lights it from the top and gives it eyes. Kinds: robot, alien, critter, plus nebula (asymmetric noise cloud with caught stars). being draws a person, cat or elf at a life stage from shapes: babies have big heads and no legs, old people white hair and a cane, old elves a staff, old cats a rounder body and a lowered tail.
creature { "seed": "voyager-7", "kind": "robot" }
being { "species": "elf", "stage": "old", "palette": "scene-forest" }
Both use the scene schema, so they sit on a landscape in the same palette.
Layer 1: animate_scene → full scene in one call (fast path)
Layer 2: sequence/compose → manual frame composition (precise control) Layer 3: pixel/line/rect → individual pixel editing (full control)
Start with animate_scene for a fast draft. Drop to lower layers to refine.
→ animate_scene {
width: 80, height: 40, background: { tiles: [["grass","grass","stone","wall","door","wall"]] }, actors: [{ seed: "hero-girl", species: "human", armor: "cloth", motion: "walk", from: {x:0, y:24}, to: {x:60, y:24} }], frames: 16, delay: 120 } ← 16 frame PNGs + frame_ids
→ spritesheet { frames: [frame_ids], direction: "horizontal" } ← single strip PNG with all 16 frames
Two calls: one to generate, one to assemble. Done.
→ create { width: 16, height: 16, fill: "." }
← canvas_id + hex grid
→ rect { canvas_id, x: 3, y: 5, w: 10, h: 9, color: "1" } → fill { canvas_id, x: 7, y: 7, color: "8" } ← filled: 56 pixels, leaked: false (grid returned — agent verifies)
→ inspect { canvas_id } ← agent reads grid, spots issue, fixes with pixel tool
→ export { canvas_id, scale: 4 } ← 64x64 PNG
Every pixel is one character. The agent reads and writes in the same alphabet:
0-F = PICO-8 palette colors (0=black, 7=white, 8=red, ...)
. = transparent
0123456789ABCDEF 0: ................ 1: .....111111..... 2: .....177771..... 3: .....177771..... 4: ...1111111111... 5: ...1888888881... 6: ...1788888881...
~80 tokens for a full 16x16 sprite. The LLM reads this like source code and reasons about it spatially.
22 sprites across 4 categories:
648 procedural characters: 4 species (human, elf, dwarf, skeleton) x 3 armors x 3 weapons x 3 helms x 6 skin tones.
13 palettes: pico8 (default), grayscale, gameboy, and 10 scene moods (scene-dawn, home, school, night, sea, storm, window, forest, dusk, stars)
The scene palettes share one schema: the same 16 named slots (ink, sky-top, sky-mid, sky-low, sun, cloud, far, mid, near, ground, water, foam, accent, skin, cloth, light). Draw once with those slots, then render with any scene palette to get the same picture in another mood. In code: SCENE.ground, slotIndex(palette, 'water'), remapPalette(sprite, from, to).
6 motion types: idle, walk, attack, hurt, bounce, blink
npx pixscii import sprite.png --id my-sword --category items
npx pixscii export sword --scale 4 --out sword.png
pixscii/coreEverything that draws, composes and renders also runs without Node. pixscii/core has no Node built-ins, no sharp and no MCP:
import { createEmpty, drawRect, registerPalette, getPalette, renderToRGBA } from 'pixscii/core';
registerPalette({ id: 'dusk', name: 'Dusk', colors: [ { index: 0, hex: '#1A1016', name: 'sky' }, { index: 1, hex: '#E88FB0', name: 'sun' }, { index: 2, hex: '#3A2433', name: 'ground' }, ], });
let scene = createEmpty(32, 18, 0); scene = drawRect(scene, 13, 4, 6, 6, 1, true); scene = drawRect(scene, 0, 12, 32, 6, 2, true);
const { width, height, data } = renderToRGBA(scene, getPalette('dusk'), 8); canvas.getContext('2d')!.putImageData(new ImageData(new Uint8ClampedArray(data), width, height), 0, 0);
Bundled sprites, palettes and characters load through an asset source. In Node the MCP server and CLI use the files in sprites/. Elsewhere, pass anything that can read those files:
import { setAssetSource, loadPalettes } from 'pixscii/core';
setAssetSource({ readJSON: (file) => fetch(/pixscii/sprites/${file}).then((r) => r.json()), list: async (dir) => (dir === 'palettes' ? ['pico8.json', 'gameboy.json', 'grayscale.json'] : []), }); await loadPalettes();
npm install
npm run dev # Start MCP server (stdio) npm run build # Compile TypeScript npm test # Run tests
src/core/ pure TypeScript, runs anywhere (exported as pixscii/core) src/node/ sprites/ on disk, PNG encode and image import (sharp), CLI src/mcp/ MCP server and tools
src/core/boundary.test.ts fails if anything in core imports a Node built-in, sharp, MCP or a file outside core.
See ROADMAP.md for where pixscii is going: shapes, procedural landscapes and creatures.
MIT