Vase Creator

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Builds a triangle mesh from the profile config\n * and emits a binary STL.\n */\n\nimport type { Cfg } from \"./types.ts\";\nimport { applyRib, applyWedge, smoothInterp } from \"./geometry.ts\";\n\nconst N_RINGS = 80;\nconst N_SEGS = 96;\n\ntype V3 = [number, number, number];\n\nfunction buildOuterRings(cfg: Cfg): V3[][] {\n const outer = applyWedge(cfg.points, cfg);\n const sm = smoothInterp(outer, N_RINGS);\n const rings: V3[][] = [];\n for (const [r, z] of sm) {\n const ring: V3[] = [];\n for (let i = 0; i < N_SEGS; i++) {\n const a = (i / N_SEGS) * Math.PI * 2;\n const rr = applyRib(r, a, z, cfg, \"outer\");\n ring.push([rr * Math.cos(a), rr * Math.sin(a), z]);\n }\n rings.push(ring);\n }\n return rings;\n}\n\nfunction buildInnerRings(cfg: Cfg, totalH: number): V3[][] | null {\n if (cfg.boreMode === \"constant\" && cfg.boreRadius > 0) {\n const z0 = cfg.floorThickness;\n const rings: V3[][] = [];\n for (let row = 0; row < N_RINGS; row++) {\n const z = z0 + (totalH - z0) * row / (N_RINGS - 1);\n const ring: V3[] = [];\n for (let i = 0; i < N_SEGS; i++) {\n const a = (i / N_SEGS) * Math.PI * 2;\n const rr = applyRib(cfg.boreRadius, a, z, cfg, \"inner\");\n ring.push([rr * Math.cos(a), rr * Math.sin(a), z]);\n }\n rings.push(ring);\n }\n return rings;\n }\n if (cfg.boreMode === \"profile\" && cfg.innerPoints && cfg.innerPoints.length >= 2) {\n const sm = smoothInterp(cfg.innerPoints, N_RINGS);\n const rings: V3[][] = [];\n for (const [r, z] of sm) {\n const ring: V3[] = [];\n for (let i = 0; i < N_SEGS; i++) {\n const a = (i / N_SEGS) * Math.PI * 2;\n const rr = applyRib(r, a, z, cfg, \"inner\");\n ring.push([rr * Math.cos(a), rr * Math.sin(a), z]);\n }\n rings.push(ring);\n }\n return rings;\n }\n return null;\n}\n\nfunction collectTris(cfg: Cfg, outerVerts: V3[][], innerVerts: V3[][] | null): [V3, V3, V3][] {\n const tris: [V3, V3, V3][] = [];\n // Outer wall (CCW outward)\n for (let row = 0; row < N_RINGS - 1; row++) {\n for (let i = 0; i < N_SEGS; i++) {\n 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innerVerts[0][i]]);\n }\n } else if (innerVerts) {\n for (let i = 0; i < N_SEGS; i++) {\n const j = (i + 1) % N_SEGS;\n const a = outerVerts[0][i], b = outerVerts[0][j];\n const c = innerVerts[0][j], d = innerVerts[0][i];\n tris.push([a, b, c]);\n tris.push([a, c, d]);\n }\n } else {\n const center: V3 = [0, 0, outerVerts[0][0][2]];\n for (let i = 0; i < N_SEGS; i++) {\n const j = (i + 1) % N_SEGS;\n tris.push([outerVerts[0][i], center, outerVerts[0][j]]);\n }\n }\n // Top\n if (innerVerts) {\n const lo = outerVerts[N_RINGS - 1];\n const li = innerVerts[innerVerts.length - 1];\n for (let i = 0; i < N_SEGS; i++) {\n const j = (i + 1) % N_SEGS;\n const a = lo[i], b = lo[j], c = li[j], d = li[i];\n tris.push([a, c, b]);\n tris.push([a, d, c]);\n }\n } else {\n const lo = outerVerts[N_RINGS - 1];\n const center: V3 = [0, 0, lo[0][2]];\n for (let i = 0; i < N_SEGS; i++) {\n const j = (i + 1) % N_SEGS;\n tris.push([lo[i], lo[j], center]);\n }\n }\n return tris;\n}\n\nfunction encodeBinary(tris: [V3, V3, V3][]): Uint8Array {\n const triCount = tris.length;\n const buf = new ArrayBuffer(80 + 4 + triCount * 50);\n const view = new DataView(buf);\n view.setUint32(80, triCount, true);\n let off = 84;\n for (const [a, b, c] of tris) {\n const ux = b[0] - a[0], uy = b[1] - a[1], uz = b[2] - a[2];\n const vx = c[0] - a[0], vy = c[1] - a[1], vz = c[2] - a[2];\n let nx = uy * vz - uz * vy;\n let ny = uz * vx - ux * vz;\n let nz = ux * vy - uy * vx;\n const len = Math.hypot(nx, ny, nz) || 1;\n nx /= len; ny /= len; nz /= len;\n view.setFloat32(off, nx, true);\n view.setFloat32(off + 4, ny, true);\n view.setFloat32(off + 8, nz, true);\n view.setFloat32(off + 12, a[0], true);\n view.setFloat32(off + 16, a[1], true);\n view.setFloat32(off + 20, a[2], true);\n view.setFloat32(off + 24, b[0], true);\n view.setFloat32(off + 28, b[1], true);\n view.setFloat32(off + 32, b[2], true);\n view.setFloat32(off + 36, c[0], true);\n view.setFloat32(off + 40, c[1], true);\n 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Client-side viewer script: JSCAD modeling + Three.js rendering */\nimport { getExampleGeneratorJS } from \"./examples.ts\";\n\nexport function getViewerScript(): string {\n return `\n \n `;\n}\n","label",[152],"e5cf0834-4634-11f1-b0f2-42b51c65c3df","vase-creator.tsx","0ec5b1a0-4632-11f1-a8ee-42b51c65c3df",265,["D",1777732843284],"http","/**\n * Vase Creator — profile-driven solid-of-revolution generator with optional\n * helical strengthening ribs, designed for spiral-vase-mode printing.\n *\n * Lives inside the stl-creator val as a separate HTTP endpoint.\n *\n * Input: profile points (radius, height pairs). Smoothed via Catmull-Rom.\n * Output: binary STL solid of revolution.\n *\n * Press-fit redesign for vase mode: single-perimeter walls can't have a\n * traditional plug-and-socket joint. Instead, each half has a gentle\n * tapered overlap region (a wedge fit). The bottom piece tapers IN over\n * its top ~15mm; the top piece tapers OUT over its bottom ~15mm. They\n * interfere across a shared overlap zone, held by friction + ribs.\n */\n\nimport { Hono } from \"npm:hono@4\";\n\nconst app = new Hono();\n\n// ─────────────────────────────────────────────────────────────────────────\n// Profile presets (seeded with V2 mini PET 0.5L)\n// ─────────────────────────────────────────────────────────────────────────\n\nconst PRESETS = {\n v2_mini_bottom: {\n name: \"V2 mini PET 0.5L — Bottom (vase)\",\n points: [\n [42, 0],\n [40, 20],\n [37.5, 60],\n [37, 100],\n [37, 120],\n ] as [number, number][],\n boreMode: \"constant\",\n boreRadius: 33.5,\n innerPoints: null,\n floorThickness: 0,\n ribCount: 6,\n ribDepth: 1.5,\n ribWidth: 6,\n ribSide: \"outer\",\n splitMode: \"bottom\",\n wedgeOverlap: 15,\n wedgeTaper: 0.5,\n },\n v2_mini_top: {\n name: \"V2 mini PET 0.5L — Top (vase)\",\n points: [\n [37, 0],\n [37, 55],\n [22, 95],\n [35, 120],\n ] as [number, number][],\n boreMode: \"profile\",\n boreRadius: 0,\n innerPoints: [\n [34, 0],\n [34, 55],\n [16, 95],\n [30, 120],\n ] as [number, number][],\n floorThickness: 0,\n ribCount: 6,\n ribDepth: 1.5,\n ribWidth: 6,\n ribSide: \"outer\",\n splitMode: \"top\",\n wedgeOverlap: 15,\n wedgeTaper: 0.5,\n },\n blank: {\n name: \"Blank\",\n points: [[20, 0], [20, 50]] as [number, number][],\n boreMode: \"constant\",\n boreRadius: 17,\n innerPoints: null,\n floorThickness: 1.2,\n ribCount: 0,\n ribDepth: 1.5,\n ribWidth: 6,\n ribSide: \"outer\",\n splitMode: \"none\",\n wedgeOverlap: 0,\n wedgeTaper: 0,\n },\n};\n\napp.get(\"/\", (c) => c.html(htmlPage()));\napp.get(\"/api/presets\", (c) => c.json(PRESETS));\napp.post(\"/api/stl\", async (c) => {\n const cfg = await c.req.json();\n const stl = generateSTL(cfg);\n return new Response(stl, {\n headers: {\n \"content-type\": \"model/stl\",\n \"content-disposition\": `attachment; filename=\"${cfg.filename || \"vase\"}.stl\"`,\n },\n });\n});\n\nexport default app.fetch;\n\n// ─────────────────────────────────────────────────────────────────────────\n// HTML\n// ─────────────────────────────────────────────────────────────────────────\n\nfunction htmlPage(): string {\n return /* html */ `\n\nVase Creator\n\n\n\n

Vase Creator

Preset

Filename

Profile

Ribs

Joint

One point per line: radius, height. Lowest first. Catmull-Rom interpolated.

Outer profile

\n \n

Inner bore

Bore mode\n \n

Bore radius\n

\n \n

Floor thickness\n

Helical thickenings for vase-mode rigidity. Outer ribs add visual interest; inner ribs grip a bottle.

Count\n

Depth (mm)\n

Width (mm)\n

Side\n \n

For two-piece vase prints. The bottom's top tapers inward; the top's bottom tapers outward. They wedge together over an overlap zone.

Mode\n \n

Overlap (mm)\n

Taper (mm)\n

0.3–0.5mm taper over 15mm typical. Tighter = stiffer fit but riskier slip-through.

\n \n \n

\n \n

\n\n`;\n}\n\nfunction clientJS(): string {\n return /* js */ `\nimport * as THREE from \"https://esm.sh/three@0.160.0\";\n\nlet presets = {};\nlet cfg = null;\nlet cam = { rotX:-1.0, rotY:0.5, dist:250, panX:0, panY:0 };\nconst $ = id => document.getElementById(id);\n\n// Three.js objects (lazy-initialized on first 3D render)\nlet three = null;\n\nasync function init() {\n presets = await fetch(\"/api/presets\").then(r => r.json());\n const sel = $(\"preset\");\n for (const k in presets) {\n const o = document.createElement(\"option\");\n o.value = k; o.textContent = presets[k].name;\n sel.appendChild(o);\n }\n sel.value = \"v2_mini_bottom\";\n loadPreset(\"v2_mini_bottom\");\n sel.addEventListener(\"change\", () => loadPreset(sel.value));\n $(\"apply\").addEventListener(\"click\", apply);\n $(\"download\").addEventListener(\"click\", download);\n $(\"boreMode\").addEventListener(\"change\", () => { updateBoreUI(); apply(); });\n $(\"viewMode\").addEventListener(\"change\", switchViewMode);\n $(\"resetView\").addEventListener(\"click\", () => {\n cam = { rotX:-1.0, rotY:0.5, dist:250, panX:0, panY:0 };\n if (three) { three.cam.rotX = -0.5; three.cam.rotY = 0.4; three.cam.zoom = 1; }\n redraw();\n });\n for (const tab of document.querySelectorAll(\".tab\")) {\n tab.addEventListener(\"click\", () => {\n document.querySelectorAll(\".tab\").forEach(t => t.classList.remove(\"active\"));\n document.querySelectorAll(\".tab-pane\").forEach(p => p.classList.remove(\"active\"));\n tab.classList.add(\"active\");\n document.querySelector('.tab-pane[data-tab=\"' + tab.dataset.tab + '\"]').classList.add(\"active\");\n });\n }\n [\"points\",\"innerPoints\",\"boreRadius\",\"floorThickness\",\"ribCount\",\"ribDepth\",\"ribWidth\",\"ribSide\",\"splitMode\",\"wedgeOverlap\",\"wedgeTaper\"].forEach(id => {\n const el = $(id);\n if (el) el.addEventListener(\"change\", apply);\n });\n setupInteractions();\n apply();\n window.addEventListener(\"resize\", redraw);\n}\n\nfunction setupInteractions() {\n // 2D canvas interactions (pan)\n const canvas2d = $(\"preview\");\n let dragging = false, lx = 0, ly = 0;\n canvas2d.addEventListener(\"mousedown\", e => { dragging = true; lx = e.clientX; ly = e.clientY; });\n window.addEventListener(\"mouseup\", () => dragging = false);\n window.addEventListener(\"mousemove\", e => {\n if (!dragging) return;\n const dx = e.clientX - lx, dy = e.clientY - ly;\n lx = e.clientX; ly = e.clientY;\n if ($(\"viewMode\").value === \"3d\" && three) {\n three.cam.rotY += dx * 0.01;\n three.cam.rotX += dy * 0.01;\n three.cam.rotX = Math.max(-Math.PI/2 + 0.05, Math.min(Math.PI/2 - 0.05, three.cam.rotX));\n threeUpdateCamera();\n three.renderer.render(three.scene, three.camera);\n } else {\n cam.panX += dx; cam.panY += dy;\n redraw();\n }\n });\n const wheelHandler = e => {\n e.preventDefault();\n if ($(\"viewMode\").value === \"3d\" && three) {\n three.cam.zoom *= e.deltaY > 0 ? 1.1 : 0.9;\n three.cam.zoom = Math.max(0.2, Math.min(5, three.cam.zoom));\n threeUpdateCamera();\n three.renderer.render(three.scene, three.camera);\n } else {\n cam.dist *= e.deltaY > 0 ? 1.1 : 0.9;\n redraw();\n }\n };\n canvas2d.addEventListener(\"wheel\", wheelHandler, { passive:false });\n $(\"preview3d\").addEventListener(\"mousedown\", e => { dragging = true; lx = e.clientX; ly = e.clientY; });\n $(\"preview3d\").addEventListener(\"wheel\", wheelHandler, { passive:false });\n}\n\nfunction switchViewMode() {\n const mode = $(\"viewMode\").value;\n if (mode === \"3d\") {\n $(\"preview\").style.display = \"none\";\n $(\"preview3d\").style.display = \"block\";\n if (!three) initThree();\n rebuildThreeMesh();\n sizeThree();\n three.renderer.render(three.scene, three.camera);\n } else {\n $(\"preview3d\").style.display = \"none\";\n $(\"preview\").style.display = \"block\";\n redraw();\n }\n}\n\nfunction loadPreset(key) {\n const p = presets[key];\n if (!p) return;\n $(\"filename\").value = key;\n $(\"points\").value = p.points.map(([r,z]) => r + \", \" + z).join(\"\\\\n\");\n $(\"boreMode\").value = p.boreMode;\n $(\"boreRadius\").value = p.boreRadius || 0;\n if (p.innerPoints) $(\"innerPoints\").value = p.innerPoints.map(([r,z]) => r + \", \" + z).join(\"\\\\n\");\n $(\"floorThickness\").value = p.floorThickness ?? 0;\n $(\"ribCount\").value = p.ribCount ?? 0;\n $(\"ribDepth\").value = p.ribDepth ?? 1.5;\n $(\"ribWidth\").value = p.ribWidth ?? 6;\n $(\"ribSide\").value = p.ribSide ?? \"outer\";\n $(\"splitMode\").value = p.splitMode ?? \"none\";\n $(\"wedgeOverlap\").value = p.wedgeOverlap ?? 0;\n $(\"wedgeTaper\").value = p.wedgeTaper ?? 0;\n updateBoreUI();\n apply();\n}\n\nfunction updateBoreUI() {\n const m = $(\"boreMode\").value;\n $(\"boreRadiusRow\").style.display = (m === \"constant\") ? \"\" : \"none\";\n $(\"innerPoints\").style.display = (m === \"profile\") ? \"\" : \"none\";\n}\n\nfunction readCfg() {\n const parsePts = s => s.split(\"\\\\n\").map(l => l.trim()).filter(Boolean)\n .map(l => l.split(/[,\\\\s]+/).map(parseFloat))\n .filter(p => p.length === 2 && !isNaN(p[0]) && !isNaN(p[1]));\n const points = parsePts($(\"points\").value);\n if (points.length < 2) return null;\n return {\n filename: $(\"filename\").value || \"vase\",\n points,\n boreMode: $(\"boreMode\").value,\n boreRadius: parseFloat($(\"boreRadius\").value) || 0,\n innerPoints: $(\"boreMode\").value === \"profile\" ? parsePts($(\"innerPoints\").value) : null,\n floorThickness: parseFloat($(\"floorThickness\").value) || 0,\n ribCount: parseInt($(\"ribCount\").value) || 0,\n ribDepth: parseFloat($(\"ribDepth\").value) || 0,\n ribWidth: parseFloat($(\"ribWidth\").value) || 0,\n ribSide: $(\"ribSide\").value,\n splitMode: $(\"splitMode\").value,\n wedgeOverlap: parseFloat($(\"wedgeOverlap\").value) || 0,\n wedgeTaper: parseFloat($(\"wedgeTaper\").value) || 0,\n };\n}\n\nfunction apply() {\n cfg = readCfg();\n if (!cfg) { $(\"stats\").textContent = \"Need at least 2 profile points.\"; return; }\n const h = cfg.points[cfg.points.length - 1][1];\n const rmax = Math.max(...cfg.points.map(p => p[0]));\n $(\"stats\").textContent = \"Height \" + h.toFixed(1) + \"mm, max radius \" + rmax.toFixed(1) + \"mm.\";\n if ($(\"viewMode\").value === \"3d\" && three) {\n rebuildThreeMesh();\n three.renderer.render(three.scene, three.camera);\n } else {\n redraw();\n }\n}\n\nasync function download() {\n if (!cfg) return;\n const r = await fetch(\"/api/stl\", {\n method: \"POST\",\n headers: { \"content-type\": \"application/json\" },\n body: JSON.stringify(cfg),\n });\n const blob = await r.blob();\n const url = URL.createObjectURL(blob);\n const a = document.createElement(\"a\");\n a.href = url; a.download = cfg.filename + \".stl\";\n a.click();\n URL.revokeObjectURL(url);\n}\n\n// ───────── shared math ─────────\nfunction smoothInterp(pts, n) {\n if (pts.length < 2) return [];\n if (pts.length === 2) {\n const out = [];\n for (let i = 0; i < n; i++) {\n const t = i / (n - 1);\n out.push([pts[0][0] + (pts[1][0] - pts[0][0]) * t, pts[0][1] + (pts[1][1] - pts[0][1]) * t]);\n }\n return out;\n }\n const out = [];\n const total = pts.length - 1;\n for (let i = 0; i < n; i++) {\n const t = i / (n - 1);\n const seg = Math.min(Math.floor(t * total), total - 1);\n const lt = t * total - seg;\n const p0 = pts[Math.max(seg-1, 0)];\n const p1 = pts[seg];\n const p2 = pts[seg+1];\n const p3 = pts[Math.min(seg+2, pts.length-1)];\n const tt = lt*lt, ttt = tt*lt;\n const r = 0.5 * ((2*p1[0]) + (-p0[0]+p2[0])*lt + (2*p0[0]-5*p1[0]+4*p2[0]-p3[0])*tt + (-p0[0]+3*p1[0]-3*p2[0]+p3[0])*ttt);\n const z = 0.5 * ((2*p1[1]) + (-p0[1]+p2[1])*lt + (2*p0[1]-5*p1[1]+4*p2[1]-p3[1])*tt + (-p0[1]+3*p1[1]-3*p2[1]+p3[1])*ttt);\n out.push([r, z]);\n }\n return out;\n}\n\nfunction applyWedge(pts, splitMode, overlap, taper) {\n if (splitMode === \"none\" || taper === 0 || overlap === 0) return pts;\n const h = pts[pts.length-1][1];\n return pts.map(([r, z]) => {\n let dr = 0;\n if (splitMode === \"bottom\" && z >= h - overlap) {\n const u = (z - (h - overlap)) / overlap;\n dr = -taper * u;\n } else if (splitMode === \"top\" && z <= overlap) {\n const u = (overlap - z) / overlap;\n dr = -taper * u;\n }\n return [r + dr, z];\n });\n}\n\nfunction applyRib(r, a, z, cfg, side) {\n if (cfg.ribCount === 0 || cfg.ribDepth === 0 || cfg.ribSide !== side) return r;\n const ribAngularWidth = Math.min(0.6, (cfg.ribWidth / Math.max(r, 0.5)) * 0.5);\n const HELIX_PITCH = 0.02;\n const phase = ((a + z * HELIX_PITCH) * cfg.ribCount) % (Math.PI * 2);\n const dist = Math.min(phase, Math.PI*2 - phase);\n if (dist < ribAngularWidth) {\n const t = 1 - dist / ribAngularWidth;\n const bump = cfg.ribDepth * (Math.cos((1-t) * Math.PI) + 1) * 0.5;\n return side === \"outer\" ? r + bump : r - bump;\n }\n return r;\n}\n\n// ───────── 2D profile drawing ─────────\nfunction redraw() {\n const c = $(\"preview\");\n const w = c.clientWidth, h = c.clientHeight;\n c.width = w * devicePixelRatio; c.height = h * devicePixelRatio;\n const ctx = c.getContext(\"2d\");\n ctx.scale(devicePixelRatio, devicePixelRatio);\n ctx.clearRect(0, 0, w, h);\n if (!cfg) return;\n drawProfile(ctx, w, h);\n}\n\nfunction drawProfile(ctx, w, h) {\n const outer = applyWedge(cfg.points, cfg.splitMode, cfg.wedgeOverlap, cfg.wedgeTaper);\n const sm = smoothInterp(outer, 100);\n const totalH = outer[outer.length-1][1];\n const maxR = Math.max(...outer.map(p => p[0]));\n const margin = 30;\n const sx = (w - 2*margin) / (maxR * 2 + 20);\n const sy = (h - 2*margin) / totalH;\n const s = Math.min(sx, sy) * 0.9;\n const cx = w/2 + cam.panX, cy = h - margin + cam.panY;\n const toScreen = (r, z) => [cx + r*s, cy - z*s];\n\n ctx.strokeStyle = \"#5fa8ff\"; ctx.lineWidth = 2;\n ctx.beginPath();\n sm.forEach(([r,z], i) => { const [x,y] = toScreen(r,z); if (i===0) ctx.moveTo(x,y); else ctx.lineTo(x,y); });\n ctx.stroke();\n ctx.beginPath();\n sm.forEach(([r,z], i) => { const [x,y] = toScreen(-r,z); if (i===0) ctx.moveTo(x,y); else ctx.lineTo(x,y); });\n ctx.stroke();\n\n if (cfg.boreMode === \"constant\" && cfg.boreRadius > 0) {\n ctx.strokeStyle = \"#ff8866\"; ctx.setLineDash([4,4]);\n ctx.beginPath();\n let [x1,y1] = toScreen(cfg.boreRadius, cfg.floorThickness);\n let [x2,y2] = toScreen(cfg.boreRadius, totalH);\n ctx.moveTo(x1,y1); ctx.lineTo(x2,y2);\n [x1,y1] = toScreen(-cfg.boreRadius, cfg.floorThickness);\n [x2,y2] = toScreen(-cfg.boreRadius, totalH);\n ctx.moveTo(x1,y1); ctx.lineTo(x2,y2);\n ctx.stroke(); ctx.setLineDash([]);\n } else if (cfg.boreMode === \"profile\" && cfg.innerPoints) {\n const smI = smoothInterp(cfg.innerPoints, 100);\n ctx.strokeStyle = \"#ff8866\"; ctx.setLineDash([4,4]);\n ctx.beginPath();\n smI.forEach(([r,z], i) => { const [x,y] = toScreen(r,z); if (i===0) ctx.moveTo(x,y); else ctx.lineTo(x,y); });\n ctx.stroke();\n ctx.beginPath();\n smI.forEach(([r,z], i) => { const [x,y] = toScreen(-r,z); if (i===0) ctx.moveTo(x,y); else ctx.lineTo(x,y); });\n ctx.stroke();\n ctx.setLineDash([]);\n }\n\n ctx.fillStyle = \"#5fa8ff\";\n for (const [r, z] of outer) {\n let [x, y] = toScreen(r, z);\n ctx.beginPath(); ctx.arc(x, y, 3, 0, Math.PI*2); ctx.fill();\n [x, y] = toScreen(-r, z);\n ctx.beginPath(); ctx.arc(x, y, 3, 0, Math.PI*2); ctx.fill();\n }\n\n ctx.strokeStyle = \"#292c33\"; ctx.lineWidth = 1; ctx.setLineDash([2, 4]);\n ctx.beginPath();\n let [x1,y1] = toScreen(0, 0); let [x2,y2] = toScreen(0, totalH);\n ctx.moveTo(x1,y1); ctx.lineTo(x2,y2);\n ctx.stroke(); ctx.setLineDash([]);\n\n if (cfg.splitMode !== \"none\" && cfg.wedgeOverlap > 0) {\n ctx.strokeStyle = \"#ffcc44\"; ctx.lineWidth = 1; ctx.setLineDash([6,3]);\n const wz = cfg.splitMode === \"bottom\" ? totalH - cfg.wedgeOverlap : cfg.wedgeOverlap;\n ctx.beginPath();\n ctx.moveTo(margin, cy - wz*s); ctx.lineTo(w - margin, cy - wz*s);\n ctx.stroke(); ctx.setLineDash([]);\n ctx.fillStyle = \"#ffcc44\"; ctx.font = \"11px sans-serif\";\n ctx.fillText(\"wedge zone\", margin, cy - wz*s - 4);\n }\n}\n\n// ───────── 3D shell render via Three.js ─────────\nfunction initThree() {\n const canvas = $(\"preview3d\");\n const renderer = new THREE.WebGLRenderer({ canvas, antialias: true, alpha: true });\n renderer.setPixelRatio(devicePixelRatio);\n renderer.setClearColor(0x1a1c22, 1);\n const scene = new THREE.Scene();\n const camera = new THREE.PerspectiveCamera(40, 1, 0.1, 2000);\n // Lights\n const amb = new THREE.AmbientLight(0xffffff, 0.45);\n scene.add(amb);\n const key = new THREE.DirectionalLight(0xffffff, 0.85);\n key.position.set(1, 1.5, 1.2);\n scene.add(key);\n const rim = new THREE.DirectionalLight(0x5fa8ff, 0.35);\n rim.position.set(-1, 0.3, -0.5);\n scene.add(rim);\n\n three = {\n canvas, renderer, scene, camera,\n mesh: null,\n cam: { rotX: -0.5, rotY: 0.4, zoom: 1 },\n bbox: { center: new THREE.Vector3(), size: 100 },\n };\n\n window.addEventListener(\"resize\", () => {\n if ($(\"viewMode\").value === \"3d\") {\n sizeThree();\n three.renderer.render(three.scene, three.camera);\n }\n });\n}\n\nfunction sizeThree() {\n const c = $(\"preview3d\");\n const w = c.clientWidth, h = c.clientHeight;\n three.renderer.setSize(w, h, false);\n three.camera.aspect = w / h;\n three.camera.updateProjectionMatrix();\n threeUpdateCamera();\n}\n\nfunction threeUpdateCamera() {\n const { rotX, rotY, zoom } = three.cam;\n const r = three.bbox.size * 1.8 / zoom;\n // Spherical coords around bbox center\n const x = r * Math.cos(rotX) * Math.sin(rotY);\n const y = r * Math.sin(rotX);\n const z = r * Math.cos(rotX) * Math.cos(rotY);\n three.camera.position.set(\n three.bbox.center.x + x,\n three.bbox.center.y + y,\n three.bbox.center.z + z,\n );\n three.camera.lookAt(three.bbox.center);\n}\n\nfunction rebuildThreeMesh() {\n if (!cfg || !three) return;\n if (three.mesh) {\n three.scene.remove(three.mesh);\n three.mesh.geometry.dispose();\n three.mesh.material.dispose();\n }\n\n const N_RINGS = 96;\n const N_SEGS = 96;\n const outer = applyWedge(cfg.points, cfg.splitMode, cfg.wedgeOverlap, cfg.wedgeTaper);\n const outerSm = smoothInterp(outer, N_RINGS);\n const totalH = outerSm[outerSm.length - 1][1];\n\n // Build outer ring vertices\n const outerVerts = [];\n for (const [r, z] of outerSm) {\n const ring = [];\n for (let i = 0; i < N_SEGS; i++) {\n const a = i / N_SEGS * Math.PI * 2;\n const rr = applyRib(r, a, z, cfg, \"outer\");\n ring.push([rr * Math.cos(a), rr * Math.sin(a), z]);\n }\n outerVerts.push(ring);\n }\n\n // Build inner verts\n let innerVerts = null;\n if (cfg.boreMode === \"constant\" && cfg.boreRadius > 0) {\n innerVerts = [];\n const z0 = cfg.floorThickness;\n for (let row = 0; row < N_RINGS; row++) {\n const z = z0 + (totalH - z0) * row / (N_RINGS - 1);\n const ring = [];\n for (let i = 0; i < N_SEGS; i++) {\n const a = i / N_SEGS * Math.PI * 2;\n const rr = applyRib(cfg.boreRadius, a, z, cfg, \"inner\");\n ring.push([rr * Math.cos(a), rr * Math.sin(a), z]);\n }\n innerVerts.push(ring);\n }\n } else if (cfg.boreMode === \"profile\" && cfg.innerPoints && cfg.innerPoints.length >= 2) {\n innerVerts = [];\n const innerSm = smoothInterp(cfg.innerPoints, N_RINGS);\n for (const [r, z] of innerSm) {\n const ring = [];\n for (let i = 0; i < N_SEGS; i++) {\n const a = i / N_SEGS * Math.PI * 2;\n const rr = applyRib(r, a, z, cfg, \"inner\");\n ring.push([rr * Math.cos(a), rr * Math.sin(a), z]);\n }\n innerVerts.push(ring);\n }\n }\n\n // Build positions + indices for indexed geometry\n const positions = [];\n const indices = [];\n const pushVert = (v) => { const i = positions.length / 3; positions.push(v[0], v[1], v[2]); return i; };\n const triCCW = (a, b, c) => indices.push(a, b, c);\n\n // Cache index for each vertex\n const outerIdx = outerVerts.map(ring => ring.map(pushVert));\n const innerIdx = innerVerts ? innerVerts.map(ring => ring.map(pushVert)) : null;\n\n // Outer wall (CCW outward-facing)\n for (let row = 0; row < N_RINGS - 1; row++) {\n for (let i = 0; i < N_SEGS; i++) {\n const j = (i + 1) % N_SEGS;\n const a = outerIdx[row][i], b = outerIdx[row][j];\n const c = outerIdx[row+1][j], d = outerIdx[row+1][i];\n triCCW(a, b, c); triCCW(a, c, d);\n }\n }\n // Inner wall (reversed for inward-facing)\n if (innerIdx) {\n for (let row = 0; row < innerIdx.length - 1; row++) {\n for (let i = 0; i < N_SEGS; i++) {\n const j = (i + 1) % N_SEGS;\n const a = innerIdx[row][i], b = innerIdx[row][j];\n const c = innerIdx[row+1][j], d = innerIdx[row+1][i];\n triCCW(a, c, b); triCCW(a, d, c);\n }\n }\n }\n // Bottom\n if (innerVerts && cfg.floorThickness > 0) {\n const ozc = pushVert([0, 0, outerVerts[0][0][2]]);\n for (let i = 0; i < N_SEGS; i++) {\n const j = (i + 1) % N_SEGS;\n triCCW(outerIdx[0][i], ozc, outerIdx[0][j]);\n }\n const izc = pushVert([0, 0, innerVerts[0][0][2]]);\n for (let i = 0; i < N_SEGS; i++) {\n const j = (i + 1) % N_SEGS;\n triCCW(izc, innerIdx[0][j], innerIdx[0][i]);\n }\n } else if (innerVerts) {\n for (let i = 0; i < N_SEGS; i++) {\n const j = (i + 1) % N_SEGS;\n const a = outerIdx[0][i], b = outerIdx[0][j];\n const c = innerIdx[0][j], d = innerIdx[0][i];\n triCCW(a, b, c); triCCW(a, c, d);\n }\n } else {\n const c0 = pushVert([0, 0, outerVerts[0][0][2]]);\n for (let i = 0; i < N_SEGS; i++) {\n const j = (i + 1) % N_SEGS;\n triCCW(outerIdx[0][i], c0, outerIdx[0][j]);\n }\n }\n // Top\n if (innerIdx) {\n const lastO = N_RINGS - 1;\n const lastI = innerIdx.length - 1;\n for (let i = 0; i < N_SEGS; i++) {\n const j = (i + 1) % N_SEGS;\n const a = outerIdx[lastO][i], b = outerIdx[lastO][j];\n const c = innerIdx[lastI][j], d = innerIdx[lastI][i];\n triCCW(a, c, b); triCCW(a, d, c);\n }\n } else {\n const c0 = pushVert([0, 0, outerVerts[N_RINGS-1][0][2]]);\n for (let i = 0; i < N_SEGS; i++) {\n const j = (i + 1) % N_SEGS;\n triCCW(outerIdx[N_RINGS-1][i], outerIdx[N_RINGS-1][j], c0);\n }\n }\n\n const geo = new THREE.BufferGeometry();\n geo.setAttribute(\"position\", new THREE.Float32BufferAttribute(positions, 3));\n geo.setIndex(indices);\n geo.computeVertexNormals();\n\n // Center on bounding box, with z-up reorientation (model uses z-up; we want y-up in three for camera intuition)\n // Easier: rotate -90° around X so Z (height) maps to Y in scene\n geo.rotateX(-Math.PI / 2);\n\n const mat = new THREE.MeshStandardMaterial({\n color: 0x9ec6ff,\n metalness: 0.05,\n roughness: 0.65,\n side: THREE.DoubleSide,\n });\n const mesh = new THREE.Mesh(geo, mat);\n three.scene.add(mesh);\n three.mesh = mesh;\n\n // Bounding box\n geo.computeBoundingBox();\n const bb = geo.boundingBox;\n three.bbox.center.set(\n (bb.min.x + bb.max.x) / 2,\n (bb.min.y + bb.max.y) / 2,\n (bb.min.z + bb.max.z) / 2,\n );\n const sx = bb.max.x - bb.min.x;\n const sy = bb.max.y - bb.min.y;\n const sz = bb.max.z - bb.min.z;\n three.bbox.size = Math.max(sx, sy, sz);\n threeUpdateCamera();\n}\n\ninit();\n`;\n}\n\n// ─────────────────────────────────────────────────────────────────────────\n// STL generation\n// ─────────────────────────────────────────────────────────────────────────\n\ninterface Cfg {\n filename: string;\n points: [number, number][];\n boreMode: \"constant\" | \"profile\" | \"none\";\n boreRadius: number;\n innerPoints: [number, number][] | null;\n floorThickness: number;\n ribCount: number;\n ribDepth: number;\n ribWidth: number;\n ribSide: \"outer\" | \"inner\";\n splitMode: \"none\" | \"bottom\" | \"top\";\n wedgeOverlap: number;\n wedgeTaper: number;\n}\n\nfunction applyWedge(pts: [number, number][], cfg: Cfg): [number, number][] {\n if (cfg.splitMode === \"none\" || cfg.wedgeTaper === 0 || cfg.wedgeOverlap === 0) return pts;\n const h = pts[pts.length - 1][1];\n return pts.map(([r, z]) => {\n let dr = 0;\n if (cfg.splitMode === \"bottom\" && z >= h - cfg.wedgeOverlap) {\n const u = (z - (h - cfg.wedgeOverlap)) / cfg.wedgeOverlap;\n dr = -cfg.wedgeTaper * u;\n } else if (cfg.splitMode === \"top\" && z <= cfg.wedgeOverlap) {\n const u = (cfg.wedgeOverlap - z) / cfg.wedgeOverlap;\n dr = -cfg.wedgeTaper * u;\n }\n return [r + dr, z];\n });\n}\n\nfunction smoothInterp(pts: [number, number][], n: number): [number, number][] {\n if (pts.length < 2) return [];\n if (pts.length === 2) {\n const out: [number, number][] = [];\n for (let i = 0; i < n; i++) {\n const t = i / (n - 1);\n out.push([pts[0][0] + (pts[1][0] - pts[0][0]) * t, pts[0][1] + (pts[1][1] - pts[0][1]) * t]);\n }\n return out;\n }\n const out: [number, number][] = [];\n const total = pts.length - 1;\n for (let i = 0; i < n; i++) {\n const t = i / (n - 1);\n const seg = Math.min(Math.floor(t * total), total - 1);\n const lt = t * total - seg;\n const p0 = pts[Math.max(seg - 1, 0)];\n const p1 = pts[seg];\n const p2 = pts[seg + 1];\n const p3 = pts[Math.min(seg + 2, pts.length - 1)];\n const tt = lt * lt, ttt = tt * lt;\n const r = 0.5 * ((2 * p1[0]) + (-p0[0] + p2[0]) * lt + (2*p0[0] - 5*p1[0] + 4*p2[0] - p3[0]) * tt + (-p0[0] + 3*p1[0] - 3*p2[0] + p3[0]) * ttt);\n const z = 0.5 * ((2 * p1[1]) + (-p0[1] + p2[1]) * lt + (2*p0[1] - 5*p1[1] + 4*p2[1] - p3[1]) * tt + (-p0[1] + 3*p1[1] - 3*p2[1] + p3[1]) * ttt);\n out.push([r, z]);\n }\n return out;\n}\n\nfunction generateSTL(cfg: Cfg): Uint8Array {\n const N_RINGS = 80;\n const N_SEGS = 96;\n\n const outer = applyWedge(cfg.points, cfg);\n const outerSm = smoothInterp(outer, N_RINGS);\n const totalH = outerSm[outerSm.length - 1][1];\n\n const HELIX_PITCH = 0.02;\n\n function applyRib(r: number, a: number, z: number, side: \"outer\" | \"inner\"): number {\n if (cfg.ribCount === 0 || cfg.ribDepth === 0 || cfg.ribSide !== side) return r;\n const ribAngularWidth = Math.min(0.6, (cfg.ribWidth / Math.max(r, 0.5)) * 0.5);\n const phase = ((a + z * HELIX_PITCH) * cfg.ribCount) % (Math.PI * 2);\n const dist = Math.min(phase, Math.PI*2 - phase);\n if (dist < ribAngularWidth) {\n const t = 1 - dist / ribAngularWidth;\n const bump = cfg.ribDepth * (Math.cos((1-t) * Math.PI) + 1) * 0.5;\n return side === \"outer\" ? r + bump : r - bump;\n }\n return r;\n }\n\n const outerVerts: [number, number, number][][] = [];\n for (const [r, z] of outerSm) {\n const ring: [number, number, number][] = [];\n for (let i = 0; i < N_SEGS; i++) {\n const a = i / N_SEGS * Math.PI * 2;\n const rr = applyRib(r, a, z, \"outer\");\n ring.push([rr * Math.cos(a), rr * Math.sin(a), z]);\n }\n outerVerts.push(ring);\n }\n\n let innerVerts: [number, number, number][][] | null = null;\n if (cfg.boreMode === \"constant\" && cfg.boreRadius > 0) {\n innerVerts = [];\n const z0 = cfg.floorThickness;\n for (let row = 0; row < N_RINGS; row++) {\n const z = z0 + (totalH - z0) * row / (N_RINGS - 1);\n const ring: [number, number, number][] = [];\n for (let i = 0; i < N_SEGS; i++) {\n const a = i / N_SEGS * Math.PI * 2;\n const rr = applyRib(cfg.boreRadius, a, z, \"inner\");\n ring.push([rr * Math.cos(a), rr * Math.sin(a), z]);\n }\n innerVerts.push(ring);\n }\n } else if (cfg.boreMode === \"profile\" && cfg.innerPoints) {\n innerVerts = [];\n const innerSm = smoothInterp(cfg.innerPoints, N_RINGS);\n for (const [r, z] of innerSm) {\n const ring: [number, number, number][] = [];\n for (let i = 0; i < N_SEGS; i++) {\n const a = i / N_SEGS * Math.PI * 2;\n const rr = applyRib(r, a, z, \"inner\");\n ring.push([rr * Math.cos(a), rr * Math.sin(a), z]);\n }\n innerVerts.push(ring);\n }\n }\n\n const tris: [[number, number, number], [number, number, number], [number, number, number]][] = [];\n\n // Outer wall\n for (let row = 0; row < N_RINGS - 1; row++) {\n for (let i = 0; i < N_SEGS; i++) {\n const j = (i + 1) % N_SEGS;\n const a = outerVerts[row][i], b = outerVerts[row][j];\n const c = outerVerts[row+1][j], d = outerVerts[row+1][i];\n tris.push([a, b, c]); tris.push([a, c, d]);\n }\n }\n // Inner wall (reversed winding)\n if (innerVerts) {\n for (let row = 0; row < innerVerts.length - 1; row++) {\n for (let i = 0; i < N_SEGS; i++) {\n const j = (i + 1) % N_SEGS;\n const a = innerVerts[row][i], b = innerVerts[row][j];\n const c = innerVerts[row+1][j], d = innerVerts[row+1][i];\n tris.push([a, c, b]); tris.push([a, d, c]);\n }\n }\n }\n // Bottom\n if (innerVerts && cfg.floorThickness > 0) {\n const z = outerVerts[0][0][2];\n const center: [number, number, number] = [0, 0, z];\n for (let i = 0; i < N_SEGS; i++) {\n const j = (i + 1) % N_SEGS;\n tris.push([outerVerts[0][i], center, outerVerts[0][j]]);\n }\n const zi = innerVerts[0][0][2];\n const ic: [number, number, number] = [0, 0, zi];\n for (let i = 0; i < N_SEGS; i++) {\n const j = (i + 1) % N_SEGS;\n tris.push([ic, innerVerts[0][j], innerVerts[0][i]]);\n }\n } else if (innerVerts) {\n for (let i = 0; i < N_SEGS; i++) {\n const j = (i + 1) % N_SEGS;\n const a = outerVerts[0][i], b = outerVerts[0][j];\n const c = innerVerts[0][j], d = innerVerts[0][i];\n tris.push([a, b, c]); tris.push([a, c, d]);\n }\n } else {\n const center: [number, number, number] = [0, 0, outerVerts[0][0][2]];\n for (let i = 0; i < N_SEGS; i++) {\n const j = (i + 1) % N_SEGS;\n tris.push([outerVerts[0][i], center, outerVerts[0][j]]);\n }\n }\n // Top\n if (innerVerts) {\n const lo = outerVerts[N_RINGS - 1];\n const li = innerVerts[innerVerts.length - 1];\n for (let i = 0; i < N_SEGS; i++) {\n const j = (i + 1) % N_SEGS;\n const a = lo[i], b = lo[j], c = li[j], d = li[i];\n tris.push([a, c, b]); tris.push([a, d, c]);\n }\n } else {\n const lo = outerVerts[N_RINGS - 1];\n const center: [number, number, number] = [0, 0, lo[0][2]];\n for (let i = 0; i < N_SEGS; i++) {\n const j = (i + 1) % N_SEGS;\n tris.push([lo[i], lo[j], center]);\n }\n }\n\n // Encode binary STL\n const triCount = tris.length;\n const buf = new ArrayBuffer(80 + 4 + triCount * 50);\n const view = new DataView(buf);\n view.setUint32(80, triCount, true);\n let off = 84;\n for (const [a, b, c] of tris) {\n const ux = b[0]-a[0], uy = b[1]-a[1], uz = b[2]-a[2];\n const vx = c[0]-a[0], vy = c[1]-a[1], vz = c[2]-a[2];\n let nx = uy*vz - uz*vy, ny = uz*vx - ux*vz, nz = ux*vy - uy*vx;\n const len = Math.hypot(nx, ny, nz) || 1;\n nx /= len; ny /= len; nz /= len;\n view.setFloat32(off, nx, true); view.setFloat32(off+4, ny, true); view.setFloat32(off+8, nz, true);\n view.setFloat32(off+12, a[0], true); view.setFloat32(off+16, a[1], true); view.setFloat32(off+20, a[2], true);\n view.setFloat32(off+24, b[0], true); view.setFloat32(off+28, b[1], true); view.setFloat32(off+32, b[2], true);\n view.setFloat32(off+36, c[0], true); view.setFloat32(off+40, c[1], true); view.setFloat32(off+44, c[2], true);\n view.setUint16(off+48, 0, true);\n off += 50;\n }\n return new Uint8Array(buf);\n}\n",[163],"cb0291f8-0500-11f1-8cd6-42dde27851f2","styles.ts","019c3dc4-fdf2-76fa-8252-a52d529730e7",10,["D",1770563638915],"/** All CSS styles for the STL Viewer */\nexport function getStyles(): string {\n return `\n :root {\n --bg: #0a0a0f;\n --surface: #13131a;\n --surface-2: #1a1a24;\n --border: #2a2a3a;\n --text: #e8e8f0;\n --text-dim: #8888a0;\n --accent: #00d4aa;\n --accent-dim: #00d4aa33;\n --accent-2: #7c5cff;\n --warn: #ff6b4a;\n }\n * { margin: 0; padding: 0; box-sizing: border-box; }\n body {\n background: var(--bg);\n color: var(--text);\n font-family: 'DM Sans', sans-serif;\n overflow: hidden;\n height: 100vh;\n width: 100vw;\n }\n .layout {\n display: grid;\n grid-template-columns: 300px 1fr;\n grid-template-rows: 52px 1fr;\n height: 100vh;\n }\n\n /* ── Topbar ────────────────────────── */\n .topbar {\n grid-column: 1 / -1;\n background: var(--surface);\n border-bottom: 1px solid var(--border);\n display: flex;\n align-items: center;\n padding: 0 20px;\n gap: 16px;\n z-index: 10;\n }\n .topbar h1 {\n font-family: 'JetBrains Mono', monospace;\n font-size: 13px;\n font-weight: 600;\n letter-spacing: 0.5px;\n color: var(--accent);\n }\n .topbar .sep { width: 1px; height: 20px; background: var(--border); }\n .topbar .badge {\n font-family: 'JetBrains Mono', monospace;\n font-size: 10px;\n font-weight: 500;\n padding: 3px 8px;\n border-radius: 4px;\n background: var(--accent-dim);\n color: var(--accent);\n letter-spacing: 0.5px;\n }\n .topbar .right {\n margin-left: auto;\n display: flex;\n align-items: center;\n gap: 10px;\n }\n\n /* ── Sidebar ──────────────────────── */\n .sidebar {\n background: var(--surface);\n border-right: 1px solid var(--border);\n overflow-y: auto;\n }\n .sidebar::-webkit-scrollbar { width: 4px; }\n .sidebar::-webkit-scrollbar-track { background: transparent; }\n .sidebar::-webkit-scrollbar-thumb { background: var(--border); border-radius: 2px; }\n .section-header {\n font-family: 'JetBrains Mono', monospace;\n font-size: 9px;\n font-weight: 600;\n letter-spacing: 1.5px;\n text-transform: uppercase;\n color: var(--text-dim);\n padding: 16px 16px 8px;\n }\n\n /* ── Drop Zone ────────────────────── */\n .drop-zone {\n margin: 8px 12px;\n border: 2px dashed var(--border);\n border-radius: 8px;\n padding: 20px 14px;\n text-align: center;\n cursor: pointer;\n transition: all 0.2s;\n }\n .drop-zone:hover, .drop-zone.dragover {\n border-color: var(--accent);\n background: var(--accent-dim);\n }\n .drop-zone .icon { font-size: 24px; margin-bottom: 6px; opacity: 0.6; }\n .drop-zone p { font-size: 11px; color: var(--text-dim); line-height: 1.4; }\n .drop-zone .formats {\n font-family: 'JetBrains Mono', monospace;\n font-size: 9px;\n color: var(--accent);\n margin-top: 4px;\n }\n\n /* ── URL input ────────────────────── */\n .url-input-group {\n margin: 0 12px 12px;\n display: flex;\n gap: 6px;\n }\n .url-input-group input {\n flex: 1;\n background: var(--bg);\n border: 1px solid var(--border);\n border-radius: 6px;\n padding: 7px 10px;\n color: var(--text);\n font-size: 11px;\n font-family: 'JetBrains Mono', monospace;\n outline: none;\n transition: border-color 0.2s;\n }\n .url-input-group input:focus { border-color: var(--accent); }\n .url-input-group input::placeholder { color: var(--text-dim); }\n\n /* ── Buttons ──────────────────────── */\n .btn {\n font-family: 'JetBrains Mono', monospace;\n font-size: 10px;\n font-weight: 500;\n padding: 7px 12px;\n border-radius: 6px;\n border: 1px solid var(--border);\n background: var(--surface-2);\n color: var(--text);\n cursor: pointer;\n transition: all 0.15s;\n white-space: nowrap;\n }\n .btn:hover { background: var(--border); }\n .btn.primary {\n background: var(--accent);\n color: var(--bg);\n border-color: var(--accent);\n font-weight: 600;\n }\n .btn.primary:hover { filter: brightness(1.15); }\n\n /* ── Example cards ────────────────── */\n .example-card {\n margin: 5px 12px;\n padding: 12px 14px;\n background: var(--bg);\n border: 1px solid var(--border);\n border-radius: 8px;\n cursor: pointer;\n transition: all 0.2s;\n }\n .example-card:hover {\n border-color: var(--accent);\n background: var(--surface-2);\n }\n .example-card .name { font-weight: 600; font-size: 12px; margin-bottom: 3px; }\n .example-card .desc { font-size: 10px; color: var(--text-dim); margin-bottom: 6px; }\n .example-card .meta {\n display: flex;\n gap: 10px;\n font-family: 'JetBrains Mono', monospace;\n font-size: 9px;\n color: var(--text-dim);\n }\n .example-card .meta span { display: flex; align-items: center; gap: 4px; }\n .example-card .meta .dot { width: 4px; height: 4px; border-radius: 50%; background: var(--accent); }\n\n /* ── Model info panel ─────────────── */\n #modelInfo {\n margin: 12px;\n padding: 12px 14px;\n background: var(--bg);\n border: 1px solid var(--border);\n border-radius: 8px;\n display: none;\n }\n #modelInfo.visible { display: block; }\n #modelInfo h3 { font-size: 12px; font-weight: 600; margin-bottom: 8px; color: var(--accent); }\n .stat-grid { display: grid; grid-template-columns: 1fr 1fr; gap: 6px; }\n .stat { font-family: 'JetBrains Mono', monospace; font-size: 9px; }\n .stat .label { color: var(--text-dim); margin-bottom: 1px; }\n .stat .value { color: var(--text); font-weight: 500; }\n .stat .value.warn { color: var(--warn); }\n .stat .value.ok { color: var(--accent); }\n\n /* ── Display controls ─────────────── */\n .controls-section { margin: 12px; }\n .control-row {\n display: flex;\n align-items: center;\n justify-content: space-between;\n padding: 6px 0;\n border-bottom: 1px solid var(--border);\n }\n .control-row:last-child { border-bottom: none; }\n .control-row label { font-size: 11px; color: var(--text-dim); }\n .toggle {\n width: 34px; height: 18px; border-radius: 9px;\n background: var(--border); cursor: pointer;\n position: relative; transition: background 0.2s;\n }\n .toggle.on { background: var(--accent); }\n .toggle::after {\n content: ''; position: absolute; top: 2px; left: 2px;\n width: 14px; height: 14px; border-radius: 50%;\n background: white; transition: transform 0.2s;\n }\n .toggle.on::after { transform: translateX(16px); }\n\n /* ── 3D Viewport ──────────────────── */\n .viewport { position: relative; overflow: hidden; background: var(--bg); }\n #canvas3d { width: 100%; height: 100%; display: block; }\n .viewport-overlay {\n position: absolute; bottom: 12px; left: 12px;\n font-family: 'JetBrains Mono', monospace;\n font-size: 9px; color: var(--text-dim);\n pointer-events: none; opacity: 0.7;\n }\n .axis-hint { display: flex; gap: 10px; margin-top: 3px; }\n .axis-hint span { display: flex; align-items: center; gap: 3px; }\n .axis-hint .x { color: #ff4466; }\n .axis-hint .y { color: #44ff66; }\n .axis-hint .z { color: #4488ff; }\n\n /* ── Loading / Empty states ────────── */\n .loading-overlay {\n position: absolute; inset: 0; display: none;\n align-items: center; justify-content: center;\n background: var(--bg); z-index: 5;\n }\n .loading-overlay.visible { display: flex; }\n .spinner {\n width: 36px; height: 36px;\n border: 3px solid var(--border);\n border-top-color: var(--accent);\n border-radius: 50%;\n animation: spin 0.8s linear infinite;\n }\n @keyframes spin { to { transform: rotate(360deg); } }\n .empty-state {\n position: absolute; inset: 0; display: flex;\n flex-direction: column; align-items: center;\n justify-content: center; pointer-events: none;\n }\n .empty-state .cube { width: 70px; height: 70px; margin-bottom: 16px; opacity: 0.12; }\n .empty-state p { font-size: 13px; color: var(--text-dim); }\n .empty-state .sub { font-size: 11px; margin-top: 4px; color: #444; }\n\n /* ── Full-screen drop overlay ─────── */\n .fullscreen-drop {\n position: fixed; inset: 0; z-index: 100;\n background: rgba(0,212,170,0.06);\n border: 3px dashed var(--accent);\n display: none;\n align-items: center; justify-content: center;\n pointer-events: none;\n }\n .fullscreen-drop.visible { display: flex; }\n .fullscreen-drop .drop-msg {\n background: var(--surface);\n border: 1px solid var(--accent);\n border-radius: 12px;\n padding: 24px 36px;\n text-align: center;\n }\n .fullscreen-drop .drop-msg .icon { font-size: 36px; margin-bottom: 8px; }\n .fullscreen-drop .drop-msg p {\n font-family: 'JetBrains Mono', monospace;\n font-size: 13px; color: var(--accent);\n }\n\n /* ── Mobile FAB ────────────────────── */\n .mobile-fab {\n display: none;\n position: fixed;\n bottom: 24px; right: 24px;\n z-index: 50;\n width: 56px; height: 56px;\n border-radius: 50%;\n background: var(--accent);\n border: none;\n color: var(--bg);\n font-size: 24px;\n cursor: pointer;\n box-shadow: 0 4px 20px rgba(0,212,170,0.35);\n transition: transform 0.2s, box-shadow 0.2s;\n -webkit-tap-highlight-color: transparent;\n }\n .mobile-fab:active { transform: scale(0.92); }\n .mobile-fab.has-model { bottom: 80px; }\n\n /* ── Mobile bottom sheet ───────────── */\n .bottom-sheet-backdrop {\n display: none;\n position: fixed; inset: 0;\n background: rgba(0,0,0,0.5);\n z-index: 60;\n opacity: 0;\n transition: opacity 0.25s;\n }\n .bottom-sheet-backdrop.visible { display: block; opacity: 1; }\n .bottom-sheet {\n position: fixed;\n bottom: 0; left: 0; right: 0;\n z-index: 70;\n background: var(--surface);\n border-radius: 16px 16px 0 0;\n max-height: 75vh;\n overflow-y: auto;\n transform: translateY(100%);\n transition: transform 0.3s cubic-bezier(0.32, 0.72, 0, 1);\n -webkit-overflow-scrolling: touch;\n }\n .bottom-sheet.visible { transform: translateY(0); }\n .bottom-sheet .handle-bar {\n width: 36px; height: 4px;\n background: var(--border);\n border-radius: 2px;\n margin: 10px auto 4px;\n }\n .bottom-sheet .sheet-content { padding: 8px 0 env(safe-area-inset-bottom, 16px); }\n\n /* ── Mobile toolbar ────────────────── */\n .mobile-toolbar {\n display: none;\n position: fixed;\n bottom: 0; left: 0; right: 0;\n z-index: 40;\n background: var(--surface);\n border-top: 1px solid var(--border);\n padding: 8px 12px env(safe-area-inset-bottom, 8px);\n gap: 8px;\n }\n .mobile-toolbar .btn { flex: 1; text-align: center; padding: 10px 8px; font-size: 11px; }\n\n /* ── Status bar ─────────────────────── */\n .status-bar {\n position: fixed;\n top: 52px; left: 0; right: 0;\n z-index: 9;\n background: var(--surface-2);\n border-bottom: 1px solid var(--border);\n padding: 6px 20px;\n font-family: 'JetBrains Mono', monospace;\n font-size: 10px;\n color: var(--accent);\n text-align: center;\n }\n\n /* ── Engine badge ────────────────────── */\n .engine-badge {\n margin: 0 12px 8px;\n padding: 5px 10px;\n background: var(--accent-dim);\n border-radius: 6px;\n font-family: 'JetBrains Mono', monospace;\n font-size: 9px;\n color: var(--accent);\n text-align: center;\n }\n\n /* ── Download button ────────────────── */\n .btn-download {\n background: var(--accent) !important;\n color: var(--bg) !important;\n border-color: var(--accent) !important;\n font-weight: 600 !important;\n }\n .btn-download:hover { filter: brightness(1.15); }\n\n /* ── Disabled example cards ──────────── */\n .example-card.disabled {\n opacity: 0.5;\n pointer-events: none;\n }\n\n /* ── Mobile responsive ─────────────── */\n @media (max-width: 768px) {\n .layout {\n grid-template-columns: 1fr;\n grid-template-rows: 52px 1fr;\n }\n .sidebar { display: none; }\n .topbar .badge { display: none; }\n .topbar .right .btn { font-size: 9px; padding: 6px 8px; }\n .mobile-fab { display: flex; align-items: center; justify-content: center; }\n .mobile-toolbar { display: flex; }\n .viewport-overlay { bottom: 68px; }\n }\n `;\n}\n",[171],"cf037858-0500-11f1-8d4f-42dde27851f2","main.ts",11,["D",1770563645620],"import { getStyles } from \"./styles.ts\";\nimport { getLayout } from \"./layout.ts\";\nimport { getViewerScript } from \"./viewer.ts\";\n\nexport default async function(req: Request): Promise {\n return new Response(page(), {\n headers: { \"Content-Type\": \"text/html; charset=utf-8\" },\n });\n}\n\nfunction page(): string {\n return `\n\n\n \n \n STL Creator — A1 Mini Edition\n \n \n\n\n ${getLayout()}\n ${getViewerScript()}\n\n`;\n}\n",[178],"c09123f6-0500-11f1-b7b2-42dde27851f2","layout.ts","019c3dc4-fdf2-76fa-8252-9c2548c28d3d",9,["D",1770563621396],"/** HTML markup for the STL Creator layout */\nimport { EXAMPLES, type Example } from \"./examples.ts\";\n\nfunction exampleCard(ex: Example): string {\n return `\n

${ex.icon} ${ex.name}

${ex.desc}

${ex.size}${ex.time}

`;\n}\n\nfunction sidebarContent(): string {\n return `\n

Load Model

📦

Drop STL file here or click to browse

.stl

\n \n

\n \n \n

Examples — Real CSG

⚙ Powered by JSCAD · union / subtract / intersect

\n ${EXAMPLES.map(exampleCard).join(\"\")}\n

Model Analysis

DIMENSIONS

—

FITS A1 MINI

—

TRIANGLES

—

EST. VOLUME

—

Display

Build volume

Grid floor

Wireframe

Auto-rotate

`;\n}\n\nexport function getLayout(): string {\n return `\n

\n \n \n\n \n \n\n \n \n\n \n

\n \n

Load an STL or generate a model

Drag & drop, paste URL, or try a CSG example

Scroll to zoom · Drag to rotate · Shift+drag to pan

\n — X\n — Y\n — Z\n

\n\n \n

📦

Drop STL file to load

\n\n \n \n\n \n

\n ${sidebarContent()}\n

\n\n \n `;\n}\n",[184],"1e9bcb8e-4595-11f1-b6af-42b51c65c3df","examples.ts","019c3dc4-fdf2-76fa-8252-9ba0ba7dead1",261,["D",1777664219092],58,"/**\n * Barrel file — re-exports all examples from individual files.\n *\n * To add a new example: create examples/yourModel.ts, then add one import + array entry here.\n * To edit one: change only its file in examples/.\n * Nothing else in the codebase needs to change.\n */\n\nexport type { Example } from \"./examples/types.ts\";\nimport type { Example } from \"./examples/types.ts\";\n\nimport mountingPlate from \"./examples/mountingPlate.ts\";\nimport hexBox from \"./examples/hexBox.ts\";\nimport phoneStand from \"./examples/phoneStand.ts\";\nimport cableOrganizer from \"./examples/cableOrganizer.ts\";\nimport bottleSplitter from \"./examples/bottleSplitter.ts\";\nimport orangeCup from \"./examples/orangeCup.ts\";\nimport microgreensMesh from \"./examples/microgreensMesh.ts\";\nimport microgreensDonut from \"./examples/microgreensDonut.ts\";\nimport microgreensHoneycomb from \"./examples/microgreensHoneycomb.ts\";\nimport triBottlePlate from \"./examples/triBottlePlate.ts\";\nimport bottleRingTest from \"./examples/bottleRingTest.ts\";\nimport bottleSleeve15L from \"./examples/bottleSleeve15L.ts\";\nimport vaseTestHoop from \"./examples/vaseTestHoop.ts\";\nimport triBottlePlate15L from \"./examples/triBottlePlate15L.ts\";\nimport bottleSleeveVase from \"./examples/bottleSleeveVase.ts\";\nimport triSleeveVase from \"./examples/triSleeveVase.ts\";\nimport triBottlePlateRaised from \"./examples/triBottlePlateRaised.ts\";\nimport halfRingTest from \"./examples/halfRingTest.ts\";\nimport owalaSleeve from \"./examples/owalaSleeve.ts\";\nimport owalaSleeveFuzzy from \"./examples/owalaSleeveFuzzy.ts\";\nimport triBottlePlateChamfer from \"./examples/triBottlePlateChamfer.ts\";\nimport skadisLego from \"./examples/skadisLego.ts\";\nimport chamferChannelTest from \"./examples/chamferChannelTest.ts\";\nimport triBottlePlateChamfer265 from \"./examples/triBottlePlateChamfer265.ts\";\nimport penHolder from \"./examples/penHolder.ts\";\nimport bucketOpenerIterations from \"./examples/bucketOpenerIterations.ts\";\nimport bucketOpenerCurved from \"./examples/bucketOpenerCurved.ts\";\nimport bucketOpener70mm from \"./examples/bucketOpener70mm.ts\";\nimport bottleShell from \"./examples/bottleShell.ts\";\nimport calCylinders from \"./examples/calCylinders.ts\";\nimport bodkin from \"./examples/bodkin.ts\";\nimport tabletMold from \"./examples/tabletMold.ts\";\nimport tabletMold25 from \"./examples/tabletMold25.ts\";\nimport pco1881Pair from \"./examples/pco1881Pair.ts\";\nimport waterSleeveCollarV1 from \"./examples/waterSleeveCollarV1.ts\";\nimport waterSleeveMiddleV1 from \"./examples/waterSleeveMiddleV1.ts\";\nimport waterSleeveBaseV1 from \"./examples/waterSleeveBaseV1.ts\";\nimport waterSleeveMiniCollarV1 from \"./examples/waterSleeveMiniCollarV1.ts\";\nimport waterSleeveMiniMiddleV1 from \"./examples/waterSleeveMiniMiddleV1.ts\";\nimport waterSleeveMiniBaseV1 from \"./examples/waterSleeveMiniBaseV1.ts\";\nimport waterSleeveMiniV2Bottom from \"./examples/waterSleeveMiniV2Bottom.ts\";\nimport waterSleeveMiniV2Top from \"./examples/waterSleeveMiniV2Top.ts\";\nimport waterSleeveMiniV2BottomSlim from \"./examples/waterSleeveMiniV2BottomSlim.ts\";\nimport waterSleeveMiniV2TopSlim from \"./examples/waterSleeveMiniV2TopSlim.ts\";\nimport waterSleeveMiniV3Bottom from \"./examples/waterSleeveMiniV3Bottom.ts\";\nimport waterSleeveMiniV3Top from \"./examples/waterSleeveMiniV3Top.ts\";\nimport waterSleeveMiniV4Bottom from \"./examples/waterSleeveMiniV4Bottom.ts\";\nimport waterSleeveMiniV4Top from \"./examples/waterSleeveMiniV4Top.ts\";\nimport waterSleeveMiniV4Hanger from \"./examples/waterSleeveMiniV4Hanger.ts\";\nimport waterSleeve15V2Bottom from \"./examples/waterSleeve15V2Bottom.ts\";\nimport waterSleeve15V2Top from \"./examples/waterSleeve15V2Top.ts\";\nimport sleeve15Gauge from \"./examples/sleeve15Gauge.ts\";\nimport waterSleeveCollarV3 from \"./examples/waterSleeveCollarV3.ts\";\nimport waterSleeveMiddleV3 from \"./examples/waterSleeveMiddleV3.ts\";\nimport waterSleeveBaseV3 from \"./examples/waterSleeveBaseV3.ts\";\nimport waterSleeveMiddleV4 from \"./examples/waterSleeveMiddleV4.ts\";\nimport waterSleeveBaseV4 from \"./examples/waterSleeveBaseV4.ts\";\nimport pressFitTestAll4 from \"./examples/pressFitTestAll4.ts\";\nimport bokashiDrainageThird from \"./examples/bokashiDrainageThird.ts\";\nimport bokashiDrainageThird135 from \"./examples/bokashiDrainageThird135.ts\";\nimport funnel170to75 from \"./examples/funnel170to75.ts\";\n\nexport const EXAMPLES: Example[] = [waterSleeveMiniV2Bottom, waterSleeveMiniV2Top, waterSleeveMiniV2BottomSlim, waterSleeveMiniV2TopSlim, funnel170to75, bokashiDrainageThird135, bokashiDrainageThird, sleeve15Gauge, waterSleeve15V2Bottom, waterSleeve15V2Top, pressFitTestAll4, waterSleeveMiniV4Hanger, waterSleeveMiniV4Top, waterSleeveMiniV4Bottom, waterSleeveMiniV3Top, waterSleeveMiniV3Bottom, waterSleeveMiniCollarV1, waterSleeveMiniMiddleV1, waterSleeveMiniBaseV1, waterSleeveCollarV3, waterSleeveMiddleV3, waterSleeveBaseV3, waterSleeveMiddleV4, waterSleeveBaseV4, waterSleeveCollarV1, waterSleeveMiddleV1, waterSleeveBaseV1, pco1881Pair, tabletMold25, tabletMold, bodkin, calCylinders, bottleShell, bucketOpener70mm, bucketOpenerIterations, bucketOpenerCurved, mountingPlate, hexBox, phoneStand, cableOrganizer, bottleSplitter, orangeCup, microgreensMesh, microgreensDonut, microgreensHoneycomb, triBottlePlate, bottleRingTest, bottleSleeve15L, vaseTestHoop, triBottlePlate15L, bottleSleeveVase, triSleeveVase, triBottlePlateRaised, halfRingTest, owalaSleeve, owalaSleeveFuzzy, triBottlePlateChamfer, skadisLego, chamferChannelTest, triBottlePlateChamfer265, penHolder];\n\n/**\n * Returns the client-side JS for the genExample(name) function,\n * built dynamically from the EXAMPLES array.\n * Each case body must return a JSCAD geom3 solid.\n * `jscad` (the full @jscad/modeling library) is in scope.\n */\nexport function getExampleGeneratorJS(): string {\n const cases = EXAMPLES.map(\n (ex) => `case '${ex.id}': {\\n${ex.generatorBody}\\n}`,\n ).join(\"\\n \");\n\n return `\n function genExample(name) {\n switch (name) {\n ${cases}\n default: return jscad.primitives.cuboid({ size: [50, 50, 50] });\n }\n }`;\n}\n",[191],"f2857936-04fe-11f1-b891-42dde27851f2","README.md","019c3dc4-fdf2-76fa-8252-9718cf66e8ab",["D",1770562846100],"# STL Viewer\n\nA web-based 3D model viewer and generator for creating printable STL files directly in your browser.\n\n## Demo Video\n\nhttps://www.val.town/x/dcm31/stl-viewer/code/README.md\n\n[Watch the demo on Loom](https://www.loom.com/share/ac0933b3cb8f4c56b32b065d75fd36af)\n\n## Features\n\n- 🎨 Generate 3D models procedurally using Three.js\n- 👁️ Interactive 3D viewer with orbit controls\n- 💾 Export models as STL files for 3D printing\n- 📦 Pre-built examples: Vase, Gear, Castle, Kratky, and Duck\n\n## Usage\n\nVisit the live viewer and select from the example gallery to view and download pre-built models.\n\n### Want to Create Your Own Models?\n\n**You'll need to remix this val first!** Click the \"Remix\" button at the top of the Val Town editor to create your own copy that you can edit.\n\n## Adding New Examples\n\nOnce you've remixed this val:\n\n1. Create a new file in `examples/yourModel.ts`\n2. Define your model following the `Example` interface\n3. Add the import and array entry in `examples.ts`\n\nThat's it! The viewer will automatically pick up your new model.",[199],"6899f2e0-4056-11f1-94cd-42b51c65c3df","PRESS-FIT-NOTES.md","6899f394-4056-11f1-94cd-42b51c65c3df",229,["D",1777087529135],"# Press-Fit Tolerance Reference (PLA, Bambu A1 Mini)\n\nEmpirical fit categories from a 4-ring trial (Apr 2026), tested against a\nfemale socket of **inner diameter ID = 70.00mm**. All values are PLA on a\nBambu Lab A1 Mini with **fuzzy skin enabled** (0.4mm distance / 0.3mm point\ndistance) on the test rings.\n\n## Tolerance ladder\n\n| Fit category | PLUG_OD | Radial clearance | Diametric clearance | Behavior |\n|----------------|---------|------------------|---------------------|----------|\n| Slide fit | 69.70 | 0.15mm | 0.30mm | Drops in, freely separates |\n| Loose fit | 69.80 | 0.10mm | 0.20mm | Seats with light pressure, can be twisted apart |\n| **Tight fit** | **69.90** | **0.05mm** | **0.10mm** | **Hand-press required, holds securely (chosen)** |\n| Semipermanent | 70.00 | 0.00mm | 0.00mm | Hammer/clamp to seat, won't separate without damage |\n\n## How to use this for other parts\n\nTolerances are **relative to the socket ID** — they're not absolute numbers.\nTo pick a PLUG_OD for a different socket:\n\n```\nPLUG_OD = SOCKET_ID − (2 × desired_radial_clearance)\n```\n\nSo for any socket dimension, the recipe is:\n\n| Target fit | Radial clearance to subtract from socket radius |\n|------------------|--------------------------------------------------|\n| Slide fit | 0.15mm |\n| Loose fit | 0.10mm |\n| **Tight fit** | **0.05mm** ← default for sleeve joints |\n| Semipermanent | 0.00mm |\n\nExample for a 50mm socket: tight fit plug = 50.00 − (2 × 0.05) = **49.90mm**.\n\n## Caveats\n\n- **Fuzzy skin matters.** Fuzzy adds dimensional bumps that slightly\n *reduce* effective fit (the bumps deform under press pressure). Without\n fuzzy skin you may need to add ~0.05mm to the plug OD, or test on a\n smooth ring first. These numbers were calibrated WITH fuzzy on.\n- **Printer matters.** A1 Mini was used. Other printers (Prusa, Ender,\n Voron) will likely need re-calibration — XY shrinkage and belt tension\n vary by machine.\n- **Material matters.** PLA only. PETG is stickier and tends to need\n ~0.05mm more clearance for a comparable feel; ABS/ASA shrink more so\n you may need less.\n- **Plug height matters.** Test rings used PLUG_H = 3mm. Taller plugs\n generate more friction along their length, so a \"tight\" plug at 3mm may\n feel \"semipermanent\" at 10mm. For deep press fits, drop one category\n (e.g., use Loose dimensions for a 10mm-deep plug to get Tight behavior).\n- **Plug wall thickness matters.** Thin plug walls (under ~1mm) flex\n inward under press pressure and feel looser than they measure. The test\n rings used a beefy 1.85mm plug wall. The shipped sleeve uses 1.4mm.\n Thinner than ~1mm = unreliable; consider thickening before re-tuning fit.\n- **Re-test if you change print settings** (line width, wall count,\n flow rate, layer height). The XY accuracy of an A1 Mini is sensitive to\n these.\n\n## Reference test ring file\n\n`examples/pressFitTestAll4.ts` — 2×2 grid of four 11mm-tall test rings\n(short version, position-coded by quadrant on the build plate). Print to\nre-calibrate any time the printer or filament changes.\n\n## Shipped values\n\nThe 0.5L mini sleeve V2 Bottom uses **Tight fit** (PLUG_OD 69.90 against\nSOCKET_ID 70.0 in the V2 Top). See 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* Shared types for vase-creator.\n */\n\nexport type Pt = [number, number]; // [radius, height]\n\nexport interface Cfg {\n filename: string;\n points: Pt[];\n boreMode: \"constant\" | \"profile\" | \"none\";\n boreRadius: number;\n innerPoints: Pt[] | null;\n floorThickness: number;\n ribCount: number;\n ribDepth: number;\n ribWidth: number;\n ribSide: \"outer\" | \"inner\";\n splitMode: \"none\" | \"bottom\" | \"top\";\n wedgeOverlap: number;\n wedgeTaper: number;\n}\n\nexport interface Preset {\n name: string;\n points: Pt[];\n boreMode: \"constant\" | \"profile\" | \"none\";\n boreRadius: number;\n innerPoints: Pt[] | null;\n floorThickness: number;\n ribCount: number;\n ribDepth: number;\n ribWidth: number;\n ribSide: \"outer\" | \"inner\";\n splitMode: \"none\" | \"bottom\" | \"top\";\n wedgeOverlap: number;\n wedgeTaper: number;\n}\n",[],[212,344],"45e235ce-4636-11f1-9f28-42b51c65c3df",["D",1777733433960],[],[212,32],"2669b406-4636-11f1-8ede-42b51c65c3df","presets.ts","2669b4ce-4636-11f1-8ede-42b51c65c3df",267,["D",1777733381164],"/**\n * Profile presets — seeded with V2 mini PET 0.5L (golden working dimensions).\n */\n\nimport type { Preset } from \"./types.ts\";\n\nexport const PRESETS: Record = {\n v2_mini_bottom: {\n name: \"V2 mini PET 0.5L — Bottom (vase)\",\n points: [[42, 0], [40, 20], [37.5, 60], [37, 100], [37, 120]],\n boreMode: \"constant\",\n boreRadius: 33.5,\n innerPoints: null,\n floorThickness: 0,\n ribCount: 6,\n ribDepth: 1.5,\n ribWidth: 6,\n ribSide: \"outer\",\n splitMode: \"bottom\",\n wedgeOverlap: 15,\n wedgeTaper: 0.5,\n },\n v2_mini_top: {\n name: \"V2 mini PET 0.5L — Top (vase)\",\n points: [[37, 0], [37, 55], [22, 95], [35, 120]],\n boreMode: \"profile\",\n boreRadius: 0,\n innerPoints: [[34, 0], [34, 55], [16, 95], [30, 120]],\n floorThickness: 0,\n ribCount: 6,\n ribDepth: 1.5,\n ribWidth: 6,\n ribSide: \"outer\",\n splitMode: \"top\",\n wedgeOverlap: 15,\n wedgeTaper: 0.5,\n },\n blank: {\n name: \"Blank\",\n points: [[20, 0], [20, 50]],\n boreMode: \"constant\",\n boreRadius: 17,\n innerPoints: null,\n floorThickness: 1.2,\n ribCount: 0,\n ribDepth: 1.5,\n ribWidth: 6,\n ribSide: \"outer\",\n splitMode: \"none\",\n wedgeOverlap: 0,\n wedgeTaper: 0,\n },\n};\n",[],[212,355],"347624c6-4636-11f1-8ec0-42b51c65c3df","geometry.ts","3476257a-4636-11f1-8ec0-42b51c65c3df",268,["D",1777733404739],"/**\n * Geometry primitives — shared between server (STL gen) and client (preview).\n *\n * - Catmull-Rom interpolation for smooth profile curves\n * - Wedge taper for two-piece vase joints\n * - Helical rib bumps for vase-mode rigidity\n */\n\nimport type { Cfg, Pt } from \"./types.ts\";\n\nexport const HELIX_PITCH = 0.02; // radians per mm of z\n\n/**\n * Catmull-Rom interpolation through control points.\n * Returns `n` evenly-spaced samples along the curve.\n */\nexport function smoothInterp(pts: Pt[], n: number): Pt[] {\n if (pts.length < 2) return [];\n if (pts.length === 2) {\n const out: Pt[] = [];\n for (let i = 0; i < n; i++) {\n const t = i / (n - 1);\n out.push([\n pts[0][0] + (pts[1][0] - pts[0][0]) * t,\n pts[0][1] + (pts[1][1] - pts[0][1]) * t,\n ]);\n }\n return out;\n }\n const out: Pt[] = [];\n const total = pts.length - 1;\n for (let i = 0; i < n; i++) {\n const t = i / (n - 1);\n const seg = Math.min(Math.floor(t * total), total - 1);\n const lt = t * total - seg;\n const p0 = pts[Math.max(seg - 1, 0)];\n const p1 = pts[seg];\n const p2 = pts[seg + 1];\n const p3 = pts[Math.min(seg + 2, pts.length - 1)];\n const tt = lt * lt, ttt = tt * lt;\n const r =\n 0.5 *\n ((2 * p1[0]) +\n (-p0[0] + p2[0]) * lt +\n (2 * p0[0] - 5 * p1[0] + 4 * p2[0] - p3[0]) * tt +\n (-p0[0] + 3 * p1[0] - 3 * p2[0] + p3[0]) * ttt);\n const z =\n 0.5 *\n ((2 * p1[1]) +\n (-p0[1] + p2[1]) * lt +\n (2 * p0[1] - 5 * p1[1] + 4 * p2[1] - p3[1]) * tt +\n (-p0[1] + 3 * p1[1] - 3 * p2[1] + p3[1]) * ttt);\n out.push([r, z]);\n }\n return out;\n}\n\n/**\n * Apply wedge taper for two-piece joints.\n * - bottom mode: tapers IN over the top `overlap` mm\n * - top mode: tapers IN at the bottom (so it widens upward to match the body)\n */\nexport function applyWedge(pts: Pt[], cfg: {\n splitMode: string;\n wedgeOverlap: number;\n wedgeTaper: number;\n}): Pt[] {\n if (cfg.splitMode === \"none\" || cfg.wedgeTaper === 0 || cfg.wedgeOverlap === 0) {\n return pts;\n }\n const h = pts[pts.length - 1][1];\n return pts.map(([r, z]) => {\n let dr = 0;\n if (cfg.splitMode === \"bottom\" && z >= h - cfg.wedgeOverlap) {\n const u = (z - (h - cfg.wedgeOverlap)) / cfg.wedgeOverlap;\n dr = -cfg.wedgeTaper * u;\n } else if (cfg.splitMode === \"top\" && z <= cfg.wedgeOverlap) {\n const u = (cfg.wedgeOverlap - z) / cfg.wedgeOverlap;\n dr = -cfg.wedgeTaper * u;\n }\n return [r + dr, z];\n });\n}\n\n/**\n * Apply rib bump for one (radius, angle, z) sample.\n * Returns the new radius (with bump if angle is in a rib zone).\n *\n * Ribs are slightly helical via HELIX_PITCH, which keeps them\n * compatible with vase-mode's continuous spiral path.\n */\nexport function applyRib(\n r: number,\n a: number,\n z: number,\n cfg: { ribCount: number; ribDepth: number; ribWidth: number; ribSide: string },\n side: \"outer\" | \"inner\",\n): number {\n if (cfg.ribCount === 0 || cfg.ribDepth === 0 || cfg.ribSide !== side) return r;\n const ribAngularWidth = Math.min(0.6, (cfg.ribWidth / Math.max(r, 0.5)) * 0.5);\n const phase = ((a + z * HELIX_PITCH) * cfg.ribCount) % (Math.PI * 2);\n const dist = Math.min(phase, Math.PI * 2 - phase);\n if (dist < ribAngularWidth) {\n const t = 1 - dist / ribAngularWidth;\n const bump = cfg.ribDepth * (Math.cos((1 - t) * Math.PI) + 1) * 0.5;\n return side === \"outer\" ? r + bump : r - bump;\n }\n return r;\n}\n",[],[212,363],["D",1777733369515],[306,307,308,309],[212],"25835acc-3ff3-11f1-bad6-42b51c65c3df","waterSleeveMiniV4Top.ts","db441d16-3ff2-11f1-b8f8-42b51c65c3df",198,["D",1777044896365],"import type { Example } from \"./types.ts\";\n\n/**\n * Water Sleeve — Mini V4 Top (0.5L, vase profile, wide pinch)\n *\n * Same V2/V3 architecture; wider pinch (ID 50) for 2-inch net cup catch.\n * No hang constraint — bottle on floor.\n *\n * ⚠ PRINT UPSIDE-DOWN (rim on build plate). With pinch at r=25 the\n * shoulder slope is now just 9mm radial over 40mm = 13° — very gentle.\n */\n\nconst example: Example = {\n id: \"waterSleeveMiniV4Top\",\n icon: \"🪴\",\n name: \"Water Sleeve — Mini V4 Top (0.5L vase)\",\n desc: \"Upper half of vase-profile sleeve for 0.5L PET. Socket ID 70, straight body, subtle pinch ID 50 for 2-inch net cup, small lip flare OD 66. PRINT UPSIDE-DOWN.\",\n size: \"~74 × 74 × 120 mm\",\n time: \"~3 hrs\",\n generatorBody: `\n const BOTTLE_H = 205;\n const BOTTLE_BODY_R = 31.5;\n\n const BODY_CLEAR = 2.5;\n const WALL = 3;\n const FOOT_EXTRA = 5;\n const TOP_PAD = 35;\n const NET_CUP_R = 25;\n const LIP_EXTRA = 5;\n\n const H = 3 + BOTTLE_H + TOP_PAD;\n const r_body_in = BOTTLE_BODY_R + BODY_CLEAR;\n const r_body_out = r_body_in + WALL;\n const r_bot_out = r_body_out + FOOT_EXTRA;\n const r_narrow_in = NET_CUP_R;\n const r_narrow_out = r_narrow_in + WALL;\n const r_top_in = r_narrow_in + LIP_EXTRA;\n const r_top_out = r_top_in + WALL;\n const t_peak = (BOTTLE_H + 7) / H;\n const shoulder_h = 40;\n\n const SPLIT_Z = Math.round(H / 2);\n\n const SOCKET_ID = 2 * r_body_in + 2;\n const SOCKET_H = 3;\n const SEG = 96;\n const N = 64;\n\n const { cylinder } = jscad.primitives;\n const { union, subtract } = jscad.booleans;\n const { hullChain } = jscad.hulls;\n\n function smoothstep(u) {\n u = Math.max(0, Math.min(1, u));\n return u * u * (3 - 2 * u);\n }\n function outerAt(z) {\n const t = z / H;\n const t_body_end = t_peak - (shoulder_h / H);\n if (t <= t_body_end) {\n const u = t_body_end > 0 ? t / t_body_end : 1;\n return r_bot_out + (r_body_out - r_bot_out) * smoothstep(u);\n } else if (t <= t_peak) {\n const u = (t - t_body_end) / (t_peak - t_body_end);\n return r_body_out + (r_narrow_out - r_body_out) * smoothstep(u);\n } else {\n const u = (t - t_peak) / (1 - t_peak);\n return r_narrow_out + (r_top_out - r_narrow_out) * smoothstep(u);\n }\n }\n function innerAt(z) {\n const t = z / H;\n const t_body_end = t_peak - (shoulder_h / H);\n if (t <= t_body_end) return r_body_in;\n if (t <= t_peak) {\n const u = (t - t_body_end) / (t_peak - t_body_end);\n return r_body_in + (r_narrow_in - r_body_in) * smoothstep(u);\n }\n const u = (t - t_peak) / (1 - t_peak);\n return r_narrow_in + (r_top_in - r_narrow_in) * smoothstep(u);\n }\n\n const outerSlices = [];\n for (let i = 0; i <= N; i++) {\n const zl = SPLIT_Z + (H - SPLIT_Z) * i / N;\n outerSlices.push(cylinder({\n radius: outerAt(zl), height: 0.1, segments: SEG, center: [0, 0, zl]\n }));\n }\n const outerSolid = hullChain.apply(null, outerSlices);\n\n const boreStart = SPLIT_Z + SOCKET_H;\n const innerSlices = [];\n for (let i = 0; i <= N; i++) {\n const zl = boreStart + (H - boreStart) * i / N;\n innerSlices.push(cylinder({\n radius: innerAt(zl), height: 0.1, segments: SEG, center: [0, 0, zl]\n }));\n }\n const innerSolid = hullChain.apply(null, innerSlices);\n\n const socket = cylinder({\n radius: SOCKET_ID / 2,\n height: SOCKET_H + 0.1,\n segments: SEG,\n center: [0, 0, SPLIT_Z + SOCKET_H / 2 - 0.05],\n });\n\n return subtract(outerSolid, innerSolid, socket);\n `,\n};\n\nexport default example;\n",[],[219,374],"803b841a-3ff5-11f1-a3ee-42b51c65c3df","waterSleeveMiniV4Hanger.ts","803b84f6-3ff5-11f1-a3ee-42b51c65c3df",199,["D",1777045907588],"import type { Example } from \"./types.ts\";\n\n/**\n * Water Sleeve — Mini V4 Hanger Collar (0.5L)\n *\n * Drop-in piece that sits on top of the V4 vase sleeve and hangs the bottle\n * 4cm below the rim via a PET neck-ring catch.\n *\n * Structure (sleeve frame, z measured from sleeve floor):\n * - Top lip z=237..240 3mm thick annulus OD 70 / ID 56\n * rests flat on the V4 sleeve rim (also OD 70)\n * - Sloped wall z=203..237 34mm hollow cone, 2mm wall\n * outer r=29→20, inner r=27→18\n * nests just inside V4 sleeve bore\n * - Bottom collar z=200..203 3mm thick annulus OD 40 / ID 29\n * 29mm hole passes PCO-1810 threads\n * 33mm support ring catches on bottom face\n *\n * Bottle hangs: ring on collar bottom face (z=200) → base floats at z=22,\n * cap top at z=227 (13mm below rim). 19mm of air between bottle base and\n * sleeve floor — the floor is no longer load-bearing.\n *\n * ⚠ PRINT UPSIDE-DOWN (lip on build plate). Verified printable without\n * supports: slope is only 15° from vertical; the slope→collar transition\n * has a 3.5mm inward bridge on the inner wall — small and trivial for PLA.\n */\n\nconst example: Example = {\n id: \"waterSleeveMiniV4Hanger\",\n icon: \"🪝\",\n name: \"Water Sleeve — Mini V4 Hanger (0.5L)\",\n desc: \"Drop-in hanger collar for V4 sleeve. Top lip OD 70 rests on sleeve rim, slope nests in bore, bottom collar has 29mm hole catching the PCO-1810 support ring so the bottle hangs 4cm below the rim. PRINT UPSIDE-DOWN, no supports needed.\",\n size: \"~70 × 70 × 40 mm\",\n time: \"~45 min\",\n generatorBody: `\n // ───────── Geometry (all in the V4 sleeve's coordinate system) ─────────\n const Z_LIP_TOP = 240; // top of lip (sleeve rim)\n const Z_LIP_BOT = 237; // bottom of lip / top of slope\n const Z_SLOPE_BOT = 203; // bottom of slope / top of collar\n const Z_COLLAR_BOT = 200; // bottom of collar (ring catch face)\n\n const R_LIP_OUT = 35; // matches V4 sleeve top outer\n const R_LIP_IN = 28; // overlaps 1mm with slope-top outer (r=29)\n const R_SLOPE_TOP_OUT = 29; const R_SLOPE_TOP_IN = 27; // wall 2mm\n const R_SLOPE_BOT_OUT = 20; const R_SLOPE_BOT_IN = 18; // wall 2mm\n const R_COLLAR_OUT = 20; // collar outer matches slope bottom\n const R_HOLE_IN = 14.5; // 29mm ID — passes PCO-1810 threads (28mm),\n // blocks support ring (33mm)\n\n const SEG = 96;\n const N = 32;\n\n const { cylinder } = jscad.primitives;\n const { union, subtract } = jscad.booleans;\n const { hullChain } = jscad.hulls;\n\n // ───────── Top lip (annulus z=237..240) ─────────\n const lipOuter = cylinder({\n radius: R_LIP_OUT, height: Z_LIP_TOP - Z_LIP_BOT, segments: SEG,\n center: [0, 0, (Z_LIP_TOP + Z_LIP_BOT) / 2],\n });\n const lipInner = cylinder({\n radius: R_LIP_IN, height: Z_LIP_TOP - Z_LIP_BOT + 0.2, segments: SEG,\n center: [0, 0, (Z_LIP_TOP + Z_LIP_BOT) / 2],\n });\n const lip = subtract(lipOuter, lipInner);\n\n // ───────── Slope (hollow cone z=203..237) ─────────\n // Build outer and inner shells via hullChain, then subtract.\n const outerSlices = [];\n const innerSlices = [];\n for (let i = 0; i <= N; i++) {\n const frac = i / N;\n const z = Z_SLOPE_BOT + (Z_LIP_BOT - Z_SLOPE_BOT) * frac;\n const rOut = R_SLOPE_BOT_OUT + (R_SLOPE_TOP_OUT - R_SLOPE_BOT_OUT) * frac;\n const rIn = R_SLOPE_BOT_IN + (R_SLOPE_TOP_IN - R_SLOPE_BOT_IN) * frac;\n outerSlices.push(cylinder({ radius: rOut, height: 0.1, segments: SEG, center: [0, 0, z] }));\n innerSlices.push(cylinder({ radius: rIn, height: 0.1, segments: SEG, center: [0, 0, z] }));\n }\n const slopeOuter = hullChain.apply(null, outerSlices);\n const slopeInner = hullChain.apply(null, innerSlices);\n const slope = subtract(slopeOuter, slopeInner);\n\n // ───────── Bottom collar (annulus z=200..203) ─────────\n const collarOuter = cylinder({\n radius: R_COLLAR_OUT, height: Z_SLOPE_BOT - Z_COLLAR_BOT, segments: SEG,\n center: [0, 0, (Z_SLOPE_BOT + Z_COLLAR_BOT) / 2],\n });\n const collarHole = cylinder({\n radius: R_HOLE_IN, height: Z_SLOPE_BOT - Z_COLLAR_BOT + 0.2, segments: SEG,\n center: [0, 0, (Z_SLOPE_BOT + Z_COLLAR_BOT) / 2],\n });\n const collar = subtract(collarOuter, collarHole);\n\n return union(lip, slope, collar);\n `,\n};\n\nexport default example;\n",[],[219,382],"182e2ca8-3ff3-11f1-93c7-42b51c65c3df","waterSleeveMiniV4Bottom.ts","cbe79852-3ff2-11f1-9bde-42b51c65c3df",197,["D",1777044873991],"import type { Example } from \"./types.ts\";\n\n/**\n * Water Sleeve — Mini V4 Bottom (0.5L, vase profile, wide pinch)\n *\n * Same V2/V3 architecture but with a MUCH wider pinch (ID 50 vs 32-34).\n * No hang constraint — bottle just sits on the floor. The wider pinch\n * means a 2-inch standard net cup rim (~56mm OD) catches on it.\n *\n * Scales parametrically — change the 2 BOTTLE_* constants at the top\n * to adapt for the 1.5L bottle (H=302, BODY_R=44.5).\n */\n\nconst example: Example = {\n id: \"waterSleeveMiniV4Bottom\",\n icon: \"🪴\",\n name: \"Water Sleeve — Mini V4 Bottom (0.5L vase)\",\n desc: \"Lower half of vase-profile sleeve for 0.5L PET. Same V2/V3 architecture but wide pinch (ID 50) for 2-inch net cup catch. No hang — bottle sits on floor.\",\n size: \"~84 × 84 × 123 mm\",\n time: \"~2.5 hrs\",\n generatorBody: `\n // ───────── Bottle spec (0.5L PET) — swap for 1.5L: 302, 44.5 ─────────\n const BOTTLE_H = 205;\n const BOTTLE_BODY_R = 31.5;\n\n // ───────── Shared design constants ─────────\n const BODY_CLEAR = 2.5;\n const WALL = 3;\n const FOOT_EXTRA = 5;\n const TOP_PAD = 35;\n const NET_CUP_R = 25;\n const LIP_EXTRA = 5;\n\n // ───────── Derived profile ─────────\n const H = 3 + BOTTLE_H + TOP_PAD;\n const r_body_in = BOTTLE_BODY_R + BODY_CLEAR;\n const r_body_out = r_body_in + WALL;\n const r_bot_out = r_body_out + FOOT_EXTRA;\n const r_narrow_in = NET_CUP_R;\n const r_narrow_out = r_narrow_in + WALL;\n const r_top_in = r_narrow_in + LIP_EXTRA;\n const r_top_out = r_top_in + WALL;\n const t_peak = (BOTTLE_H + 7) / H;\n const shoulder_h = 40;\n\n const SPLIT_Z = Math.round(H / 2);\n\n // ───────── Joint & Viewport ─────────\n const PLUG_OD = 2 * r_body_in + 1.4;\n const PLUG_H = 3;\n const FLOOR_T = 3;\n const SEG = 96;\n const N = 48;\n\n const { cylinder } = jscad.primitives;\n const { translate, rotateY } = jscad.transforms;\n const { union, subtract } = jscad.booleans;\n const { hullChain, hull } = jscad.hulls;\n\n function smoothstep(u) {\n u = Math.max(0, Math.min(1, u));\n return u * u * (3 - 2 * u);\n }\n function outerAt(z) {\n const t = z / H;\n const t_body_end = t_peak - (shoulder_h / H);\n if (t <= t_body_end) {\n const u = t_body_end > 0 ? t / t_body_end : 1;\n return r_bot_out + (r_body_out - r_bot_out) * smoothstep(u);\n } else if (t <= t_peak) {\n const u = (t - t_body_end) / (t_peak - t_body_end);\n return r_body_out + (r_narrow_out - r_body_out) * smoothstep(u);\n } else {\n const u = (t - t_peak) / (1 - t_peak);\n return r_narrow_out + (r_top_out - r_narrow_out) * smoothstep(u);\n }\n }\n\n // ───────── Outer shell z=0..SPLIT_Z ─────────\n const slices = [];\n for (let i = 0; i <= N; i++) {\n const zl = SPLIT_Z * i / N;\n slices.push(cylinder({\n radius: outerAt(zl), height: 0.1, segments: SEG, center: [0, 0, zl]\n }));\n }\n const outerSolid = hullChain.apply(null, slices);\n\n // ───────── Bore ─────────\n const boreH = SPLIT_Z - FLOOR_T;\n const bore = cylinder({\n radius: r_body_in, height: boreH + 0.2, segments: SEG,\n center: [0, 0, FLOOR_T + boreH / 2],\n });\n const hollowBody = subtract(outerSolid, bore);\n\n // ───────── Viewport (5×75mm curve-capped pill, +X side) ─────────\n const pillW = 5, pillH = 75, pillR = pillW / 2;\n const pillCz = 60;\n const cutterCenterX = r_body_in + 1.5;\n const pillDisc = (z) => translate(\n [cutterCenterX, 0, z],\n rotateY(Math.PI / 2, cylinder({\n radius: pillR, height: 20, segments: 48,\n }))\n );\n const pillCut = hull(\n pillDisc(pillCz + (pillH - pillW) / 2),\n pillDisc(pillCz - (pillH - pillW) / 2),\n );\n const bodyWithViewport = subtract(hollowBody, pillCut);\n\n // ───────── Plug on top ─────────\n const plug = cylinder({\n radius: PLUG_OD / 2, height: PLUG_H, segments: SEG,\n center: [0, 0, SPLIT_Z + PLUG_H / 2],\n });\n const plugBore = cylinder({\n radius: r_body_in, height: PLUG_H + 0.4, segments: SEG,\n center: [0, 0, SPLIT_Z + PLUG_H / 2],\n });\n const plugRing = subtract(plug, plugBore);\n\n return union(bodyWithViewport, plugRing);\n `,\n};\n\nexport default example;\n",[],[219,390],"08a8025e-3fee-11f1-80a8-42b51c65c3df","waterSleeveMiniV3Top.ts","08a8031c-3fee-11f1-80a8-42b51c65c3df",188,["D",1777042700507],"import type { Example } from \"./types.ts\";\n\n/**\n * Water Sleeve — Mini V3 Top (0.5L, two-part hyperboloid, hanging design)\n *\n * Upper half of sleeve for a PET 0.5L bottle that HANGS from pinch via a\n * wide cap (flange >34mm OD) screwed onto the bottle neck.\n *\n * Geometry:\n * - Socket (z=130..133) receives the Bottom piece's plug\n * - Body plateau (z=133..181, bore r=34) — extended higher than V2\n * - Shoulder narrowing (z=181..221, bore 34→17 over 40mm = 23°)\n * - PINCH at z=221 (bore ID 34) — where the wide cap flange lands\n * - Rim flare (z=221..260, bore 17→30, outer 22→35)\n *\n * Hanging mechanics:\n * - Pinch ID=34 is big enough to pass the 33mm support ring during\n * assembly (narrow pinch 32 in V2 would block the ring).\n * - Wide cap flange (designed by user, must be >34mm OD, suggest 40-45mm)\n * catches on top face of pinch — bottle hangs suspended.\n * - With a 15mm-thick cap and pinch at z=221, the bottle's base floats\n * at world z≈28 (25mm above the sleeve's floor).\n *\n * Bottle clearance with hanging geometry:\n * - Bottle body top at world z=183 — just barely past body plateau end\n * at z=181 (2mm overlap into shoulder region)\n * - Sleeve bore at z=183 is 33.9mm r; bottle body r=31.5 → 2.4mm clearance\n * - Plenty of room throughout the shoulder → neck transition\n *\n * ⚠ PRINT UPSIDE-DOWN (rim on build plate). Max overhang ~23°.\n */\n\nconst example: Example = {\n id: \"waterSleeveMiniV3Top\",\n icon: \"🔼\",\n name: \"Water Sleeve — Mini V3 Top (0.5L hanging)\",\n desc: \"Upper half (z=130..260) of V3 hyperboloid for 0.5L PET. Socket ID 70 at bottom, body plateau to z=181, 40mm shoulder, pinch ID 34 at z=221 (catches wide cap flange >34mm OD), rim OD 70 / ID 60. PRINT UPSIDE-DOWN.\",\n size: \"~74 × 74 × 130 mm\",\n time: \"~3.5 hrs\",\n generatorBody: `\n // ───────── Shared profile params (MATCH BOTTOM PIECE EXACTLY) ─────────\n const H = 260;\n const SPLIT_Z = 130;\n const r_bot_out = 42, r_body_out = 37, r_narrow_out = 22, r_top_out = 35;\n const r_body_in = 34, r_narrow_in = 17, r_top_in = 30;\n const t_peak = 0.85;\n const shoulder_h = 40;\n\n // ───────── Joint ─────────\n const SOCKET_ID = 70.0;\n const SOCKET_H = 3;\n const SEG = 96;\n const N = 64;\n\n const { cylinder } = jscad.primitives;\n const { union, subtract } = jscad.booleans;\n const { hullChain } = jscad.hulls;\n\n function smoothstep(u) {\n u = Math.max(0, Math.min(1, u));\n return u * u * (3 - 2 * u);\n }\n function outerAt(z) {\n const t = z/H;\n const t_body_end = t_peak - (shoulder_h/H);\n if (t <= t_body_end) {\n const u = t_body_end > 0 ? t/t_body_end : 1;\n return r_bot_out + (r_body_out - r_bot_out) * smoothstep(u);\n } else if (t <= t_peak) {\n const u = (t - t_body_end)/(t_peak - t_body_end);\n return r_body_out + (r_narrow_out - r_body_out) * smoothstep(u);\n } else {\n const u = (t - t_peak)/(1 - t_peak);\n return r_narrow_out + (r_top_out - r_narrow_out) * smoothstep(u);\n }\n }\n function innerAt(z) {\n const t = z/H;\n const t_body_end = t_peak - (shoulder_h/H);\n if (t <= t_body_end) return r_body_in;\n if (t <= t_peak) {\n const u = (t - t_body_end)/(t_peak - t_body_end);\n return r_body_in + (r_narrow_in - r_body_in) * smoothstep(u);\n }\n const u = (t - t_peak)/(1 - t_peak);\n return r_narrow_in + (r_top_in - r_narrow_in) * smoothstep(u);\n }\n\n // ───────── Outer shell z=SPLIT_Z..H ─────────\n const outerSlices = [];\n for (let i = 0; i <= N; i++) {\n const zl = SPLIT_Z + (H - SPLIT_Z) * i / N;\n outerSlices.push(cylinder({\n radius: outerAt(zl), height: 0.1, segments: SEG, center: [0, 0, zl]\n }));\n }\n const outerSolid = hullChain.apply(null, outerSlices);\n\n // ───────── Inner bore (profile) z=(SPLIT_Z+SOCKET_H)..H ─────────\n const boreStart = SPLIT_Z + SOCKET_H;\n const innerSlices = [];\n for (let i = 0; i <= N; i++) {\n const zl = boreStart + (H - boreStart) * i / N;\n innerSlices.push(cylinder({\n radius: innerAt(zl), height: 0.1, segments: SEG, center: [0, 0, zl]\n }));\n }\n const innerSolid = hullChain.apply(null, innerSlices);\n\n // ───────── Socket (widened bore z=SPLIT_Z..SPLIT_Z+SOCKET_H) ─────────\n const socket = cylinder({\n radius: SOCKET_ID / 2,\n height: SOCKET_H + 0.1,\n segments: SEG,\n center: [0, 0, SPLIT_Z + SOCKET_H / 2 - 0.05],\n });\n\n return subtract(outerSolid, innerSolid, socket);\n `,\n};\n\nexport default example;\n",[],[219,398],"f65eee14-3fed-11f1-bc66-42b51c65c3df","waterSleeveMiniV3Bottom.ts","f65eeee6-3fed-11f1-bc66-42b51c65c3df",187,["D",1777042669827],"import type { Example } from \"./types.ts\";\n\n/**\n * Water Sleeve — Mini V3 Bottom (0.5L, two-part hyperboloid, hanging design)\n *\n * Bottom half of sleeve for a PET 0.5L bottle that HANGS from the pinch\n * point via a wide cap (flange >34mm OD) screwed onto the bottle neck.\n *\n * Key differences vs V2:\n * - H=260 (was 240) — +20mm for upward-shifted bottle\n * - pinch at z=221 (was 215) — matches ~15mm-thick cap flange position\n * - pinch ID 34 (was 32) — passes 33mm support ring during assembly\n * - body plateau to z=181 — matches new bottle body top position\n * - split at z=130 (was 120) — mid-height for H=260\n *\n * Load order:\n * 1. Place bottle (cap OFF) in bottom piece — bottle base sits on floor\n * 2. Slide top piece down over the neck — pinch ID 34 passes over ring 33\n * 3. Seat the press-fit joint at z=130\n * 4. Screw the wide cap onto the bottle threads — flange rests on pinch\n * 5. Once cap is on, bottle hangs from pinch (base lifts ~25mm off floor)\n */\n\nconst example: Example = {\n id: \"waterSleeveMiniV3Bottom\",\n icon: \"🔽\",\n name: \"Water Sleeve — Mini V3 Bottom (0.5L hanging)\",\n desc: \"Lower half (z=0..133) of V3 hyperboloid for 0.5L PET. H=260, split at z=130. 3mm floor, flared foot OD 84, 5×75mm curve-capped viewport, press-fit plug OD 69.4.\",\n size: \"~84 × 84 × 133 mm\",\n time: \"~2.5 hrs\",\n generatorBody: `\n // ───────── Shared profile params (MATCH TOP PIECE EXACTLY) ─────────\n const H = 260;\n const SPLIT_Z = 130;\n const r_bot_out = 42, r_body_out = 37, r_narrow_out = 22, r_top_out = 35;\n const r_body_in = 34, r_narrow_in = 17, r_top_in = 30; // narrow ID=34 passes ring 33\n const t_peak = 0.85; // pinch at z=221 — where a 15mm cap flange lands\n const shoulder_h = 40; // body plateau ends at z=181 (= pinch − shoulder_h)\n\n // ───────── Joint & Viewport ─────────\n const PLUG_OD = 69.4;\n const PLUG_H = 3;\n const FLOOR_T = 3;\n const SEG = 96;\n const N = 48;\n\n const { cylinder } = jscad.primitives;\n const { translate, rotateY } = jscad.transforms;\n const { union, subtract } = jscad.booleans;\n const { hullChain, hull } = jscad.hulls;\n\n function smoothstep(u) {\n u = Math.max(0, Math.min(1, u));\n return u * u * (3 - 2 * u);\n }\n function outerAt(z) {\n const t = z/H;\n const t_body_end = t_peak - (shoulder_h/H);\n if (t <= t_body_end) {\n const u = t_body_end > 0 ? t/t_body_end : 1;\n return r_bot_out + (r_body_out - r_bot_out) * smoothstep(u);\n } else if (t <= t_peak) {\n const u = (t - t_body_end)/(t_peak - t_body_end);\n return r_body_out + (r_narrow_out - r_body_out) * smoothstep(u);\n } else {\n const u = (t - t_peak)/(1 - t_peak);\n return r_narrow_out + (r_top_out - r_narrow_out) * smoothstep(u);\n }\n }\n\n // ───────── Outer shell z=0..SPLIT_Z via hullChain ─────────\n const slices = [];\n for (let i = 0; i <= N; i++) {\n const zl = SPLIT_Z * i / N;\n slices.push(cylinder({\n radius: outerAt(zl), height: 0.1, segments: SEG, center: [0, 0, zl]\n }));\n }\n const outerSolid = hullChain.apply(null, slices);\n\n // ───────── Bore (z=FLOOR_T..SPLIT_Z, body region only) ─────────\n const boreH = SPLIT_Z - FLOOR_T;\n const bore = cylinder({\n radius: r_body_in, height: boreH + 0.2, segments: SEG,\n center: [0, 0, FLOOR_T + boreH/2],\n });\n const hollowBody = subtract(outerSolid, bore);\n\n // ───────── Viewport (5×75mm curve-capped pill, +X side) ─────────\n const pillW = 5, pillH = 75, pillR = pillW / 2;\n const pillCz = 65; // mid-height of bottom piece\n const pillDisc = (z) => translate(\n [37, 0, z],\n rotateY(Math.PI / 2, cylinder({\n radius: pillR, height: 20, segments: 48,\n }))\n );\n const pillCut = hull(\n pillDisc(pillCz + (pillH - pillW) / 2),\n pillDisc(pillCz - (pillH - pillW) / 2),\n );\n const bodyWithViewport = subtract(hollowBody, pillCut);\n\n // ───────── Plug on top z=SPLIT_Z..SPLIT_Z+PLUG_H ─────────\n const plug = cylinder({\n radius: PLUG_OD/2, height: PLUG_H, segments: SEG,\n center: [0, 0, SPLIT_Z + PLUG_H/2],\n });\n const plugBore = cylinder({\n radius: r_body_in, height: PLUG_H + 0.4, segments: SEG,\n center: [0, 0, SPLIT_Z + PLUG_H/2],\n });\n const plugRing = subtract(plug, plugBore);\n\n return union(bodyWithViewport, plugRing);\n `,\n};\n\nexport default example;\n",[],[219,406],"760e7fc2-45a6-11f1-a024-42b51c65c3df","waterSleeveMiniV2TopSlim.ts","e40abcbe-4594-11f1-a033-42b51c65c3df",263,["D",1777671667233],"import type { Example } from \"./types.ts\";\n\n/**\n * Water Sleeve — Mini V2 Top SLIM v2 (0.5L)\n *\n * KEEPS the original chunky V2 outer (the shape you like). Hollows the\n * body region (z=120..200) to a uniform 2mm wall. Preserves the original\n * inner curve from z=200 onwards — that's the shoulder narrowing INTO\n * the pinch (with its gentle 24° slope) and the rim flare back out, so\n * the pinch ID stays at 32 (matches mini for cap-hang setup).\n *\n * Joint preserved bit-for-bit (cross-compatible with gold-star V2 Bottom):\n * - SOCKET_ID = 70.0 (radial 0.05mm vs 69.90 plug)\n * - At z=120..123, outer-2 = 35 = SOCKET_ID/2 naturally (no separate\n * socket cylinder needed — the hollow IS the socket)\n *\n * Inner profile:\n * - z=120..200: outer - 2 (hollow, 2mm wall throughout body region)\n * - z=200..240: original_inner (preserves natural shoulder narrowing\n * from r=21.7 down to pinch r=16, then back up to rim r=30)\n *\n * Transition at z=200: inner steps from 24.78 (hollow) to 21.74 (preserved).\n * In print orientation (upside-down, rim on plate), this transition is\n * supported — the new layer at z just below 200 (sleeve frame) has its\n * inner edge OUTWARD of the layer above. No overhang.\n *\n * Material savings: ~25% less filament (most savings are in the body\n * region where wall went from 3mm to 2mm).\n *\n * ⚠ PRINT UPSIDE-DOWN (rim on plate). Same as gold-star.\n */\n\nconst example: Example = {\n id: \"waterSleeveMiniV2TopSlim\",\n icon: \"🪶\",\n name: \"Water Sleeve — Mini V2 Top SLIM (0.5L)\",\n desc: \"Slim v2: SAME chunky outer as gold-star V2 Top, body region hollowed to 2mm wall. Preserves shoulder/pinch/rim shape from z=200 up. Pinch ID 32 (cap catch). Cross-compatible with gold-star Bottom. PRINT UPSIDE-DOWN.\",\n size: \"~74 × 74 × 120 mm\",\n time: \"~2.5 hrs\",\n generatorBody: `\n // ───────── Outer profile (IDENTICAL to gold-star V2 Top) ─────────\n const H = 240;\n const SPLIT_Z = 120;\n const r_bot_out = 42, r_body_out = 37, r_narrow_out = 22, r_top_out = 35;\n const r_body_in = 34, r_narrow_in = 16, r_top_in = 30;\n const t_peak = 0.896;\n const shoulder_h = 40;\n\n // ───────── Hollow params ─────────\n const WALL = 2; // target wall in hollowed region\n const PRESERVE_FROM = 200; // z >= this: keep original inner curve\n\n // ───────── Joint (IDENTICAL to gold-star) ─────────\n const SOCKET_ID = 70.0;\n const SEG = 96;\n const N = 64;\n\n const { cylinder } = jscad.primitives;\n const { union, subtract } = jscad.booleans;\n const { hullChain } = jscad.hulls;\n\n function smoothstep(u) {\n u = Math.max(0, Math.min(1, u));\n return u * u * (3 - 2 * u);\n }\n function outerAt(z) {\n const t = z/H;\n const t_body_end = t_peak - (shoulder_h/H);\n if (t <= t_body_end) {\n const u = t_body_end > 0 ? t/t_body_end : 1;\n return r_bot_out + (r_body_out - r_bot_out) * smoothstep(u);\n } else if (t <= t_peak) {\n const u = (t - t_body_end)/(t_peak - t_body_end);\n return r_body_out + (r_narrow_out - r_body_out) * smoothstep(u);\n }\n const u = (t - t_peak)/(1 - t_peak);\n return r_narrow_out + (r_top_out - r_narrow_out) * smoothstep(u);\n }\n function originalInnerAt(z) {\n const t = z/H;\n const t_body_end = t_peak - (shoulder_h/H);\n if (t <= t_body_end) return r_body_in;\n if (t <= t_peak) {\n const u = (t - t_body_end)/(t_peak - t_body_end);\n return r_body_in + (r_narrow_in - r_body_in) * smoothstep(u);\n }\n const u = (t - t_peak)/(1 - t_peak);\n return r_narrow_in + (r_top_in - r_narrow_in) * smoothstep(u);\n }\n function innerAt(z) {\n if (z >= PRESERVE_FROM) {\n return originalInnerAt(z); // preserve shoulder narrowing + pinch + rim flare\n }\n return outerAt(z) - WALL; // hollow body region to uniform 2mm wall\n }\n\n // ───────── Outer shell z=SPLIT_Z..H (UNCHANGED outer profile) ─────────\n const outerSlices = [];\n for (let i = 0; i <= N; i++) {\n const zl = SPLIT_Z + (H - SPLIT_Z) * i / N;\n outerSlices.push(cylinder({\n radius: outerAt(zl), height: 0.1, segments: SEG, center: [0, 0, zl]\n }));\n }\n const outerSolid = hullChain.apply(null, outerSlices);\n\n // ───────── Inner cavity z=SPLIT_Z..H (NEW: hollowed except preserved zone) ─────────\n // Covers full height including socket region (outer-2 = 35 at z=120..123 naturally).\n const innerSlices = [];\n for (let i = 0; i <= N; i++) {\n const zl = SPLIT_Z + (H - SPLIT_Z) * i / N;\n innerSlices.push(cylinder({\n radius: innerAt(zl), height: 0.1, segments: SEG, center: [0, 0, zl]\n }));\n }\n const innerSolid = hullChain.apply(null, innerSlices);\n\n return subtract(outerSolid, innerSolid);\n `,\n};\n\nexport default example;\n",[],[219,414],"0bf66ff2-4595-11f1-a01e-42b51c65c3df","waterSleeveMiniV2Top.ts","2a637474-3fe3-11f1-a19b-42b51c65c3df",260,["D",1777664187810],4,"import type { Example } from \"./types.ts\";\n\n/**\n * Water Sleeve — Mini V2 Top (0.5L, two-part hyperboloid, NO collar)\n *\n * ⭐ WORKING / GOLDEN CHILD — printed and confirmed fits cleanly. Pinch ID 32\n * catches the screw-on cap to hang the bottle. Bore profile follows the\n * bottle shoulder properly. DO NOT MODIFY without making a new variant.\n *\n * Upper half of two-piece sleeve for 205mm PET 0.5L.\n * - Press-fit socket (z=120..123) receiving the Bottom piece's plug\n * - Body region continuation (z=123..175, bore stays r=34) — taller body plateau\n * - Gentle shoulder narrowing (z=175..215, bore 34→16 over 40mm = 24°)\n * - NARROWEST at z=215 (bore ID 32) — above bottle top (z=208)\n * - Rim flare (z=215..240, bore 16→30, outer 22→35)\n *\n * Shell design: with narrow above bottle top, NOTHING mechanically catches\n * the bottle itself. The screw-on cap (>32mm OD flange) catches on the pinch\n * from above and hangs the bottle. Bottle sits on bottom piece's floor;\n * sleeve is held together by the press-fit joint at z=120.\n *\n * Roomier shoulder: body plateau extends up to z=175 (was z=157), so the\n * sleeve stays body-wide over the bottle's shoulder transition zone, only\n * starting to narrow above where the bottle is already mostly neck-width.\n *\n * ⚠ PRINT UPSIDE-DOWN (rim on build plate). Max overhang ~29° at rim flare.\n */\n\nconst example: Example = {\n id: \"waterSleeveMiniV2Top\",\n icon: \"⭐\",\n name: \"Water Sleeve — Mini V2 Top (0.5L) [WORKING]\",\n desc: \"WORKING / GOLDEN CHILD. Upper half (z=120..240) for 0.5L PET. Socket ID 70, body plateau extends to z=175, gentle 40mm pinch to ID 32 at z=215, rim OD 70 / ID 60. Catches screw-on cap to hang bottle. PRINT UPSIDE-DOWN.\",\n size: \"~74 × 74 × 120 mm\",\n time: \"~3.5 hrs\",\n generatorBody: `\n // ───────── Shared profile params (MATCH BOTTOM PIECE EXACTLY) ─────────\n const H = 240;\n const SPLIT_Z = 120;\n const r_bot_out = 42, r_body_out = 37, r_narrow_out = 22, r_top_out = 35;\n const r_body_in = 34, r_narrow_in = 16, r_top_in = 30;\n const t_peak = 0.896;\n const shoulder_h = 40;\n\n // ───────── Joint ─────────\n const SOCKET_ID = 70.0;\n const SOCKET_H = 3;\n const SEG = 96;\n const N = 64;\n\n const { cylinder } = jscad.primitives;\n const { union, subtract } = jscad.booleans;\n const { hullChain } = jscad.hulls;\n\n function smoothstep(u) {\n u = Math.max(0, Math.min(1, u));\n return u * u * (3 - 2 * u);\n }\n function outerAt(z) {\n const t = z/H;\n const t_body_end = t_peak - (shoulder_h/H);\n if (t <= t_body_end) {\n const u = t_body_end > 0 ? t/t_body_end : 1;\n return r_bot_out + (r_body_out - r_bot_out) * smoothstep(u);\n } else if (t <= t_peak) {\n const u = (t - t_body_end)/(t_peak - t_body_end);\n return r_body_out + (r_narrow_out - r_body_out) * smoothstep(u);\n } else {\n const u = (t - t_peak)/(1 - t_peak);\n return r_narrow_out + (r_top_out - r_narrow_out) * smoothstep(u);\n }\n }\n function innerAt(z) {\n const t = z/H;\n const t_body_end = t_peak - (shoulder_h/H);\n if (t <= t_body_end) return r_body_in;\n if (t <= t_peak) {\n const u = (t - t_body_end)/(t_peak - t_body_end);\n return r_body_in + (r_narrow_in - r_body_in) * smoothstep(u);\n }\n const u = (t - t_peak)/(1 - t_peak);\n return r_narrow_in + (r_top_in - r_narrow_in) * smoothstep(u);\n }\n\n // ───────── Outer shell z=SPLIT_Z..H ─────────\n const outerSlices = [];\n for (let i = 0; i <= N; i++) {\n const zl = SPLIT_Z + (H - SPLIT_Z) * i / N;\n outerSlices.push(cylinder({\n radius: outerAt(zl), height: 0.1, segments: SEG, center: [0, 0, zl]\n }));\n }\n const outerSolid = hullChain.apply(null, outerSlices);\n\n // ───────── Inner bore (profile) z=(SPLIT_Z+SOCKET_H)..H ─────────\n const boreStart = SPLIT_Z + SOCKET_H;\n const innerSlices = [];\n for (let i = 0; i <= N; i++) {\n const zl = boreStart + (H - boreStart) * i / N;\n innerSlices.push(cylinder({\n radius: innerAt(zl), height: 0.1, segments: SEG, center: [0, 0, zl]\n }));\n }\n const innerSolid = hullChain.apply(null, innerSlices);\n\n // ───────── Socket (widened bore z=SPLIT_Z..SPLIT_Z+SOCKET_H) ─────────\n const socket = cylinder({\n radius: SOCKET_ID / 2,\n height: SOCKET_H + 0.1,\n segments: SEG,\n center: [0, 0, SPLIT_Z + SOCKET_H / 2 - 0.05],\n });\n\n return subtract(outerSolid, innerSolid, socket);\n `,\n};\n\nexport default example;\n",[],[219,422],"25cac8e0-45a6-11f1-9496-42b51c65c3df","waterSleeveMiniV2BottomSlim.ts","d3cb4af8-4594-11f1-b550-42b51c65c3df",262,["D",1777671532589],"import type { Example } from \"./types.ts\";\n\n/**\n * Water Sleeve — Mini V2 Bottom SLIM v2 (0.5L)\n *\n * KEEPS the original chunky V2 outer (the shape you like). Hollows the\n * inner cavity aggressively to a uniform 2mm wall. NO FLOOR — bottle's own\n * bottom rests on the table, sleeve drapes around it.\n *\n * Joint preserved bit-for-bit from gold-star V2 Bottom (cross-compatible\n * with gold-star V2 Top):\n * - PLUG_OD = 69.90 (radial 0.05mm into 70.0 socket)\n * - Plug bore = 33.5\n *\n * Plug support zone: top 10mm of body (z=110..120) keeps inner=33.5 so the\n * body wall is 3.5mm thick there, providing structural support for the\n * plug ring above. Without this, the plug would float on a 0.05mm contact\n * with the body wall and likely detach under press-fit force.\n *\n * Body region (z=0..110): inner = outer-2 (uniform 2mm wall).\n *\n * First print layer = annular ring OD 84, ID 80, 2mm wide. ADD A BRIM in\n * the slicer (5-8mm) for first-layer adhesion.\n *\n * Material savings: ~50% less filament than gold-star.\n */\n\nconst example: Example = {\n id: \"waterSleeveMiniV2BottomSlim\",\n icon: \"🪶\",\n name: \"Water Sleeve — Mini V2 Bottom SLIM (0.5L)\",\n desc: \"Slim v2: SAME chunky outer as gold-star V2, hollowed inner to 2mm wall, NO FLOOR. Same plug fit (PLUG_OD 69.90). Print with brim. Saves ~50% filament.\",\n size: \"~84 × 84 × 123 mm\",\n time: \"~1.5 hrs\",\n generatorBody: `\n // ───────── Outer profile (IDENTICAL to gold-star V2 Bottom) ─────────\n const H = 240;\n const SPLIT_Z = 120;\n const r_bot_out = 42, r_body_out = 37, r_narrow_out = 22, r_top_out = 35;\n const t_peak = 0.896;\n const shoulder_h = 40;\n const r_body_in = 33.5; // preserved at plug zone\n\n // ───────── Hollow params ─────────\n const WALL = 2; // target wall in hollowed region\n const PLUG_SUPPORT_LOW = 110; // z >= this: preserve r_body_in for plug\n\n // ───────── Joint (IDENTICAL to gold-star) ─────────\n const PLUG_OD = 69.90;\n const PLUG_H = 3;\n const SEG = 96;\n const N = 48;\n\n const { cylinder } = jscad.primitives;\n const { translate, rotateY } = jscad.transforms;\n const { union, subtract } = jscad.booleans;\n const { hullChain, hull } = jscad.hulls;\n\n function smoothstep(u) {\n u = Math.max(0, Math.min(1, u));\n return u * u * (3 - 2 * u);\n }\n function outerAt(z) {\n const t = z/H;\n const t_body_end = t_peak - (shoulder_h/H);\n if (t <= t_body_end) {\n const u = t_body_end > 0 ? t/t_body_end : 1;\n return r_bot_out + (r_body_out - r_bot_out) * smoothstep(u);\n } else if (t <= t_peak) {\n const u = (t - t_body_end)/(t_peak - t_body_end);\n return r_body_out + (r_narrow_out - r_body_out) * smoothstep(u);\n }\n const u = (t - t_peak)/(1 - t_peak);\n return r_narrow_out + (r_top_out - r_narrow_out) * smoothstep(u);\n }\n function innerAt(z) {\n if (z >= PLUG_SUPPORT_LOW) return r_body_in;\n return Math.max(outerAt(z) - WALL, r_body_in);\n }\n\n // ───────── Outer shell z=0..SPLIT_Z (UNCHANGED) ─────────\n const outerSlices = [];\n for (let i = 0; i <= N; i++) {\n const zl = SPLIT_Z * i / N;\n outerSlices.push(cylinder({\n radius: outerAt(zl), height: 0.1, segments: SEG, center: [0, 0, zl]\n }));\n }\n const outerSolid = hullChain.apply(null, outerSlices);\n\n // ───────── Inner cavity (NEW: hollowed, full height, no floor) ─────────\n const innerSlices = [];\n for (let i = 0; i <= N; i++) {\n const zl = SPLIT_Z * i / N;\n innerSlices.push(cylinder({\n radius: innerAt(zl), height: 0.1, segments: SEG, center: [0, 0, zl]\n }));\n }\n const innerSolid = hullChain.apply(null, innerSlices);\n const hollowShell = subtract(outerSolid, innerSolid);\n\n // ───────── Viewport (UNCHANGED — cuts through thin wall same as before) ─────────\n const pillW = 5, pillH = 75, pillR = pillW / 2;\n const pillCz = 60;\n const pillDisc = (z) => translate(\n [37, 0, z],\n rotateY(Math.PI / 2, cylinder({ radius: pillR, height: 20, segments: 48 }))\n );\n const pillCut = hull(\n pillDisc(pillCz + (pillH - pillW) / 2),\n pillDisc(pillCz - (pillH - pillW) / 2),\n );\n const bodyWithViewport = subtract(hollowShell, pillCut);\n\n // ───────── Plug ring on top (UNCHANGED — gold-star joint) ─────────\n const plug = cylinder({\n radius: PLUG_OD/2, height: PLUG_H, segments: SEG,\n center: [0, 0, SPLIT_Z + PLUG_H/2],\n });\n const plugBore = cylinder({\n radius: r_body_in, height: PLUG_H + 0.4, segments: SEG,\n center: [0, 0, SPLIT_Z + PLUG_H/2],\n });\n const plugRing = subtract(plug, plugBore);\n\n return union(bodyWithViewport, plugRing);\n `,\n};\n\nexport default example;\n",[],[219,431],"f9fb3008-4594-11f1-9efc-42b51c65c3df","waterSleeveMiniV2Bottom.ts","1bdc49f8-3fe3-11f1-af98-42b51c65c3df",259,["D",1777664157644],6,"import type { Example } from \"./types.ts\";\n\n/**\n * Water Sleeve — Mini V2 Bottom (0.5L, two-part hyperboloid, NO collar)\n *\n * ⭐ WORKING / GOLDEN CHILD — printed and confirmed fits a 0.5L PET cleanly.\n * Press fit is tight (radial 0.05mm), bore clears bottle body, screw-cap\n * hangs the bottle from the matching V2 Top's pinch. DO NOT MODIFY without\n * making a new variant.\n *\n * Bottom half of a two-piece sleeve for a 205mm PET 0.5L water bottle.\n * Sleeve extends to 240mm total (3cm above bottle top).\n *\n * Load order: load bottle into bottom piece (rests on 3mm floor), slide top\n * piece down over the neck, press-fit the joint at z=120.\n *\n * Includes 5×75mm curve-capped viewport for water-level visibility.\n *\n * Press-fit tuning (from test-ring trial, confirmed with second-tightest ring):\n * - PLUG_OD = 69.90 (was 69.4; radial clearance vs 70.0 socket = 0.05mm)\n * This is the 2nd-largest OD from the 4-ring test —\n * Ring 3 (front-right on the plate, radial 0.05mm).\n * - r_body_in = 33.5 (was 34; bore ID 67 instead of 68 — thicker plug\n * wall from 0.7mm → 1.4mm, continuous through the\n * whole part so no overhang). Bottle clearance goes\n * from 2.5mm radial → 2.0mm, still plenty for Kratky.\n */\n\nconst example: Example = {\n id: \"waterSleeveMiniV2Bottom\",\n icon: \"⭐\",\n name: \"Water Sleeve — Mini V2 Bottom (0.5L) [WORKING]\",\n desc: \"WORKING / GOLDEN CHILD. Lower half (z=0..123) of two-part hyperboloid for 0.5L PET. 3mm floor, flared foot OD 84, 5×75mm curve-capped viewport, press-fit plug OD 69.90 (radial 0.05mm), bore ID 67. Confirmed fits and seats correctly.\",\n size: \"~84 × 84 × 123 mm\",\n time: \"~2.5 hrs\",\n generatorBody: `\n // ───────── Shared profile params (Top piece unchanged — don't touch it) ─────────\n const H = 240;\n const SPLIT_Z = 120;\n const r_bot_out = 42, r_body_out = 37, r_narrow_out = 22, r_top_out = 35;\n const r_body_in = 33.5, r_narrow_in = 16, r_top_in = 30; // bore ID 67 (was 68)\n const t_peak = 0.896;\n const shoulder_h = 40;\n\n // ───────── Joint & Viewport ─────────\n const PLUG_OD = 69.90; // 2nd-largest test ring OD (Ring 3, radial 0.05mm vs 70.0 socket)\n const PLUG_H = 3;\n const FLOOR_T = 3;\n const SEG = 96;\n const N = 48;\n\n const { cylinder } = jscad.primitives;\n const { translate, rotateY } = jscad.transforms;\n const { union, subtract } = jscad.booleans;\n const { hullChain, hull } = jscad.hulls;\n\n function smoothstep(u) {\n u = Math.max(0, Math.min(1, u));\n return u * u * (3 - 2 * u);\n }\n function outerAt(z) {\n const t = z/H;\n const t_body_end = t_peak - (shoulder_h/H);\n if (t <= t_body_end) {\n const u = t_body_end > 0 ? t/t_body_end : 1;\n return r_bot_out + (r_body_out - r_bot_out) * smoothstep(u);\n } else if (t <= t_peak) {\n const u = (t - t_body_end)/(t_peak - t_body_end);\n return r_body_out + (r_narrow_out - r_body_out) * smoothstep(u);\n } else {\n const u = (t - t_peak)/(1 - t_peak);\n return r_narrow_out + (r_top_out - r_narrow_out) * smoothstep(u);\n }\n }\n\n // ───────── Outer shell z=0..SPLIT_Z via hullChain ─────────\n const slices = [];\n for (let i = 0; i <= N; i++) {\n const zl = SPLIT_Z * i / N;\n slices.push(cylinder({\n radius: outerAt(zl), height: 0.1, segments: SEG, center: [0, 0, zl]\n }));\n }\n const outerSolid = hullChain.apply(null, slices);\n\n // ───────── Bore (continuous r_body_in=33.5, ID 67, from floor to plug top) ─────────\n const boreH = SPLIT_Z - FLOOR_T;\n const bore = cylinder({\n radius: r_body_in, height: boreH + 0.2, segments: SEG,\n center: [0, 0, FLOOR_T + boreH/2],\n });\n const hollowBody = subtract(outerSolid, bore);\n\n // ───────── Viewport (5×75mm curve-capped pill, +X side) ─────────\n const pillW = 5, pillH = 75, pillR = pillW / 2;\n const pillCz = 60;\n const pillDisc = (z) => translate(\n [37, 0, z],\n rotateY(Math.PI / 2, cylinder({\n radius: pillR, height: 20, segments: 48,\n }))\n );\n const pillCut = hull(\n pillDisc(pillCz + (pillH - pillW) / 2),\n pillDisc(pillCz - (pillH - pillW) / 2),\n );\n const bodyWithViewport = subtract(hollowBody, pillCut);\n\n // ───────── Plug on top z=SPLIT_Z..SPLIT_Z+PLUG_H ─────────\n // Plug bore continues at r_body_in=33.5 — no internal step, no overhang.\n const plug = cylinder({\n radius: PLUG_OD/2, height: PLUG_H, segments: SEG,\n center: [0, 0, SPLIT_Z + PLUG_H/2],\n });\n const plugBore = cylinder({\n radius: r_body_in, height: PLUG_H + 0.4, segments: SEG,\n center: [0, 0, SPLIT_Z + PLUG_H/2],\n });\n const plugRing = subtract(plug, plugBore);\n\n return union(bodyWithViewport, plugRing);\n `,\n};\n\nexport default example;\n",[],[219,439],"47ac4fa4-3f81-11f1-ba98-42b51c65c3df","waterSleeveMiniMiddleV1.ts","47ac508a-3f81-11f1-ba98-42b51c65c3df",173,["D",1776995991082],"import type { Example } from \"./types.ts\";\n\nconst example: Example = {\n id: \"waterSleeveMiniMiddleV1\",\n icon: \"🧱\",\n name: \"Water Sleeve — Mini Middle V1 (0.5L)\",\n desc: \"130mm middle sheath for 0.5L water bottle. OD 74, ID 68. Sockets at top and bottom receive collar and base plugs. Same v1 architecture at 0.5L scale.\",\n size: \"~74 × 74 × 130 mm\",\n time: \"~3 hrs\",\n generatorBody: `\n const OD = 74;\n const BORE_ID = 68;\n const SOCKET_ID = 70.0;\n const SOCKET_H = 3;\n const SEG = 96;\n\n const { cylinder } = jscad.primitives;\n const { subtract } = jscad.booleans;\n\n // ───────── Middle Sheath ─────────\n const H = 130;\n\n const outer = cylinder({\n radius: OD / 2, height: H, segments: SEG,\n center: [0, 0, H / 2],\n });\n const mainBore = cylinder({\n radius: BORE_ID / 2, height: H + 0.2, segments: SEG,\n center: [0, 0, H / 2],\n });\n const topSocket = cylinder({\n radius: SOCKET_ID / 2, height: SOCKET_H + 0.1, segments: SEG,\n center: [0, 0, H - SOCKET_H / 2 + 0.05],\n });\n const botSocket = cylinder({\n radius: SOCKET_ID / 2, height: SOCKET_H + 0.1, segments: SEG,\n center: [0, 0, SOCKET_H / 2 - 0.05],\n });\n\n return subtract(outer, mainBore, topSocket, botSocket);\n `,\n};\n\nexport default example;\n",[],[219,448],"50b9c554-3f81-11f1-9acc-42b51c65c3df","waterSleeveMiniCollarV1.ts","50b9c626-3f81-11f1-9acc-42b51c65c3df",174,["D",1776996006276],"import type { Example } from \"./types.ts\";\n\nconst example: Example = {\n id: \"waterSleeveMiniCollarV1\",\n icon: \"⭕\",\n name: \"Water Sleeve — Mini Collar V1 (0.5L)\",\n desc: \"Top collar for 0.5L water sleeve. OD 74. 29mm neck hole (PCO-1810, identical to 1.5L since caps/necks are standardized). 3mm plug drops into mini middle's top socket.\",\n size: \"~74 × 74 × 8 mm\",\n time: \"~15 min\",\n generatorBody: `\n // ───────── Shared dimensions (0.5L water bottle sleeve) ─────────\n const OD = 74; // outer diameter of sheath stack\n const BORE_ID = 68; // inner bore\n const PLUG_OD = 69.4; // male plug diameter (fits into socket)\n const SOCKET_ID = 70.0; // female socket diameter (0.3mm radial clearance)\n const PLUG_H = 3; // stack interface height\n const SOCKET_H = 3; // matching socket depth\n const NECK_HOLE_D = 29; // lets PET threads pass, blocks support ring — SAME AS 1.5L\n const RING_CLEAR_D = 36; // underside cavity wide enough for support ring — SAME AS 1.5L\n const SEG = 96;\n\n const { cylinder } = jscad.primitives;\n const { subtract, union } = jscad.booleans;\n\n // ───────── Collar ─────────\n const discT = 5;\n const totalH = discT + PLUG_H;\n\n const disc = cylinder({\n radius: OD / 2, height: discT, segments: SEG,\n center: [0, 0, PLUG_H + discT / 2],\n });\n const plug = cylinder({\n radius: PLUG_OD / 2, height: PLUG_H, segments: SEG,\n center: [0, 0, PLUG_H / 2],\n });\n const body = union(disc, plug);\n\n const neckHole = cylinder({\n radius: NECK_HOLE_D / 2, height: totalH + 1, segments: SEG,\n center: [0, 0, totalH / 2],\n });\n const ringCavity = cylinder({\n radius: RING_CLEAR_D / 2, height: PLUG_H + 0.2, segments: SEG,\n center: [0, 0, PLUG_H / 2 - 0.05],\n });\n\n return subtract(body, neckHole, ringCavity);\n `,\n};\n\nexport default example;\n",[],[219,456],"415d673c-3f81-11f1-b282-42b51c65c3df","waterSleeveMiniBaseV1.ts","415d67fa-3f81-11f1-b282-42b51c65c3df",172,["D",1776995980499],"import type { Example } from \"./types.ts\";\n\nconst example: Example = {\n id: \"waterSleeveMiniBaseV1\",\n icon: \"🟤\",\n name: \"Water Sleeve — Mini Base V1 (0.5L)\",\n desc: \"Bottom base for 0.5L water sleeve. OD 74, ID 68 (fits ~63mm body bottle). 3mm floor, 5×20mm skinny pill viewport, 3mm plug. Same v1 architecture at 0.5L scale.\",\n size: \"~74 × 74 × 33 mm\",\n time: \"~1 hr\",\n generatorBody: `\n const OD = 74;\n const BORE_ID = 68;\n const WALL = (OD - BORE_ID) / 2;\n const PLUG_OD = 69.4;\n const PLUG_H = 3;\n const SEG = 96;\n\n const { cylinder } = jscad.primitives;\n const { subtract, union } = jscad.booleans;\n const { translate, rotateY } = jscad.transforms;\n const { hull } = jscad.hulls;\n\n // ───────── Base ─────────\n const floorT = 3; // solid floor thickness\n const wallH = 30; // height of side wall\n const totalH = floorT + wallH + PLUG_H;\n\n const outer = cylinder({\n radius: OD / 2, height: totalH, segments: SEG,\n center: [0, 0, totalH / 2],\n });\n const boreBelowPlug = cylinder({\n radius: BORE_ID / 2, height: wallH + 0.1, segments: SEG,\n center: [0, 0, floorT + wallH / 2 + 0.05],\n });\n const plugStep = cylinder({\n radius: OD / 2 + 0.1, height: PLUG_H + 0.1, segments: SEG,\n center: [0, 0, floorT + wallH + PLUG_H / 2 + 0.05],\n });\n const plugKeep = cylinder({\n radius: PLUG_OD / 2, height: PLUG_H + 0.2, segments: SEG,\n center: [0, 0, floorT + wallH + PLUG_H / 2],\n });\n const plugBore = cylinder({\n radius: BORE_ID / 2, height: PLUG_H + 0.3, segments: SEG,\n center: [0, 0, floorT + wallH + PLUG_H / 2],\n });\n\n // Pill viewport — 5mm wide × 20mm tall, one side only.\n // Cutter centered at X=45 (between r=34 bore and r=37 outer), length 30\n // crosses both walls cleanly so the slit is consistent inside and outside.\n const pillW = 5, pillH = 20, pillR = pillW / 2;\n const pillCz = floorT + wallH / 2;\n const pillDisc = (z) => translate(\n [45, 0, z],\n rotateY(Math.PI / 2, cylinder({\n radius: pillR, height: 30, segments: 48,\n }))\n );\n const pillCut = hull(\n pillDisc(pillCz + (pillH - pillW) / 2),\n pillDisc(pillCz - (pillH - pillW) / 2),\n );\n\n const withBore = subtract(outer, boreBelowPlug);\n const stepped = subtract(withBore, plugStep);\n const withPlug = union(stepped, subtract(plugKeep, plugBore));\n return subtract(withPlug, pillCut);\n `,\n};\n\nexport default example;\n",[],[219,464],"5b75fde6-3f77-11f1-b53d-42b51c65c3df","waterSleeveMiddleV4.ts","5b75fee0-3f77-11f1-b53d-42b51c65c3df",166,["D",1776991729301],"import type { Example } from \"./types.ts\";\n\n/**\n * Water Sleeve Middle V4 — threaded at bottom, plug-socket at top.\n * Same gradual-taper outer profile as v3 middle (OD ~118 → ~100 over 180mm).\n * Bottom 10mm has a female thread cavity matching base V4's male stub.\n * Top 3mm is a plug-receiver socket (ID 96) identical to v3, for collar V3.\n */\n\nconst example: Example = {\n id: \"waterSleeveMiddleV4\",\n icon: \"🧵\",\n name: \"Water Sleeve — Middle V4 (threaded bottom)\",\n desc: \"180mm sheath, outer gradually tapers OD ~118 → ~100. Bottom has a female thread cavity (OD 100.4 tip / OD 96.4 root, pitch 5mm, 2 turns) receiving base V4's male stub. Top has a plug socket (ID 96) for collar V3.\",\n size: \"~120 × 120 × 180 mm\",\n time: \"~10 hrs\",\n generatorBody: `\n // ───────── v3 profile parameters ─────────\n const r_bot = 60, r_body = 50, r_mid = 24, r_top = 42;\n const t_body_end = 0.78, t_peak = 0.87, sharpP = 1.5;\n const H = 300;\n const MID_ZW_BOT = 41;\n const MID_ZW_TOP = 221;\n const MID_H = MID_ZW_TOP - MID_ZW_BOT; // 180\n\n // ───────── Bore / socket / thread spec ─────────\n const BORE_ID = 94;\n const SOCKET_ID = 96.0;\n const SOCKET_H = 3;\n const SEG = 96;\n const N = 48;\n\n // Female thread spec — matches base V4 with 0.2mm radial clearance.\n // thread root (outer/cavity wall) = male tip + clearance; thread tip = male root + clearance.\n const thClearance = 0.2;\n const thMajorR = 50; // male tip (reference)\n const thMinorR = 48; // male root (reference)\n const femaleRootR = thMajorR + thClearance; // 50.2 — the cavity's outer wall\n const femaleTipR = thMinorR + thClearance; // 48.2 — female thread tips point inward to here\n const thPitch = 5;\n const thTurns = 2;\n const thH = thTurns * thPitch; // 10mm\n\n const { cylinder, polygon } = jscad.primitives;\n const { translate, rotateX, rotateZ } = jscad.transforms;\n const { union, subtract } = jscad.booleans;\n const { hullChain } = jscad.hulls;\n const { extrudeLinear } = jscad.extrusions;\n\n function smoothstep(u) {\n u = Math.max(0, Math.min(1, u));\n return u * u * (3 - 2 * u);\n }\n function profileAt(zw) {\n const t = zw / H;\n if (t <= t_body_end) {\n const u = t_body_end > 0 ? (t / t_body_end) : 1;\n return r_bot + (r_body - r_bot) * smoothstep(u);\n } else if (t <= t_peak) {\n const u = (t - t_body_end) / (t_peak - t_body_end);\n return r_body + (r_mid - r_body) * Math.pow(smoothstep(u), sharpP);\n } else {\n const u = (t - t_peak) / (1 - t_peak);\n return r_mid + (r_top - r_mid) * smoothstep(u);\n }\n }\n\n function makeThread(rootR, tipR, pitch, turns, segPerTurn) {\n segPerTurn = segPerTurn || 60;\n const d = 0.4;\n const threadDepth = Math.abs(tipR - rootR);\n const flankHalf = (30 / 2) * Math.PI / 180;\n const tipW = 0.30;\n const rootW = tipW + 2 * threadDepth * Math.tan(flankHalf);\n const outward = tipR > rootR;\n\n const points = outward\n ? [\n [rootR, -rootW / 2],\n [tipR, -tipW / 2],\n [tipR, tipW / 2],\n [rootR, rootW / 2],\n ]\n : [\n [tipR, -tipW / 2],\n [rootR, -rootW / 2],\n [rootR, rootW / 2],\n [tipR, tipW / 2],\n ];\n\n function slab(theta, z) {\n let s = extrudeLinear({ height: d }, polygon({ points }));\n s = rotateX(Math.PI / 2, s);\n s = translate([0, d / 2, 0], s);\n s = rotateZ(theta, s);\n s = translate([0, 0, z], s);\n return s;\n }\n\n const totalSegs = Math.ceil(segPerTurn * turns);\n const slabs = [];\n for (let i = 0; i <= totalSegs; i++) {\n const frac = i / segPerTurn;\n slabs.push(slab(frac * 2 * Math.PI, frac * pitch));\n }\n return hullChain.apply(null, slabs);\n }\n\n // ───────── Outer body shell (Z_local 0..180) ─────────\n const outerSlices = [];\n for (let i = 0; i <= N; i++) {\n const frac = i / N;\n const zl = MID_H * frac;\n const zw = MID_ZW_BOT + zl;\n outerSlices.push(cylinder({\n radius: profileAt(zw), height: 0.1, segments: SEG, center: [0, 0, zl]\n }));\n }\n const outerSolid = hullChain.apply(null, outerSlices);\n\n // ───────── Internal cavities ─────────\n // Bottom 10mm: thread cavity at r=femaleRootR (50.2)\n const threadCavity = cylinder({\n radius: femaleRootR, height: thH + 0.1, segments: SEG,\n center: [0, 0, thH / 2 - 0.05]\n });\n // Main bore (r=47) from top of thread cavity to top socket\n const mainBoreH = MID_H - thH - SOCKET_H;\n const mainBore = cylinder({\n radius: BORE_ID / 2, height: mainBoreH + 0.2, segments: SEG,\n center: [0, 0, thH + mainBoreH / 2]\n });\n // Top socket (r=48) for 3mm at top — receives collar V3's plug\n const topSocket = cylinder({\n radius: SOCKET_ID / 2, height: SOCKET_H + 0.2, segments: SEG,\n center: [0, 0, MID_H - SOCKET_H / 2 + 0.05]\n });\n\n const shell = subtract(outerSolid, threadCavity, mainBore, topSocket);\n\n // ───────── Female threads inside the cavity ─────────\n // Start the thread at Z=0 (at the very bottom rim) for a clean entry.\n const femaleThreads = translate(\n [0, 0, 0],\n makeThread(femaleRootR, femaleTipR, thPitch, thTurns),\n );\n\n return union(shell, femaleThreads);\n `,\n};\n\nexport default example;\n",[],[219,472],"bd16415c-3f75-11f1-91de-42b51c65c3df","waterSleeveMiddleV3.ts","1ddd6552-3f75-11f1-9a7c-42b51c65c3df",163,["D",1776991034101],"import type { Example } from \"./types.ts\";\n\nconst example: Example = {\n id: \"waterSleeveMiddleV3\",\n icon: \"🧱\",\n name: \"Water Sleeve — Middle V3 (gradual)\",\n desc: \"180mm tall sheath for 1.5L water bottle v3 — outer gradually tapers from OD ~118 at bottom to OD ~100 at top (continues v3's gradual curve). Cylindrical ID 94 bore centers the bottle throughout. Sockets at both ends (ID 96) receive base and collar plugs.\",\n size: \"~120 × 120 × 180 mm\",\n time: \"~10 hrs\",\n generatorBody: `\n // ───────── v3 profile parameters (match profile-sketcher) ─────────\n const r_bot = 60, r_body = 50, r_mid = 24, r_top = 42;\n const t_body_end = 0.78, t_peak = 0.87, sharpP = 1.5;\n const H = 300;\n\n // Middle occupies Z_world 41..221 in assembly coords.\n const MID_ZW_BOT = 41;\n const MID_ZW_TOP = 221;\n const MID_H = MID_ZW_TOP - MID_ZW_BOT; // 180\n\n // ───────── Joint & feature dimensions ─────────\n const BORE_ID = 94; // cylindrical bore — centers the bottle throughout\n const SOCKET_ID = 96.0; // widens bore at each end for plug (0.3mm radial clearance)\n const SOCKET_H = 3;\n const SEG = 96;\n const N = 48;\n\n const { cylinder } = jscad.primitives;\n const { subtract } = jscad.booleans;\n const { hullChain } = jscad.hulls;\n\n function smoothstep(u) {\n u = Math.max(0, Math.min(1, u));\n return u * u * (3 - 2 * u);\n }\n function profileAt(zw) {\n const t = zw / H;\n if (t <= t_body_end) {\n const u = t_body_end > 0 ? (t / t_body_end) : 1;\n return r_bot + (r_body - r_bot) * smoothstep(u);\n } else if (t <= t_peak) {\n const u = (t - t_body_end) / (t_peak - t_body_end);\n return r_body + (r_mid - r_body) * Math.pow(smoothstep(u), sharpP);\n } else {\n const u = (t - t_peak) / (1 - t_peak);\n return r_mid + (r_top - r_mid) * smoothstep(u);\n }\n }\n\n // ───────── Outer shell (solid of revolution via hullChain) ─────────\n // Z_local runs 0..180 corresponding to Z_world 41..221.\n const outerSlices = [];\n for (let i = 0; i <= N; i++) {\n const frac = i / N;\n const zl = MID_H * frac;\n const zw = MID_ZW_BOT + zl;\n outerSlices.push(cylinder({\n radius: profileAt(zw), height: 0.1, segments: SEG, center: [0, 0, zl]\n }));\n }\n const outerSolid = hullChain.apply(null, outerSlices);\n\n // ───────── Cylindrical bore (constant r=47) ─────────\n // Walls get thicker toward the bottom (up to ~12mm at Z_local=0) where the\n // outer flares out — this doubles as structural mass for stability.\n const mainBore = cylinder({\n radius: BORE_ID / 2, height: MID_H + 0.2, segments: SEG,\n center: [0, 0, MID_H / 2]\n });\n\n // ───────── Sockets — localized widening of the bore to r=48 at each end ─────────\n const botSocket = cylinder({\n radius: SOCKET_ID / 2, height: SOCKET_H + 0.2, segments: SEG,\n center: [0, 0, SOCKET_H / 2 - 0.05]\n });\n const topSocket = cylinder({\n radius: SOCKET_ID / 2, height: SOCKET_H + 0.2, segments: SEG,\n center: [0, 0, MID_H - SOCKET_H / 2 + 0.05]\n });\n\n return subtract(outerSolid, mainBore, botSocket, topSocket);\n `,\n};\n\nexport default example;\n",[],[219,480],"8a8bba4c-3f60-11f1-919c-42b51c65c3df","waterSleeveMiddleV1.ts","8a8bbb1e-3f60-11f1-919c-42b51c65c3df",155,["D",1776981929893],"import type { Example } from \"./types.ts\";\n\nconst example: Example = {\n id: \"waterSleeveMiddleV1\",\n icon: \"🧱\",\n name: \"Water Sleeve — Middle V1\",\n desc: \"180mm tall sheath for 1.5L water bottle. OD 100, ID 94 (holds ~90mm bottle). Sockets at top and bottom receive collar and base plugs.\",\n size: \"~100 × 100 × 180 mm\",\n time: \"~6 hrs\",\n generatorBody: `\n const OD = 100;\n const BORE_ID = 94;\n const SOCKET_ID = 96.0;\n const SOCKET_H = 3;\n const SEG = 96;\n\n const { cylinder } = jscad.primitives;\n const { subtract } = jscad.booleans;\n\n // ───────── Middle Sheath ─────────\n const H = 180;\n\n const outer = cylinder({\n radius: OD / 2, height: H, segments: SEG,\n center: [0, 0, H / 2],\n });\n const mainBore = cylinder({\n radius: BORE_ID / 2, height: H + 0.2, segments: SEG,\n center: [0, 0, H / 2],\n });\n const topSocket = cylinder({\n radius: SOCKET_ID / 2, height: SOCKET_H + 0.1, segments: SEG,\n center: [0, 0, H - SOCKET_H / 2 + 0.05],\n });\n const botSocket = cylinder({\n radius: SOCKET_ID / 2, height: SOCKET_H + 0.1, segments: SEG,\n center: [0, 0, SOCKET_H / 2 - 0.05],\n });\n\n return subtract(outer, mainBore, topSocket, botSocket);\n `,\n};\n\nexport default example;\n",[],[219,488],"8d438208-3f7c-11f1-bb9a-42b51c65c3df","waterSleeveCollarV3.ts","30355750-3f75-11f1-853c-42b51c65c3df",168,["D",1776993960349],"import type { Example } from \"./types.ts\";\n\nconst example: Example = {\n id: \"waterSleeveCollarV3\",\n icon: \"⭕\",\n name: \"Water Sleeve — Collar V3 (gradual)\",\n desc: \"Top collar for 1.5L water sleeve v3 — amphora/hyperboloid. Bore is a smooth funnel that pinches to 29mm at Z_world=276 (catches the bottle's PCO support ring), then flares back out to the rim. No flat disc, so no internal supports needed when printing upright.\",\n size: \"~100 × 100 × 82 mm\",\n time: \"~4 hrs\",\n generatorBody: `\n // ───────── v3 profile parameters (match profile-sketcher) ─────────\n const r_bot = 60, r_body = 50, r_mid = 24, r_top = 42;\n const t_body_end = 0.78, t_peak = 0.87, sharpP = 1.5;\n const H = 300;\n\n // Collar occupies Z_world 221..300 in assembly coords.\n const COL_ZW_BOT = 221;\n const COL_ZW_TOP = 300;\n const COL_BODY_H = COL_ZW_TOP - COL_ZW_BOT; // 79\n const PLUG_H = 3;\n\n // ───────── Joint & feature dimensions ─────────\n const PLUG_OD = 95.4;\n const BORE_ID = 94; // continues bottle bore through the plug\n const WALL = 3;\n const NECK_HOLE_D = 29; // bore pinches to this diameter at ring-catch\n const Z_WAIST = 261; // bore starts funneling inward here\n const Z_CATCH = 276; // narrowest point (support ring rests here)\n const R_RIM_BORE = 30; // bore at the rim — thick lip, leaves room for net cup\n const SEG = 96;\n const N = 80; // extra slices for smooth funnel curve\n\n const { cylinder } = jscad.primitives;\n const { union, subtract } = jscad.booleans;\n const { hullChain } = jscad.hulls;\n\n function smoothstep(u) {\n u = Math.max(0, Math.min(1, u));\n return u * u * (3 - 2 * u);\n }\n function profileAt(zw) {\n const t = zw / H;\n if (t <= t_body_end) {\n const u = t_body_end > 0 ? (t / t_body_end) : 1;\n return r_bot + (r_body - r_bot) * smoothstep(u);\n } else if (t <= t_peak) {\n const u = (t - t_body_end) / (t_peak - t_body_end);\n return r_body + (r_mid - r_body) * Math.pow(smoothstep(u), sharpP);\n } else {\n const u = (t - t_peak) / (1 - t_peak);\n return r_mid + (r_top - r_mid) * smoothstep(u);\n }\n }\n\n // Bore: three regions — hyperboloid wall below the waist, then funnel\n // inward to the catch, then cone back out toward the rim.\n // All transitions use smoothstep so slopes start/end tangent — printable at\n // ~23° and ~33° from vertical respectively (well under the 45° no-support limit).\n function innerAt(zw) {\n if (zw <= Z_WAIST) {\n // below waist → normal 3mm wall following outer profile\n return Math.max(profileAt(zw) - WALL, 0.5);\n } else if (zw <= Z_CATCH) {\n // waist → catch: inward funnel\n const rWaistIn = profileAt(Z_WAIST) - WALL; // ≈ 21\n const t = (zw - Z_WAIST) / (Z_CATCH - Z_WAIST);\n return rWaistIn + (NECK_HOLE_D / 2 - rWaistIn) * smoothstep(t);\n } else {\n // catch → rim: outward cone, opens into net-cup area\n const t = (zw - Z_CATCH) / (H - Z_CATCH);\n return (NECK_HOLE_D / 2) + (R_RIM_BORE - NECK_HOLE_D / 2) * smoothstep(t);\n }\n }\n\n // ───────── Plug at Z_local 0..3 ─────────\n const plugOuter = cylinder({\n radius: PLUG_OD / 2, height: PLUG_H, segments: SEG,\n center: [0, 0, PLUG_H / 2]\n });\n const plugBore = cylinder({\n radius: BORE_ID / 2, height: PLUG_H + 0.4, segments: SEG,\n center: [0, 0, PLUG_H / 2]\n });\n const plug = subtract(plugOuter, plugBore);\n\n // ───────── Body shell — hullChain of outer and inner slice stacks ─────────\n const zlOfZw = (zw) => PLUG_H + (zw - COL_ZW_BOT);\n\n const outerSlices = [];\n const innerSlices = [];\n for (let i = 0; i <= N; i++) {\n const frac = i / N;\n const zw = COL_ZW_BOT + COL_BODY_H * frac;\n const zl = zlOfZw(zw);\n outerSlices.push(cylinder({\n radius: profileAt(zw), height: 0.1, segments: SEG, center: [0, 0, zl]\n }));\n innerSlices.push(cylinder({\n radius: innerAt(zw), height: 0.1, segments: SEG, center: [0, 0, zl]\n }));\n }\n const outerSolid = hullChain.apply(null, outerSlices);\n const innerSolid = hullChain.apply(null, innerSlices);\n\n const shell = subtract(outerSolid, innerSolid);\n\n return union(shell, plug);\n `,\n};\n\nexport default example;\n",[],[219,496],"8266258c-3f60-11f1-a72f-42b51c65c3df","waterSleeveCollarV1.ts","8266265e-3f60-11f1-a72f-42b51c65c3df",154,["D",1776981916195],"import type { Example } from \"./types.ts\";\n\nconst example: Example = {\n id: \"waterSleeveCollarV1\",\n icon: \"⭕\",\n name: \"Water Sleeve — Collar V1\",\n desc: \"Top collar for 1.5L water sleeve. 29mm neck hole catches PCO support ring. 3mm plug drops into middle's top socket.\",\n size: \"~100 × 100 × 8 mm\",\n time: \"~25 min\",\n generatorBody: `\n // ───────── Shared dimensions (1.5L water bottle sleeve) ─────────\n const OD = 100; // outer diameter of sheath stack\n const BORE_ID = 94; // inner bore (bottle body ~90mm + 2mm clearance each side)\n const PLUG_OD = 95.4; // male plug diameter (fits into socket)\n const SOCKET_ID = 96.0; // female socket diameter (0.3mm radial clearance)\n const PLUG_H = 3; // stack interface height\n const SOCKET_H = 3; // matching socket depth\n const NECK_HOLE_D = 29; // lets PET threads pass, blocks support ring\n const RING_CLEAR_D = 36; // underside cavity wide enough for support ring to enter\n const SEG = 96;\n\n const { cylinder } = jscad.primitives;\n const { subtract, union } = jscad.booleans;\n\n // ───────── Collar ─────────\n const discT = 5;\n const totalH = discT + PLUG_H;\n\n const disc = cylinder({\n radius: OD / 2, height: discT, segments: SEG,\n center: [0, 0, PLUG_H + discT / 2],\n });\n const plug = cylinder({\n radius: PLUG_OD / 2, height: PLUG_H, segments: SEG,\n center: [0, 0, PLUG_H / 2],\n });\n const body = union(disc, plug);\n\n const neckHole = cylinder({\n radius: NECK_HOLE_D / 2, height: totalH + 1, segments: SEG,\n center: [0, 0, totalH / 2],\n });\n const ringCavity = cylinder({\n radius: RING_CLEAR_D / 2, height: PLUG_H + 0.2, segments: SEG,\n center: [0, 0, PLUG_H / 2 - 0.05],\n });\n\n return subtract(body, neckHole, ringCavity);\n `,\n};\n\nexport default example;\n",[],[219,504],"57e50bf2-3f7e-11f1-93a6-42b51c65c3df","waterSleeveBaseV4.ts","47097fe0-3f77-11f1-bbde-42b51c65c3df",170,["D",1776994729802],"import type { Example } from \"./types.ts\";\n\n/**\n * Water Sleeve Base V4 — threaded variant.\n * Same hyperboloid body as v3 (OD 120 flared base), but the top has a male\n * thread stub (major OD 100, root OD 96, pitch 5, 2 turns) in place of the\n * plug. Mates with waterSleeveMiddleV4's female cavity.\n *\n * Uses waterSleeveCollarV3 unchanged for the top piece.\n */\n\nconst example: Example = {\n id: \"waterSleeveBaseV4\",\n icon: \"🧵\",\n name: \"Water Sleeve — Base V4 (threaded)\",\n desc: \"Same flared-base hyperboloid as v3 but with a male thread stub (OD 100 tip / OD 96 root, pitch 5mm, 2 turns) on top. Mates with middle V4's female cavity. 5×30mm skinny pill viewport on ONE side. Pairs with collar V3.\",\n size: \"~120 × 120 × 51 mm\",\n time: \"~2.5 hrs\",\n generatorBody: `\n // ───────── v3 profile parameters ─────────\n const r_bot = 60, r_body = 50, r_mid = 24, r_top = 42;\n const t_body_end = 0.78, t_peak = 0.87, sharpP = 1.5;\n const H = 300;\n const BASE_ZW_TOP = 41;\n\n // ───────── Bore / wall / viewport ─────────\n const BORE_ID = 94;\n const FLOOR_T = 3;\n const SEG = 96;\n const N = 48;\n\n // ───────── Thread spec (matches middle V4) ─────────\n const thMajorR = 50; // male tip (OD 100)\n const thMinorR = 48; // male root (OD 96)\n const thPitch = 5;\n const thTurns = 2;\n\n const { cylinder, polygon } = jscad.primitives;\n const { translate, rotateX, rotateY, rotateZ } = jscad.transforms;\n const { union, subtract } = jscad.booleans;\n const { hullChain, hull } = jscad.hulls;\n const { extrudeLinear } = jscad.extrusions;\n\n function smoothstep(u) {\n u = Math.max(0, Math.min(1, u));\n return u * u * (3 - 2 * u);\n }\n function profileAt(zw) {\n const t = zw / H;\n if (t <= t_body_end) {\n const u = t_body_end > 0 ? (t / t_body_end) : 1;\n return r_bot + (r_body - r_bot) * smoothstep(u);\n } else if (t <= t_peak) {\n const u = (t - t_body_end) / (t_peak - t_body_end);\n return r_body + (r_mid - r_body) * Math.pow(smoothstep(u), sharpP);\n } else {\n const u = (t - t_peak) / (1 - t_peak);\n return r_mid + (r_top - r_mid) * smoothstep(u);\n }\n }\n\n // ───────── Thread builder — identical to pco1881Pair technique ─────────\n function makeThread(rootR, tipR, pitch, turns, segPerTurn) {\n segPerTurn = segPerTurn || 60;\n const d = 0.4;\n const threadDepth = Math.abs(tipR - rootR);\n const flankHalf = (30 / 2) * Math.PI / 180;\n const tipW = 0.30;\n const rootW = tipW + 2 * threadDepth * Math.tan(flankHalf);\n const outward = tipR > rootR;\n\n const points = outward\n ? [\n [rootR, -rootW / 2],\n [tipR, -tipW / 2],\n [tipR, tipW / 2],\n [rootR, rootW / 2],\n ]\n : [\n [tipR, -tipW / 2],\n [rootR, -rootW / 2],\n [rootR, rootW / 2],\n [tipR, tipW / 2],\n ];\n\n function slab(theta, z) {\n let s = extrudeLinear({ height: d }, polygon({ points }));\n s = rotateX(Math.PI / 2, s);\n s = translate([0, d / 2, 0], s);\n s = rotateZ(theta, s);\n s = translate([0, 0, z], s);\n return s;\n }\n\n const totalSegs = Math.ceil(segPerTurn * turns);\n const slabs = [];\n for (let i = 0; i <= totalSegs; i++) {\n const frac = i / segPerTurn;\n slabs.push(slab(frac * 2 * Math.PI, frac * pitch));\n }\n return hullChain.apply(null, slabs);\n }\n\n // ───────── Outer body shell (Z=0..41) ─────────\n const outerSlices = [];\n for (let i = 0; i <= N; i++) {\n const frac = i / N;\n const zl = BASE_ZW_TOP * frac;\n outerSlices.push(cylinder({\n radius: profileAt(zl), height: 0.1, segments: SEG, center: [0, 0, zl]\n }));\n }\n const outerSolid = hullChain.apply(null, outerSlices);\n\n const boreH = BASE_ZW_TOP - FLOOR_T;\n const bore = cylinder({\n radius: BORE_ID / 2, height: boreH + 0.2, segments: SEG,\n center: [0, 0, FLOOR_T + boreH / 2]\n });\n const hollowBody = subtract(outerSolid, bore);\n\n // ───────── Pill viewport (5 × 30mm, +X side only) ─────────\n const pillW = 5, pillH = 30, pillR = pillW / 2;\n const pillCz = FLOOR_T + (BASE_ZW_TOP - FLOOR_T) / 2;\n const pillDisc = (z) => translate(\n [55, 0, z],\n rotateY(Math.PI / 2, cylinder({\n radius: pillR, height: 30, segments: 48\n }))\n );\n const pillCut = hull(\n pillDisc(pillCz + (pillH - pillW) / 2),\n pillDisc(pillCz - (pillH - pillW) / 2),\n );\n const bodyWithViewport = subtract(hollowBody, pillCut);\n\n // ───────── Male thread stub (Z=41..51) ─────────\n const stubH = thTurns * thPitch; // 10mm\n const stubCore = cylinder({\n radius: thMinorR + 0.05, height: stubH, segments: SEG,\n center: [0, 0, BASE_ZW_TOP + stubH / 2]\n });\n const stubBore = cylinder({\n radius: BORE_ID / 2, height: stubH + 0.4, segments: SEG,\n center: [0, 0, BASE_ZW_TOP + stubH / 2]\n });\n const hollowStub = subtract(stubCore, stubBore);\n const maleThreads = translate(\n [0, 0, BASE_ZW_TOP],\n makeThread(thMinorR, thMajorR, thPitch, thTurns),\n );\n\n return union(bodyWithViewport, hollowStub, maleThreads);\n `,\n};\n\nexport default example;\n",[],[219,512],"43ecbc1c-3f7e-11f1-850e-42b51c65c3df","waterSleeveBaseV3.ts","0d074b58-3f75-11f1-847d-42b51c65c3df",169,["D",1776994696300],"import type { Example } from \"./types.ts\";\n\nconst example: Example = {\n id: \"waterSleeveBaseV3\",\n icon: \"🟫\",\n name: \"Water Sleeve — Base V3 (gradual)\",\n desc: \"Bottom base for 1.5L water sleeve v3 — flared-base hyperboloid (OD 120 at ground tapering to OD ~118 at top). 3mm floor, 5×30mm skinny pill viewport on ONE side, 3mm plug into middle's bottom socket. Cylindrical ID 94 bore keeps the bottle centered.\",\n size: \"~120 × 120 × 44 mm\",\n time: \"~2 hrs\",\n generatorBody: `\n // ───────── v3 profile parameters (match profile-sketcher's v3gradual preset) ─────────\n const r_bot = 60, r_body = 50, r_mid = 24, r_top = 42;\n const t_body_end = 0.78, t_peak = 0.87, sharpP = 1.5;\n const H = 300;\n const BASE_ZW_TOP = 41;\n\n // ───────── Joint & feature dimensions (match v1 interface spec) ─────────\n const PLUG_OD = 95.4;\n const PLUG_H = 3;\n const BORE_ID = 94;\n const FLOOR_T = 3;\n const SEG = 96;\n const N = 48;\n\n const { cylinder } = jscad.primitives;\n const { translate, rotateY } = jscad.transforms;\n const { union, subtract } = jscad.booleans;\n const { hullChain, hull } = jscad.hulls;\n\n function smoothstep(u) {\n u = Math.max(0, Math.min(1, u));\n return u * u * (3 - 2 * u);\n }\n function profileAt(zw) {\n const t = zw / H;\n if (t <= t_body_end) {\n const u = t_body_end > 0 ? (t / t_body_end) : 1;\n return r_bot + (r_body - r_bot) * smoothstep(u);\n } else if (t <= t_peak) {\n const u = (t - t_body_end) / (t_peak - t_body_end);\n return r_body + (r_mid - r_body) * Math.pow(smoothstep(u), sharpP);\n } else {\n const u = (t - t_peak) / (1 - t_peak);\n return r_mid + (r_top - r_mid) * smoothstep(u);\n }\n }\n\n // ───────── Outer shell (solid of revolution via hullChain) ─────────\n const outerSlices = [];\n for (let i = 0; i <= N; i++) {\n const frac = i / N;\n const zl = BASE_ZW_TOP * frac;\n outerSlices.push(cylinder({\n radius: profileAt(zl), height: 0.1, segments: SEG, center: [0, 0, zl]\n }));\n }\n const outerSolid = hullChain.apply(null, outerSlices);\n\n // ───────── Cylindrical bore ─────────\n const boreH = BASE_ZW_TOP - FLOOR_T;\n const bore = cylinder({\n radius: BORE_ID / 2, height: boreH + 0.2, segments: SEG,\n center: [0, 0, FLOOR_T + boreH / 2]\n });\n const hollowBody = subtract(outerSolid, bore);\n\n // ───────── Plug at Z_local 41..44 ─────────\n const plugOuter = cylinder({\n radius: PLUG_OD / 2, height: PLUG_H, segments: SEG,\n center: [0, 0, BASE_ZW_TOP + PLUG_H / 2]\n });\n const plugBore = cylinder({\n radius: BORE_ID / 2, height: PLUG_H + 0.4, segments: SEG,\n center: [0, 0, BASE_ZW_TOP + PLUG_H / 2]\n });\n const plug = subtract(plugOuter, plugBore);\n\n // ───────── Pill viewport — 5mm wide × 30mm tall, one side only ─────────\n // Cutter length 30mm crosses the full wall cleanly, so the viewport width\n // is consistent on inside and outside (unlike v1's geometry-induced pinch).\n const pillW = 5, pillH = 30, pillR = pillW / 2;\n const pillCz = FLOOR_T + (BASE_ZW_TOP - FLOOR_T) / 2;\n const pillDisc = (z) => translate(\n [55, 0, z],\n rotateY(Math.PI / 2, cylinder({\n radius: pillR, height: 30, segments: 48\n }))\n );\n const pillCut = hull(\n pillDisc(pillCz + (pillH - pillW) / 2),\n pillDisc(pillCz - (pillH - pillW) / 2),\n );\n\n const bodyWithViewport = subtract(hollowBody, pillCut);\n return union(bodyWithViewport, plug);\n `,\n};\n\nexport default example;\n",[],[219,520],"943cba22-3f7f-11f1-9da3-42b51c65c3df","waterSleeveBaseV1.ts","94d59a36-3f60-11f1-9d04-42b51c65c3df",171,["D",1776995260544],"import type { Example } from \"./types.ts\";\n\nconst example: Example = {\n id: \"waterSleeveBaseV1\",\n icon: \"🟫\",\n name: \"Water Sleeve — Base V1\",\n desc: \"Bottom base for 1.5L water sleeve. 3mm floor, 5×30mm skinny pill viewport to see water level, 3mm plug into middle's bottom socket.\",\n size: \"~100 × 100 × 44 mm\",\n time: \"~1.5 hrs\",\n generatorBody: `\n const OD = 100;\n const BORE_ID = 94;\n const WALL = (OD - BORE_ID) / 2;\n const PLUG_OD = 95.4;\n const PLUG_H = 3;\n const SEG = 96;\n\n const { cylinder } = jscad.primitives;\n const { subtract, union } = jscad.booleans;\n const { translate, rotateY } = jscad.transforms;\n const { hull } = jscad.hulls;\n\n // ───────── Base ─────────\n const floorT = 3; // solid floor thickness\n const wallH = 38; // height of side wall\n const totalH = floorT + wallH + PLUG_H;\n\n const outer = cylinder({\n radius: OD / 2, height: totalH, segments: SEG,\n center: [0, 0, totalH / 2],\n });\n const boreBelowPlug = cylinder({\n radius: BORE_ID / 2, height: wallH + 0.1, segments: SEG,\n center: [0, 0, floorT + wallH / 2 + 0.05],\n });\n const plugStep = cylinder({\n radius: OD / 2 + 0.1, height: PLUG_H + 0.1, segments: SEG,\n center: [0, 0, floorT + wallH + PLUG_H / 2 + 0.05],\n });\n const plugKeep = cylinder({\n radius: PLUG_OD / 2, height: PLUG_H + 0.2, segments: SEG,\n center: [0, 0, floorT + wallH + PLUG_H / 2],\n });\n const plugBore = cylinder({\n radius: BORE_ID / 2, height: PLUG_H + 0.3, segments: SEG,\n center: [0, 0, floorT + wallH + PLUG_H / 2],\n });\n\n // Pill viewport — 5mm wide × 30mm tall, one side only.\n // Cutter length 30mm crosses the full wall so the slit is consistent\n // on inside and outside (v1's original 7mm cutter pinched to ~half\n // width on the bore side — geometry artifact, now fixed).\n const pillW = 5, pillH = 30, pillR = pillW / 2;\n const pillCz = floorT + wallH / 2;\n const pillDisc = (z) => translate(\n [55, 0, z],\n rotateY(Math.PI / 2, cylinder({\n radius: pillR, height: 30, segments: 48,\n }))\n );\n const pillCut = hull(\n pillDisc(pillCz + (pillH - pillW) / 2),\n pillDisc(pillCz - (pillH - pillW) / 2),\n );\n\n const withBore = subtract(outer, boreBelowPlug);\n const stepped = subtract(withBore, plugStep);\n const withPlug = union(stepped, subtract(plugKeep, plugBore));\n return subtract(withPlug, pillCut);\n `,\n};\n\nexport default example;\n",[],[219,528],"f8e3fe26-418d-11f1-9ac2-42b51c65c3df","waterSleeve15V2Top.ts","f4f8fefc-40d3-11f1-8f7c-42b51c65c3df",240,["D",1777221344685],2,"import type { Example } from \"./types.ts\";\n\n/**\n * Water Sleeve — V2 Top (1.5L PET, conservative spec)\n *\n * Upper half of two-part 1.5L hyperboloid. Mirrors V2 mini Top architecture.\n * Tightened pinch (ID 32) matches mini exactly so the same screw-on cap\n * that hangs the bottle on the mini also hangs it here. PCO-1810 neck is\n * universal across 0.5L and 1.5L PET, so cap size is universal too.\n *\n * Conservative bottle spec to handle brand variation:\n * - Body OD up to 94mm (real spec ~93.3mm)\n * - Bottle height up to 312mm (real spec ~309.5mm)\n *\n * Sleeve dimensions:\n * - Press-fit socket (z=172..175) receives Bottom plug\n * - Body plateau (bore r=49, ID 98) extends to z=247\n * - Shoulder narrowing (z=247..317, bore 49→16 over 70mm = 25°)\n * - PINCH at z=317 (bore ID 32, MATCHES MINI for cap catch)\n * - Lip flare (z=317..345, bore 16→30, outer 22→35) → rim OD 70 / ID 60\n *\n * ⚠ PRINT UPSIDE-DOWN (rim on plate). Max overhang ~25° at shoulder — gentle.\n */\n\nconst example: Example = {\n id: \"waterSleeve15V2Top\",\n icon: \"🏺\",\n name: \"Water Sleeve — V2 Top (1.5L)\",\n desc: \"Upper half of 1.5L hyperboloid. ~173mm tall, socket ID 99.8 (matches Bottom plug 99.7 with radial 0.05mm). PINCH ID 32 (matches golden mini for cap catch). Rim OD 70 / ID 60. PRINT UPSIDE-DOWN.\",\n size: \"~104 × 104 × 173 mm\",\n time: \"~6.5 hrs\",\n generatorBody: `\n // ───────── Profile params (MATCH BOTTOM EXACTLY) ─────────\n const H = 345;\n const SPLIT_Z = 172;\n const r_bot_out = 57, r_body_out = 52, r_narrow_out = 22, r_top_out = 35;\n const r_body_in = 49, r_narrow_in = 16, r_top_in = 30; // pinch ID 32 (MATCHES MINI)\n const t_peak = 0.918;\n const shoulder_h = 70;\n\n // ───────── Joint ─────────\n const SOCKET_ID = 99.8; // PLUG_OD 99.7 + 2 × 0.05mm radial\n const SOCKET_H = 3;\n const SEG = 128;\n const N = 80;\n\n const { cylinder } = jscad.primitives;\n const { union, subtract } = jscad.booleans;\n const { hullChain } = jscad.hulls;\n\n function smoothstep(u) {\n u = Math.max(0, Math.min(1, u));\n return u * u * (3 - 2 * u);\n }\n function outerAt(z) {\n const t = z/H;\n const t_body_end = t_peak - (shoulder_h/H);\n if (t <= t_body_end) {\n const u = t_body_end > 0 ? t/t_body_end : 1;\n return r_bot_out + (r_body_out - r_bot_out) * smoothstep(u);\n } else if (t <= t_peak) {\n const u = (t - t_body_end)/(t_peak - t_body_end);\n return r_body_out + (r_narrow_out - r_body_out) * smoothstep(u);\n } else {\n const u = (t - t_peak)/(1 - t_peak);\n return r_narrow_out + (r_top_out - r_narrow_out) * smoothstep(u);\n }\n }\n function innerAt(z) {\n const t = z/H;\n const t_body_end = t_peak - (shoulder_h/H);\n if (t <= t_body_end) return r_body_in;\n if (t <= t_peak) {\n const u = (t - t_body_end)/(t_peak - t_body_end);\n return r_body_in + (r_narrow_in - r_body_in) * smoothstep(u);\n }\n const u = (t - t_peak)/(1 - t_peak);\n return r_narrow_in + (r_top_in - r_narrow_in) * smoothstep(u);\n }\n\n // ───────── Outer shell z=SPLIT_Z..H ─────────\n const outerSlices = [];\n for (let i = 0; i <= N; i++) {\n const zl = SPLIT_Z + (H - SPLIT_Z) * i / N;\n outerSlices.push(cylinder({\n radius: outerAt(zl), height: 0.1, segments: SEG, center: [0, 0, zl]\n }));\n }\n const outerSolid = hullChain.apply(null, outerSlices);\n\n // ───────── Inner bore (profile-following) z=(SPLIT_Z+SOCKET_H)..H ─────────\n const boreStart = SPLIT_Z + SOCKET_H;\n const innerSlices = [];\n for (let i = 0; i <= N; i++) {\n const zl = boreStart + (H - boreStart) * i / N;\n innerSlices.push(cylinder({\n radius: innerAt(zl), height: 0.1, segments: SEG, center: [0, 0, zl]\n }));\n }\n const innerSolid = hullChain.apply(null, innerSlices);\n\n // ───────── Socket (widened bore at bottom for plug) ─────────\n const socket = cylinder({\n radius: SOCKET_ID / 2,\n height: SOCKET_H + 0.1,\n segments: SEG,\n center: [0, 0, SPLIT_Z + SOCKET_H / 2 - 0.05],\n });\n\n return subtract(outerSolid, innerSolid, socket);\n `,\n};\n\nexport default example;\n",[],[219,536],"e87443de-418d-11f1-92b8-42b51c65c3df","waterSleeve15V2Bottom.ts","e5d23790-40d3-11f1-bff0-42b51c65c3df",239,["D",1777221317110],"import type { Example } from \"./types.ts\";\n\n/**\n * Water Sleeve — V2 Bottom (1.5L PET, scaled-up golden mini, conservative spec)\n *\n * Two-part hyperboloid for 1.5L PET.\n *\n * Sized for a CONSERVATIVE 1.5L spec to accommodate brand variation\n * (Aleo / Crystal / Bonafont / Minalba etc):\n * - Bottle body: assumes up to OD 94 (real spec is ~Ø93.3 from datasheet)\n * - Bottle height: assumes up to 312mm (real spec ~309.5)\n *\n * Sleeve dimensions:\n * - Bore ID 98 (r=49) — 2mm radial clearance over a 94mm body\n * - Body OD 104 / foot OD 114\n * - Sleeve total H 345 — 30mm clearance above bottle top\n * - Pinch ID 32 (matches mini for cap-hang setup with same screw cap)\n *\n * Press-fit (tight, calibrated from V2 mini):\n * - PLUG_OD 99.7 (radial 0.05mm vs SOCKET_ID 99.8)\n * - Plug wall 1.4mm, continuous bore (no step / no overhang)\n *\n * Two parts on A1 Mini: each ~172mm tall, fits 180mm Z with ~8mm headroom.\n * Foot OD 114 fits A1 Mini's 180×180 plate easily.\n */\n\nconst example: Example = {\n id: \"waterSleeve15V2Bottom\",\n icon: \"🏺\",\n name: \"Water Sleeve — V2 Bottom (1.5L)\",\n desc: \"Lower half of 1.5L hyperboloid. Conservative spec: bore ID 98, body OD 104, foot OD 114, plug OD 99.7. ~172mm tall. Includes 5×100mm viewport.\",\n size: \"~114 × 114 × 172 mm\",\n time: \"~7 hrs\",\n generatorBody: `\n // ───────── Profile params (Top piece MUST match exactly) ─────────\n const H = 345;\n const SPLIT_Z = 172;\n const r_bot_out = 57, r_body_out = 52, r_narrow_out = 22, r_top_out = 35;\n const r_body_in = 49, r_narrow_in = 16, r_top_in = 30; // pinch ID 32 matches mini\n const t_peak = 0.918; // narrowest at z=317 (5mm above 312 bottle top)\n const shoulder_h = 70; // 70mm transition for bigger bore-to-pinch delta\n\n // ───────── Joint & Viewport ─────────\n const PLUG_OD = 99.7; // radial 0.05mm vs SOCKET_ID 99.8 (tight fit)\n const PLUG_H = 3;\n const FLOOR_T = 3;\n const SEG = 128;\n const N = 64;\n\n const { cylinder } = jscad.primitives;\n const { translate, rotateY } = jscad.transforms;\n const { union, subtract } = jscad.booleans;\n const { hullChain, hull } = jscad.hulls;\n\n function smoothstep(u) {\n u = Math.max(0, Math.min(1, u));\n return u * u * (3 - 2 * u);\n }\n function outerAt(z) {\n const t = z/H;\n const t_body_end = t_peak - (shoulder_h/H);\n if (t <= t_body_end) {\n const u = t_body_end > 0 ? t/t_body_end : 1;\n return r_bot_out + (r_body_out - r_bot_out) * smoothstep(u);\n } else if (t <= t_peak) {\n const u = (t - t_body_end)/(t_peak - t_body_end);\n return r_body_out + (r_narrow_out - r_body_out) * smoothstep(u);\n } else {\n const u = (t - t_peak)/(1 - t_peak);\n return r_narrow_out + (r_top_out - r_narrow_out) * smoothstep(u);\n }\n }\n\n // ───────── Outer shell z=0..SPLIT_Z via hullChain ─────────\n const slices = [];\n for (let i = 0; i <= N; i++) {\n const zl = SPLIT_Z * i / N;\n slices.push(cylinder({\n radius: outerAt(zl), height: 0.1, segments: SEG, center: [0, 0, zl]\n }));\n }\n const outerSolid = hullChain.apply(null, slices);\n\n // ───────── Bore (continuous r_body_in=49, ID 98, no internal step) ─────────\n const boreH = SPLIT_Z - FLOOR_T;\n const bore = cylinder({\n radius: r_body_in, height: boreH + 0.2, segments: SEG,\n center: [0, 0, FLOOR_T + boreH/2],\n });\n const hollowBody = subtract(outerSolid, bore);\n\n // ───────── Viewport (5×100mm curve-capped pill, +X side) ─────────\n const pillW = 5, pillH = 100, pillR = pillW / 2;\n const pillCz = 85; // mid-bottom-half\n const cutterCenterX = r_body_in + 1.5; // mid-wall\n const pillDisc = (z) => translate(\n [cutterCenterX, 0, z],\n rotateY(Math.PI / 2, cylinder({\n radius: pillR, height: 25, segments: 48,\n }))\n );\n const pillCut = hull(\n pillDisc(pillCz + (pillH - pillW) / 2),\n pillDisc(pillCz - (pillH - pillW) / 2),\n );\n const bodyWithViewport = subtract(hollowBody, pillCut);\n\n // ───────── Plug on top z=SPLIT_Z..SPLIT_Z+PLUG_H ─────────\n const plug = cylinder({\n radius: PLUG_OD/2, height: PLUG_H, segments: SEG,\n center: [0, 0, SPLIT_Z + PLUG_H/2],\n });\n const plugBore = cylinder({\n radius: r_body_in, height: PLUG_H + 0.4, segments: SEG,\n center: [0, 0, SPLIT_Z + PLUG_H/2],\n });\n const plugRing = subtract(plug, plugBore);\n\n return union(bodyWithViewport, plugRing);\n `,\n};\n\nexport default example;\n",[],[219,545],"289f13fc-0ac1-11f1-8952-42dde27851f2","vaseTestHoop.ts","289f1500-0ac1-11f1-8952-42dde27851f2",41,["D",1771196015161],"import type { Example } from \"./types.ts\";\n\nconst example: Example = {\n id: \"vaseTestHoop\",\n icon: \"💍\",\n name: \"Vase Mode Test Hoop\",\n desc: \"Tiny test hoop — 20mm diameter, 10mm tall, thin wall. Enable Spiral Vase in slicer to see how vase mode works.\",\n size: \"Ø20 × 10mm\",\n time: \"~2 min\",\n generatorBody: `\n const { cylinder } = jscad.primitives;\n const { subtract } = jscad.booleans;\n\n const outerR = 10;\n const wallT = 0.8; // thin wall — slicer will use single nozzle width\n const h = 10;\n const seg = 64;\n\n return subtract(\n cylinder({ radius: outerR, height: h, center: [0, 0, h / 2], segments: seg }),\n cylinder({ radius: outerR - wallT, height: h + 2, center: [0, 0, h / 2], segments: seg })\n );\n `,\n};\n\nexport default example;\n",[],[219,553],"f2857350-04fe-11f1-b891-42dde27851f2","vase.ts","019c3dc4-fdf2-76fa-8252-8f29c91f7678",["D",1770562846100],"import type { Example } from \"./types.ts\";\n\nconst vase: Example = {\n id: \"vase\",\n icon: \"🏺\",\n name: \"Spiral Vase\",\n desc: \"Low-poly spiral vase — vase mode ready\",\n size: \"80 × 80 × 120 mm\",\n time: \"~1.5 hrs\",\n generatorBody: `\n const pts = [];\n for (let i = 0; i <= 50; i++) {\n const t = i / 50;\n pts.push(new THREE.Vector2(\n 25 + Math.sin(t * Math.PI * 5) * 6 + t * 15,\n t * 120\n ));\n }\n pts.push(new THREE.Vector2(42, 120));\n pts.push(new THREE.Vector2(44, 118));\n return new THREE.LatheGeometry(pts, 48);\n `,\n};\n\nexport default vase;\n",[],[219,561],"425e35dc-0500-11f1-b403-42dde27851f2","019c3dc4-fdf2-76fa-8252-8ad696690b43",["D",1770563409671],"/** Shared interface for all example models */\nexport interface Example {\n /** Unique ID used for onclick routing */\n id: string;\n /** HTML entity icon for the card */\n icon: string;\n /** Display name */\n name: string;\n /** Short HTML description */\n desc: string;\n /** Dimension string shown on card */\n size: string;\n /** Estimated print time */\n time: string;\n /** JS function body — must return a JSCAD geom3 solid.\n * Runs client-side with `jscad` in scope (the full @jscad/modeling library).\n * Available: jscad.primitives, jscad.booleans, jscad.transforms,\n * jscad.extrusions, jscad.hulls, jscad.expansions, jscad.measurements */\n generatorBody: string;\n}\n",[],[219,344],"f355b30a-0c36-11f1-9940-42dde27851f2","triSleeveVase.ts","f355b40e-0c36-11f1-9940-42dde27851f2",47,["D",1771356557533],"import type { Example } from \"./types.ts\";\n\nconst example: Example = {\n id: \"triSleeveVase\",\n icon: \"🔺\",\n name: \"Tri-Bottle Sleeve (Vase Mode)\",\n desc: \"Rounded-triangle vase-mode sleeve for three 500mL bottles in triangular formation. Gentle dimple on each side. Open top & bottom. Print with spiral vase, 0 bottom layers.\",\n size: \"~160 × 155 × 120mm\",\n time: \"~35 min\",\n generatorBody: `\n const { polygon } = jscad.primitives;\n const { extrudeLinear } = jscad.extrusions;\n const { subtract } = jscad.booleans;\n const { translate } = jscad.transforms;\n\n // ─── Dimensions ───\n const spacing = 80; // bottle center-to-center\n const circumR = spacing / Math.sqrt(3); // ~46.19mm\n const bottleR = 32.5; // 65mm bottle diameter\n const clearance = 1.5; // per side\n const lobeR = bottleR + clearance; // 34mm — arc radius at corners\n const wallT = 0.8; // vase mode wall\n const height = 120;\n const dimple = 4; // mm inward at side midpoints (gentle)\n\n // 3 bottle centers at 90°, 210°, 330°\n const angles = [Math.PI/2, Math.PI*7/6, Math.PI*11/6];\n const centers = angles.map(a => [circumR * Math.cos(a), circumR * Math.sin(a)]);\n\n // Build rounded-triangle profile\n // Each corner: 120° arc (radius R) centered on bottle position\n // Each side: straight with smooth sinusoidal dimple inward\n // dimple uses sin²(πt) for G1 continuity at junctions\n function makeProfile(R, dim) {\n const N_ARC = 24;\n const N_SIDE = 24;\n const pts = [];\n\n for (let i = 0; i < 3; i++) {\n const next = (i + 1) % 3;\n const C = centers[i];\n const Cn = centers[next];\n const theta = angles[i];\n\n // Corner arc: 120° centered on θ, CCW\n const arcStart = theta - Math.PI / 3;\n const arcEnd = theta + Math.PI / 3;\n for (let j = 0; j <= N_ARC; j++) {\n const a = arcStart + (arcEnd - arcStart) * j / N_ARC;\n pts.push([C[0] + R * Math.cos(a), C[1] + R * Math.sin(a)]);\n }\n\n // Side endpoints (tangent to arcs by Minkowski construction)\n const p0x = C[0] + R * Math.cos(arcEnd);\n const p0y = C[1] + R * Math.sin(arcEnd);\n const nxtA = angles[next] - Math.PI / 3;\n const p1x = Cn[0] + R * Math.cos(nxtA);\n const p1y = Cn[1] + R * Math.sin(nxtA);\n\n // Inward normal at side midpoint (toward origin)\n const mx = (p0x + p1x) / 2;\n const my = (p0y + p1y) / 2;\n const md = Math.sqrt(mx * mx + my * my);\n const ix = -mx / md;\n const iy = -my / md;\n\n for (let j = 1; j < N_SIDE; j++) {\n const t = j / N_SIDE;\n const s = Math.sin(Math.PI * t);\n const f = s * s; // sin²(πt): smooth bump, zero slope at ends\n pts.push([\n p0x + t * (p1x - p0x) + f * dim * ix,\n p0y + t * (p1y - p0y) + f * dim * iy\n ]);\n }\n }\n return pts;\n }\n\n const outerPts = makeProfile(lobeR, dimple);\n const innerPts = makeProfile(lobeR - wallT, dimple);\n\n const outer3d = extrudeLinear({ height }, polygon({ points: outerPts }));\n const inner3d = extrudeLinear({ height: height + 2 }, polygon({ points: innerPts }));\n\n return subtract(outer3d, translate([0, 0, -1], inner3d));\n `,\n};\n\nexport default example;\n",[],[219,574],"092e63ae-0f46-11f1-8b1e-42dde27851f2","triBottlePlateRaised.ts","e45293da-0f3a-11f1-9a6e-42dde27851f2",66,["D",1771692890124],"import type { Example } from \"./types.ts\";\n\nconst example: Example = {\n id: \"triBottlePlateRaised\",\n icon: \"🔺\",\n name: \"Tri-Bottle Plate (Raised Halos)\",\n desc: \"Rounded triangle plate with 3 open slot cuts for bottles (29mm wide), center dowel hole (10mm). Raised 3mm-thick halos around bottle positions; 2mm elsewhere.\",\n size: \"~160 × 145 × 3mm\",\n time: \"~35 min\",\n generatorBody: `\n const { cylinder } = jscad.primitives;\n const { subtract, union } = jscad.booleans;\n const { translate } = jscad.transforms;\n const { hull } = jscad.hulls;\n\n const plateH = 2; // base plate thickness\n const bossH = 5; // raised halo thickness (5mm)\n const holeR = 14.5; // 29mm ID — slot width\n const side = 80; // center-to-center\n const spreadExtra = 10; // 1cm more spread from center\n const edgeDist = 15; // hole edge to plate edge\n const cornerR = holeR + edgeDist; // 29.5mm\n const seg = 72;\n\n // Dowel hole: 10.3mm diameter for snug fit on 10mm dowel\n const dowelR = 5.15;\n\n // Circumradius + extra spread\n const R = side / Math.sqrt(3) + spreadExtra;\n\n const angles = [Math.PI / 2, Math.PI * 7 / 6, Math.PI * 11 / 6];\n const holes = angles.map(a => [R * Math.cos(a), R * Math.sin(a)]);\n\n // ─── Plate: hull of 3 large cylinders at hole positions ───\n const plateParts = holes.map(([x, y]) =>\n translate([x, y, plateH / 2],\n cylinder({ radius: cornerR, height: plateH, segments: seg })\n )\n );\n const plate = hull(plateParts);\n\n // ─── Slot cuts: straight constant-width channels ───\n const slotCuts = holes.map(([x, y], i) => {\n const angle = angles[i];\n const farDist = 80;\n const farX = x + Math.cos(angle) * farDist;\n const farY = y + Math.sin(angle) * farDist;\n const h = plateH + 4;\n return hull(\n translate([x, y, plateH / 2],\n cylinder({ radius: holeR, height: h, segments: seg })\n ),\n translate([farX, farY, plateH / 2],\n cylinder({ radius: holeR, height: h, segments: seg })\n )\n );\n });\n\n // ─── Round the sharp horn tips (corner fillet) ───\n const filletR = 3;\n const h = plateH + 4;\n\n const filletPerp = holeR + filletR;\n const filletDist = cornerR - filletR;\n const filletRadial = Math.sqrt(filletDist * filletDist - filletPerp * filletPerp);\n const tipRadial = Math.sqrt(cornerR * cornerR - holeR * holeR);\n\n const clipCuts = [];\n holes.forEach(([hx, hy], i) => {\n const a = angles[i];\n const dx = Math.cos(a);\n const dy = Math.sin(a);\n const px = -dy;\n const py = dx;\n for (const s of [-1, 1]) {\n const tx = hx + dx * tipRadial + px * s * holeR;\n const ty = hy + dy * tipRadial + py * s * holeR;\n const fx = hx + dx * filletRadial + px * s * filletPerp;\n const fy = hy + dy * filletRadial + py * s * filletPerp;\n const cover = translate([tx, ty, plateH / 2],\n cylinder({ radius: filletR * 2, height: h, segments: seg })\n );\n const keeper = translate([fx, fy, plateH / 2],\n cylinder({ radius: filletR, height: h, segments: seg })\n );\n clipCuts.push(subtract(cover, keeper));\n }\n });\n\n // ─── Raised halos: 34mm diameter, 3mm thick (1mm above plate surface) ───\n const haloR = 17; // 34mm diameter\n const haloBosses = holes.map(([x, y]) =>\n translate([x, y, bossH / 2],\n cylinder({ radius: haloR, height: bossH, segments: seg })\n )\n );\n\n // ─── Center dowel hole (flat, no collar) ───\n const dowelHole = cylinder({\n radius: dowelR,\n height: bossH + 4,\n center: [0, 0, bossH / 2],\n segments: 48\n });\n\n // ─── Slot cuts need to be tall enough to cut through raised halos too ───\n const tallSlotCuts = holes.map(([x, y], i) => {\n const angle = angles[i];\n const farDist = 80;\n const farX = x + Math.cos(angle) * farDist;\n const farY = y + Math.sin(angle) * farDist;\n const cutH = bossH + 4;\n return hull(\n translate([x, y, bossH / 2],\n cylinder({ radius: holeR, height: cutH, segments: seg })\n ),\n translate([farX, farY, bossH / 2],\n cylinder({ radius: holeR, height: cutH, segments: seg })\n )\n );\n });\n\n // ─── Tall clip cuts for raised geometry ───\n const tallH = bossH + 4;\n const tallClipCuts = [];\n holes.forEach(([hx, hy], i) => {\n const a = angles[i];\n const dx = Math.cos(a);\n const dy = Math.sin(a);\n const px = -dy;\n const py = dx;\n for (const s of [-1, 1]) {\n const tx = hx + dx * tipRadial + px * s * holeR;\n const ty = hy + dy * tipRadial + py * s * holeR;\n const fx = hx + dx * filletRadial + px * s * filletPerp;\n const fy = hy + dy * filletRadial + py * s * filletPerp;\n const cover = translate([tx, ty, bossH / 2],\n cylinder({ radius: filletR * 2, height: tallH, segments: seg })\n );\n const keeper = translate([fx, fy, bossH / 2],\n cylinder({ radius: filletR, height: tallH, segments: seg })\n );\n tallClipCuts.push(subtract(cover, keeper));\n }\n });\n\n // ─── Assemble: union plate + bosses, then subtract cuts ───\n const body = union(plate, ...haloBosses);\n return subtract(body, ...tallSlotCuts, ...tallClipCuts, dowelHole);\n `,\n};\n\nexport default example;\n",[],[219,582],"b2984f74-1043-11f1-8657-42dde27851f2","triBottlePlateChamfer265.ts","b298501e-1043-11f1-8657-42dde27851f2",101,["D",1771801836862],"import type { Example } from \"./types.ts\";\n\nconst example: Example = {\n id: \"triBottlePlateChamfer265\",\n icon: \"🔹\",\n name: \"Tri-Bottle Plate (Chamfered 26.5mm)\",\n desc: \"2mm plate with 4mm-tall chamfered guide walls + 2mm support wall. 26.5mm ID slots. Bottom 2mm straight bore, top 2mm tapers 45° outward.\",\n size: \"~155 × 140 × 4mm\",\n time: \"~40 min\",\n generatorBody: `\n const { cylinder } = jscad.primitives;\n const { subtract, union, intersect } = jscad.booleans;\n const { translate } = jscad.transforms;\n const { hull } = jscad.hulls;\n const cylinderElliptic = jscad.primitives.cylinderElliptic;\n\n const plateH = 2;\n const raisedH = 4;\n const chamferWall = 2;\n const supportWall = 2;\n const holeR = 13.25; // 26.5mm ID\n const chamferTopR = holeR + chamferWall;\n const wallOuterR = chamferTopR + supportWall;\n const side = 80;\n const spreadExtra = 10;\n const edgeDist = 15;\n const cornerR = holeR + edgeDist;\n const seg = 72;\n const dowelR = 5.15;\n\n const R = side / Math.sqrt(3) + spreadExtra;\n const angles = [Math.PI / 2, Math.PI * 7 / 6, Math.PI * 11 / 6];\n const holes = angles.map(a => [R * Math.cos(a), R * Math.sin(a)]);\n\n // ─── Base plate: 2mm thick ───\n const plateParts = holes.map(([x, y]) =>\n translate([x, y, plateH / 2],\n cylinder({ radius: cornerR, height: plateH, segments: seg })\n )\n );\n const plate = hull(plateParts);\n\n // ─── Raised walls: 4mm tall at wallOuterR ───\n const raisedHalos = holes.map(([x, y]) =>\n translate([x, y, raisedH / 2],\n cylinder({ radius: wallOuterR, height: raisedH, segments: seg })\n )\n );\n\n const raisedSlots = holes.map(([x, y], i) => {\n const angle = angles[i];\n const farDist = 80;\n const farX = x + Math.cos(angle) * farDist;\n const farY = y + Math.sin(angle) * farDist;\n return hull(\n translate([x, y, raisedH / 2],\n cylinder({ radius: wallOuterR, height: raisedH, segments: seg })\n ),\n translate([farX, farY, raisedH / 2],\n cylinder({ radius: wallOuterR, height: raisedH, segments: seg })\n )\n );\n });\n\n const plateFootprint = hull(holes.map(([x, y]) =>\n translate([x, y, raisedH / 2],\n cylinder({ radius: cornerR, height: raisedH, segments: seg })\n )\n ));\n const raisedClipped = intersect(union(...raisedHalos, ...raisedSlots), plateFootprint);\n\n const body = union(plate, raisedClipped);\n\n // ─── Slot cuts ───\n const slotCuts = holes.map(([x, y], i) => {\n const angle = angles[i];\n const farDist = 80;\n const farX = x + Math.cos(angle) * farDist;\n const farY = y + Math.sin(angle) * farDist;\n const cutH = raisedH + 4;\n return hull(\n translate([x, y, raisedH / 2],\n cylinder({ radius: holeR, height: cutH, segments: seg })\n ),\n translate([farX, farY, raisedH / 2],\n cylinder({ radius: holeR, height: cutH, segments: seg })\n )\n );\n });\n\n // ─── Chamfer cuts ───\n const chamferZ = plateH + (raisedH - plateH) / 2;\n const chamferH = raisedH - plateH;\n const chamferCuts = holes.map(([x, y], i) => {\n const angle = angles[i];\n const farDist = 80;\n const farX = x + Math.cos(angle) * farDist;\n const farY = y + Math.sin(angle) * farDist;\n return hull(\n translate([x, y, chamferZ],\n cylinderElliptic({\n startRadius: [holeR, holeR],\n endRadius: [chamferTopR + 0.01, chamferTopR + 0.01],\n height: chamferH + 0.01,\n segments: seg\n })\n ),\n translate([farX, farY, chamferZ],\n cylinderElliptic({\n startRadius: [holeR, holeR],\n endRadius: [chamferTopR + 0.01, chamferTopR + 0.01],\n height: chamferH + 0.01,\n segments: seg\n })\n )\n );\n });\n\n // ─── Corner fillets ───\n const filletR = 3;\n const clipH = raisedH + 4;\n const filletPerp = holeR + filletR;\n const filletDist = cornerR - filletR;\n const filletRadial = Math.sqrt(filletDist * filletDist - filletPerp * filletPerp);\n const tipRadial = Math.sqrt(cornerR * cornerR - holeR * holeR);\n\n const clipCuts = [];\n holes.forEach(([hx, hy], i) => {\n const a = angles[i];\n const dx = Math.cos(a);\n const dy = Math.sin(a);\n const px = -dy;\n const py = dx;\n for (const s of [-1, 1]) {\n const tx = hx + dx * tipRadial + px * s * holeR;\n const ty = hy + dy * tipRadial + py * s * holeR;\n const fx = hx + dx * filletRadial + px * s * filletPerp;\n const fy = hy + dy * filletRadial + py * s * filletPerp;\n const cover = translate([tx, ty, raisedH / 2],\n cylinder({ radius: filletR * 2, height: clipH, segments: seg })\n );\n const keeper = translate([fx, fy, raisedH / 2],\n cylinder({ radius: filletR, height: clipH, segments: seg })\n );\n clipCuts.push(subtract(cover, keeper));\n }\n });\n\n // ─── Center dowel hole ───\n const dowelHole = cylinder({\n radius: dowelR,\n height: raisedH + 4,\n center: [0, 0, raisedH / 2],\n segments: 48\n });\n\n return subtract(body, ...slotCuts, ...chamferCuts, ...clipCuts, dowelHole);\n `,\n};\n\nexport default example;\n",[],[219,590],"c4c1d658-0fa2-11f1-863a-42dde27851f2","triBottlePlateChamfer.ts","c2da02be-0f5e-11f1-8be4-42dde27851f2",88,["D",1771732718516],"import type { Example } from \"./types.ts\";\n\nconst example: Example = {\n id: \"triBottlePlateChamfer\",\n icon: \"🔻\",\n name: \"Tri-Bottle Plate (Chamfered)\",\n desc: \"2mm plate with 4mm-tall chamfered guide walls + 2mm support wall. Bottom 2mm straight bore, top 2mm tapers 45° outward with solid backing. Guide walls run full slot channels.\",\n size: \"~160 × 145 × 4mm\",\n time: \"~40 min\",\n generatorBody: `\n const { cylinder } = jscad.primitives;\n const { subtract, union, intersect } = jscad.booleans;\n const { translate } = jscad.transforms;\n const { hull } = jscad.hulls;\n const cylinderElliptic = jscad.primitives.cylinderElliptic;\n\n const plateH = 2;\n const raisedH = 4; // total height at chamfered areas\n const chamferWall = 2; // chamfer taper depth\n const supportWall = 2; // solid wall backing the chamfer\n const holeR = 14.5; // 29mm ID slot width\n const chamferTopR = holeR + chamferWall; // 16.5mm — where chamfer ends\n const wallOuterR = chamferTopR + supportWall; // 18.5mm — outer wall\n const side = 80;\n const spreadExtra = 10;\n const edgeDist = 15;\n const cornerR = holeR + edgeDist; // 29.5mm\n const seg = 72;\n const dowelR = 5.15;\n\n const R = side / Math.sqrt(3) + spreadExtra;\n const angles = [Math.PI / 2, Math.PI * 7 / 6, Math.PI * 11 / 6];\n const holes = angles.map(a => [R * Math.cos(a), R * Math.sin(a)]);\n\n // ─── Base plate: 2mm thick ───\n const plateParts = holes.map(([x, y]) =>\n translate([x, y, plateH / 2],\n cylinder({ radius: cornerR, height: plateH, segments: seg })\n )\n );\n const plate = hull(plateParts);\n\n // ─── Raised walls: 4mm tall at wallOuterR ───\n const raisedHalos = holes.map(([x, y]) =>\n translate([x, y, raisedH / 2],\n cylinder({ radius: wallOuterR, height: raisedH, segments: seg })\n )\n );\n\n const raisedSlots = holes.map(([x, y], i) => {\n const angle = angles[i];\n const farDist = 80;\n const farX = x + Math.cos(angle) * farDist;\n const farY = y + Math.sin(angle) * farDist;\n return hull(\n translate([x, y, raisedH / 2],\n cylinder({ radius: wallOuterR, height: raisedH, segments: seg })\n ),\n translate([farX, farY, raisedH / 2],\n cylinder({ radius: wallOuterR, height: raisedH, segments: seg })\n )\n );\n });\n\n // Clip raised zones to plate footprint\n const plateFootprint = hull(holes.map(([x, y]) =>\n translate([x, y, raisedH / 2],\n cylinder({ radius: cornerR, height: raisedH, segments: seg })\n )\n ));\n const raisedClipped = intersect(union(...raisedHalos, ...raisedSlots), plateFootprint);\n\n const body = union(plate, raisedClipped);\n\n // ─── Slot cuts: straight bore at holeR, full height ───\n const slotCuts = holes.map(([x, y], i) => {\n const angle = angles[i];\n const farDist = 80;\n const farX = x + Math.cos(angle) * farDist;\n const farY = y + Math.sin(angle) * farDist;\n const cutH = raisedH + 4;\n return hull(\n translate([x, y, raisedH / 2],\n cylinder({ radius: holeR, height: cutH, segments: seg })\n ),\n translate([farX, farY, raisedH / 2],\n cylinder({ radius: holeR, height: cutH, segments: seg })\n )\n );\n });\n\n // ─── Chamfer cuts: top 2mm tapers from holeR to chamferTopR ───\n // Leaves 2mm solid support wall outside the chamfer\n const chamferZ = plateH + (raisedH - plateH) / 2;\n const chamferH = raisedH - plateH;\n const chamferCuts = holes.map(([x, y], i) => {\n const angle = angles[i];\n const farDist = 80;\n const farX = x + Math.cos(angle) * farDist;\n const farY = y + Math.sin(angle) * farDist;\n return hull(\n translate([x, y, chamferZ],\n cylinderElliptic({\n startRadius: [holeR, holeR],\n endRadius: [chamferTopR + 0.01, chamferTopR + 0.01],\n height: chamferH + 0.01,\n segments: seg\n })\n ),\n translate([farX, farY, chamferZ],\n cylinderElliptic({\n startRadius: [holeR, holeR],\n endRadius: [chamferTopR + 0.01, chamferTopR + 0.01],\n height: chamferH + 0.01,\n segments: seg\n })\n )\n );\n });\n\n // ─── Corner fillets (sized for wider wall) ───\n const filletR = 3;\n const clipH = raisedH + 4;\n const filletPerp = holeR + filletR;\n const filletDist = cornerR - filletR;\n const filletRadial = Math.sqrt(filletDist * filletDist - filletPerp * filletPerp);\n const tipRadial = Math.sqrt(cornerR * cornerR - holeR * holeR);\n\n const clipCuts = [];\n holes.forEach(([hx, hy], i) => {\n const a = angles[i];\n const dx = Math.cos(a);\n const dy = Math.sin(a);\n const px = -dy;\n const py = dx;\n for (const s of [-1, 1]) {\n const tx = hx + dx * tipRadial + px * s * holeR;\n const ty = hy + dy * tipRadial + py * s * holeR;\n const fx = hx + dx * filletRadial + px * s * filletPerp;\n const fy = hy + dy * filletRadial + py * s * filletPerp;\n const cover = translate([tx, ty, raisedH / 2],\n cylinder({ radius: filletR * 2, height: clipH, segments: seg })\n );\n const keeper = translate([fx, fy, raisedH / 2],\n cylinder({ radius: filletR, height: clipH, segments: seg })\n );\n clipCuts.push(subtract(cover, keeper));\n }\n });\n\n // ─── Center dowel hole ───\n const dowelHole = cylinder({\n radius: dowelR,\n height: raisedH + 4,\n center: [0, 0, raisedH / 2],\n segments: 48\n });\n\n return subtract(body, ...slotCuts, ...chamferCuts, ...clipCuts, dowelHole);\n `,\n};\n\nexport default example;\n",[],[219,598],"a330fcf8-0ac5-11f1-90e3-42dde27851f2","triBottlePlate15L.ts","a330fdd4-0ac5-11f1-90e3-42dde27851f2",43,["D",1771197938780],"import type { Example } from \"./types.ts\";\n\nconst example: Example = {\n id: \"triBottlePlate15L\",\n icon: \"🔺\",\n name: \"Tri-Bottle Plate 1.5L\",\n desc: \"Rounded triangle plate for 1.5L bottles (29mm ID holes, 90mm apart, bottles touching). Center dowel hole (10mm) with collar.\",\n size: \"~163 × 145 × 5mm\",\n time: \"~50 min\",\n generatorBody: `\n const { cylinder } = jscad.primitives;\n const { subtract, union } = jscad.booleans;\n const { translate } = jscad.transforms;\n const { hull } = jscad.hulls;\n\n const plateH = 3;\n const holeR = 14.5; // 29mm ID bottle holes\n const side = 90; // center-to-center (bottles touching)\n const edgeDist = 15; // hole edge to plate edge\n const cornerR = holeR + edgeDist;\n const seg = 72;\n\n // Dowel hole\n const dowelR = 5.15;\n const collarH = 2;\n const collarThick = 2;\n\n // Equilateral triangle\n const R = side / Math.sqrt(3);\n const angles = [Math.PI / 2, Math.PI * 7 / 6, Math.PI * 11 / 6];\n const holes = angles.map(a => [R * Math.cos(a), R * Math.sin(a)]);\n\n // ─── Plate: hull of 3 large cylinders ───\n const plateParts = holes.map(([x, y]) =>\n translate([x, y, plateH / 2],\n cylinder({ radius: cornerR, height: plateH, segments: seg })\n )\n );\n let plate = hull(plateParts);\n\n // ─── Subtract 3 bottle holes ───\n const bottleHoles = holes.map(([x, y]) =>\n translate([x, y, 0],\n cylinder({ radius: holeR, height: plateH + 4, center: [0, 0, plateH / 2], segments: seg })\n )\n );\n\n // ─── Center dowel hole ───\n const dowelHole = cylinder({\n radius: dowelR,\n height: plateH + collarH + 4,\n center: [0, 0, (plateH + collarH) / 2],\n segments: 48\n });\n\n // ─── Collar ───\n const collarOuter = cylinder({\n radius: dowelR + collarThick,\n height: plateH + collarH,\n center: [0, 0, (plateH + collarH) / 2],\n segments: 48\n });\n const collarInner = cylinder({\n radius: dowelR,\n height: plateH + collarH + 2,\n center: [0, 0, (plateH + collarH) / 2],\n segments: 48\n });\n const collar = subtract(collarOuter, collarInner);\n\n // ─── Assemble ───\n const body = union(plate, collar);\n return subtract(body, ...bottleHoles, dowelHole);\n `,\n};\n\nexport default example;\n",[],[219,606],"1925b3f0-0def-11f1-876c-42dde27851f2","triBottlePlate.ts","fd76375a-0a84-11f1-88a2-42dde27851f2",63,["D",1771545599533],17,"import type { Example } from \"./types.ts\";\n\nconst example: Example = {\n id: \"triBottlePlate\",\n icon: \"🔺\",\n name: \"Tri-Bottle Plate\",\n desc: \"Rounded triangle plate with 3 open slot cuts for bottles (29mm wide), center dowel hole (10mm). Slots extend to edge with rounded exit tips.\",\n size: \"~160 × 145 × 2.4mm\",\n time: \"~30 min\",\n generatorBody: `\n const { cylinder } = jscad.primitives;\n const { subtract } = jscad.booleans;\n const { translate } = jscad.transforms;\n const { hull } = jscad.hulls;\n\n const plateH = 2; // 20% thinner than original 3mm\n const holeR = 14.5; // 29mm ID — slot width stays this diameter\n const side = 80; // original center-to-center\n const spreadExtra = 10; // 1cm more spread from center\n const edgeDist = 15; // hole edge to plate edge\n const cornerR = holeR + edgeDist; // 29.5mm\n const seg = 72;\n\n // Dowel hole: 10.3mm diameter for snug fit on 10mm dowel\n const dowelR = 5.15;\n\n // Circumradius + extra spread\n const R = side / Math.sqrt(3) + spreadExtra;\n\n const angles = [Math.PI / 2, Math.PI * 7 / 6, Math.PI * 11 / 6];\n const holes = angles.map(a => [R * Math.cos(a), R * Math.sin(a)]);\n\n // ─── Plate: hull of 3 large cylinders at hole positions ───\n const plateParts = holes.map(([x, y]) =>\n translate([x, y, plateH / 2],\n cylinder({ radius: cornerR, height: plateH, segments: seg })\n )\n );\n const plate = hull(plateParts);\n\n // ─── Slot cuts: straight constant-width channels ───\n const slotCuts = holes.map(([x, y], i) => {\n const angle = angles[i];\n const farDist = 80;\n const farX = x + Math.cos(angle) * farDist;\n const farY = y + Math.sin(angle) * farDist;\n const h = plateH + 4;\n return hull(\n translate([x, y, plateH / 2],\n cylinder({ radius: holeR, height: h, segments: seg })\n ),\n translate([farX, farY, plateH / 2],\n cylinder({ radius: holeR, height: h, segments: seg })\n )\n );\n });\n\n // ─── Round the sharp horn tips (corner fillet) ───\n const filletR = 3;\n const h = plateH + 4;\n\n const filletPerp = holeR + filletR;\n const filletDist = cornerR - filletR;\n const filletRadial = Math.sqrt(filletDist * filletDist - filletPerp * filletPerp);\n const tipRadial = Math.sqrt(cornerR * cornerR - holeR * holeR);\n\n const clipCuts = [];\n holes.forEach(([hx, hy], i) => {\n const a = angles[i];\n const dx = Math.cos(a);\n const dy = Math.sin(a);\n const px = -dy;\n const py = dx;\n for (const s of [-1, 1]) {\n const tx = hx + dx * tipRadial + px * s * holeR;\n const ty = hy + dy * tipRadial + py * s * holeR;\n const fx = hx + dx * filletRadial + px * s * filletPerp;\n const fy = hy + dy * filletRadial + py * s * filletPerp;\n const cover = translate([tx, ty, plateH / 2],\n cylinder({ radius: filletR * 2, height: h, segments: seg })\n );\n const keeper = translate([fx, fy, plateH / 2],\n cylinder({ radius: filletR, height: h, segments: seg })\n );\n clipCuts.push(subtract(cover, keeper));\n }\n });\n\n // ─── Halo indentations: 34mm diameter, 1mm deep from top ───\n const haloR = 17; // 34mm diameter\n const haloDepth = 0.5;\n const haloCuts = holes.map(([x, y]) =>\n translate([x, y, plateH - haloDepth / 2],\n cylinder({ radius: haloR, height: haloDepth + 0.01, segments: seg })\n )\n );\n\n // ─── Center dowel hole (flat, no collar) ───\n const dowelHole = cylinder({\n radius: dowelR,\n height: plateH + 4,\n center: [0, 0, plateH / 2],\n segments: 48\n });\n\n // ─── Assemble ───\n return subtract(plate, ...slotCuts, ...clipCuts, ...haloCuts, dowelHole);\n `,\n};\n\nexport default example;\n",[],[219,614],"c9002d30-3b82-11f1-89c7-42b51c65c3df","tabletMold25.ts","ccdb3a06-3b5c-11f1-9843-42b51c65c3df",143,["D",1776556832906],"import type { Example } from \"./types.ts\";\n\nconst example: Example = {\n id: \"tabletMold25\",\n icon: \"💊\",\n name: \"Tablet Mold (5×5, 25 tablets)\",\n desc:\n \"Production tablet press — 25 cavities × ~200mg = 5.0g batch target for 0.1g scale precision. Raised funnel rim contains powder during pouring. 8mm × 4mm cavities, matching plunger. PETG recommended.\",\n size: \"~160 × 74 × 21mm\",\n time: \"~3 hrs\",\n generatorBody: `\n const { cuboid, cylinder } = jscad.primitives;\n const { subtract, union } = jscad.booleans;\n const { translate } = jscad.transforms;\n const { hull } = jscad.hulls;\n\n // --- Cavity / cell geometry ---\n const cavityD = 8;\n const cavityDepth = 4;\n const wallGap = 4;\n const floorH = 3;\n\n // --- Rim (funnel wall) ---\n const wallT = 2; // wall thickness at bottom of rim\n const rimH = 6; // rim height above cavity top\n const flare = 3; // outer top flare outward\n\n // --- Plunger ---\n const clearance = 0.2; // peg-to-cavity radial clearance\n const blockClearance = 0.5; // plunger block edge clearance inside tray\n const plungerLen = rimH + 1; // 7mm — enters cavity by 1mm for light tamping\n const plungerBlockH = 15;\n\n const seg = 48;\n const cols = 5;\n const rows = 5;\n const outerW = cols * cavityD + (cols + 1) * wallGap;\n const outerH = rows * cavityD + (rows + 1) * wallGap;\n\n // --- Mold with flared funnel rim ---\n function buildMold() {\n const baseH = floorH + cavityDepth;\n\n // Base block with cavities\n const baseBlock = cuboid({\n size: [outerW, outerH, baseH],\n center: [outerW / 2, outerH / 2, baseH / 2],\n });\n\n // Flared outer shell of rim (hull between a bottom slice and a wider top slice)\n const rimBottomOuter = cuboid({\n size: [outerW + 2 * wallT, outerH + 2 * wallT, 0.1],\n center: [outerW / 2, outerH / 2, baseH + 0.05],\n });\n const rimTopOuter = cuboid({\n size: [outerW + 2 * wallT + 2 * flare, outerH + 2 * wallT + 2 * flare, 0.1],\n center: [outerW / 2, outerH / 2, baseH + rimH - 0.05],\n });\n const rimOuter = hull(rimBottomOuter, rimTopOuter);\n\n // Inner vertical cutout — tray walls are straight inside, flared only outside\n const rimInner = cuboid({\n size: [outerW, outerH, rimH + 0.2],\n center: [outerW / 2, outerH / 2, baseH + rimH / 2],\n });\n\n const withRim = union(baseBlock, subtract(rimOuter, rimInner));\n\n // Cavities\n const cavities = [];\n for (let i = 0; i < cols; i++) {\n for (let j = 0; j < rows; j++) {\n const x = wallGap + cavityD / 2 + i * (cavityD + wallGap);\n const y = wallGap + cavityD / 2 + j * (cavityD + wallGap);\n cavities.push(translate(\n [x, y, floorH + cavityDepth / 2 + 0.01],\n cylinder({\n radius: cavityD / 2,\n height: cavityDepth + 0.02,\n segments: seg,\n }),\n ));\n }\n }\n return subtract(withRim, union(...cavities));\n }\n\n // --- Plunger: block slides into the tray, pegs reach into cavities ---\n function buildPlunger() {\n const bw = outerW - 2 * blockClearance;\n const bh = outerH - 2 * blockClearance;\n\n const block = cuboid({\n size: [bw, bh, plungerBlockH],\n center: [outerW / 2, outerH / 2, plungerBlockH / 2],\n });\n\n const pegs = [];\n for (let i = 0; i < cols; i++) {\n for (let j = 0; j < rows; j++) {\n const x = wallGap + cavityD / 2 + i * (cavityD + wallGap);\n const y = wallGap + cavityD / 2 + j * (cavityD + wallGap);\n pegs.push(translate(\n [x, y, plungerBlockH + plungerLen / 2],\n cylinder({\n radius: cavityD / 2 - clearance,\n height: plungerLen,\n segments: seg,\n }),\n ));\n }\n }\n return union(block, ...pegs);\n }\n\n // --- Layout: mold on left, plunger on right ---\n // Mold rim extends (wallT + flare) = 5mm beyond base on each side at the top.\n const rimOvh = wallT + flare;\n const gap = 12;\n // Plunger origin sits at (0,0). Mold's right-most top edge at x = outerW + rimOvh.\n // Shift plunger so its block's left edge is gap past the rim flare.\n const plungerShift = outerW + rimOvh + gap - blockClearance;\n\n return union(\n buildMold(),\n translate([plungerShift, 0, 0], buildPlunger()),\n );\n `,\n};\n\nexport default example;\n",[],[219,623],"02cd7e90-3b98-11f1-b6c9-42b51c65c3df","tabletMold.ts","9ff3c988-3b5a-11f1-b073-42b51c65c3df",151,["D",1776565949305],"import type { Example } from \"./types.ts\";\n\nconst example: Example = {\n id: \"tabletMold\",\n icon: \"💊\",\n name: \"Tablet Mold (1×1 + 2×2 test)\",\n desc:\n \"Dimensional test pieces. 8mm × 4mm cavities (~200mg fill). Funnel tray with vertical outer walls and flared inner walls. Plunger nests inside the tray (self-centering via funnel), 12mm tall so top sticks 6mm above rim for easy grip. Pegs tamp 1mm into cavities. Four parts total.\",\n size: \"~136 × 34 × 19mm\",\n time: \"~1 hr\",\n generatorBody: `\n const { cuboid, cylinder } = jscad.primitives;\n const { subtract, union } = jscad.booleans;\n const { translate } = jscad.transforms;\n const { hull } = jscad.hulls;\n\n // --- Cavity geometry ---\n const cavityD = 8;\n const cavityDepth = 4;\n const wallGap = 4;\n const floorH = 3;\n\n // --- Rim / funnel ---\n const wallT = 3; // wall thickness at base of rim (outer is vertical)\n const rimH = 6; // rim height above cavity surface\n const taper = 1.5; // inner walls flare outward this much at the top\n // → top wall thickness = wallT - taper = 1.5mm\n\n // --- Plunger ---\n const clearance = 0.2;\n const blockClearance = 0.4; // radial clearance inside the narrow bottom of tray\n const plungerLen = 1; // peg tamps 1mm into cavity when block seats on cavity surface\n const plungerBlockH = 12; // tall enough that top sticks 6mm above rim for grip\n const seg = 48;\n\n // --- Generic mold builder ---\n function buildMold(cols, rows) {\n const innerW = cols * cavityD + (cols + 1) * wallGap; // cavity-grid footprint\n const innerH = rows * cavityD + (rows + 1) * wallGap;\n const totalW = innerW + 2 * wallT; // outer footprint\n const totalH_xy = innerH + 2 * wallT;\n const baseH = floorH + cavityDepth;\n const totalZ = baseH + rimH;\n\n // Single vertical-walled outer block (no flare, no overhangs)\n const outerBlock = cuboid({\n size: [totalW, totalH_xy, totalZ],\n center: [totalW / 2, totalH_xy / 2, totalZ / 2],\n });\n\n // Funnel cutter: frustum narrow at bottom (matches cavity grid), wide at top.\n // Subtracted from outer block → inner walls slope outward going up.\n const funnelBottom = cuboid({\n size: [innerW, innerH, 0.1],\n center: [totalW / 2, totalH_xy / 2, baseH + 0.05],\n });\n const funnelTop = cuboid({\n size: [innerW + 2 * taper, innerH + 2 * taper, 0.1],\n center: [totalW / 2, totalH_xy / 2, totalZ - 0.05],\n });\n const funnelCutter = hull(funnelBottom, funnelTop);\n\n const withTray = subtract(outerBlock, funnelCutter);\n\n // Cavities — offset by wallT to center them in the outer block\n const cavities = [];\n for (let i = 0; i < cols; i++) {\n for (let j = 0; j < rows; j++) {\n const x = wallT + wallGap + cavityD / 2 + i * (cavityD + wallGap);\n const y = wallT + wallGap + cavityD / 2 + j * (cavityD + wallGap);\n cavities.push(translate(\n [x, y, floorH + cavityDepth / 2 + 0.01],\n cylinder({\n radius: cavityD / 2,\n height: cavityDepth + 0.02,\n segments: seg,\n }),\n ));\n }\n }\n return subtract(withTray, union(...cavities));\n }\n\n // --- Generic plunger builder ---\n // Block slides INSIDE the tray, sized to match the narrow bottom (cavity-grid\n // footprint). The flared funnel walls self-center it on the way down.\n // When fully seated (block resting on cavity-grid surface), block top sticks\n // 6mm above the rim so you can grip and pull it out easily.\n function buildPlunger(cols, rows) {\n const innerW = cols * cavityD + (cols + 1) * wallGap;\n const innerH = rows * cavityD + (rows + 1) * wallGap;\n const totalW = innerW + 2 * wallT;\n const totalH_xy = innerH + 2 * wallT;\n\n const bw = innerW - 2 * blockClearance;\n const bh = innerH - 2 * blockClearance;\n const block = cuboid({\n size: [bw, bh, plungerBlockH],\n center: [totalW / 2, totalH_xy / 2, plungerBlockH / 2],\n });\n\n const pegs = [];\n for (let i = 0; i < cols; i++) {\n for (let j = 0; j < rows; j++) {\n const x = wallT + wallGap + cavityD / 2 + i * (cavityD + wallGap);\n const y = wallT + wallGap + cavityD / 2 + j * (cavityD + wallGap);\n pegs.push(translate(\n [x, y, plungerBlockH + plungerLen / 2],\n cylinder({\n radius: cavityD / 2 - clearance,\n height: plungerLen,\n segments: seg,\n }),\n ));\n }\n }\n return union(block, ...pegs);\n }\n\n // --- Layout: mold1 · plunger1 · mold2 · plunger2 ---\n const w1 = 1 * cavityD + 2 * wallGap;\n const w2 = 2 * cavityD + 3 * wallGap;\n const mold1W = w1 + 2 * wallT;\n const mold2W = w2 + 2 * wallT;\n const plunger1W = mold1W;\n const plunger2W = mold2W;\n const gap = 8;\n\n let cursor = 0;\n const mold1X = cursor; cursor += mold1W + gap;\n const plunger1X = cursor; cursor += plunger1W + gap;\n const mold2X = cursor; cursor += mold2W + gap;\n const plunger2X = cursor;\n\n return union(\n translate([mold1X, 0, 0], buildMold(1, 1)),\n translate([plunger1X, 0, 0], buildPlunger(1, 1)),\n translate([mold2X, 0, 0], buildMold(2, 2)),\n translate([plunger2X, 0, 0], buildPlunger(2, 2)),\n );\n `,\n};\n\nexport default example;\n",[],[219,631],"a2b75c10-41b9-11f1-b79f-42b51c65c3df","sleeve15Gauge.ts","4210e9ae-419f-11f1-b338-42b51c65c3df",247,["D",1777240097963],"import type { Example } from \"./types.ts\";\n\n/**\n * 1.5L Sleeve Profile Gauge — printable 2mm-thick test piece.\n *\n * Two mirrored cross-sections of the V2 1.5L sleeve interior, joined at\n * the top by a horizontal connector bar. Slide it over a real PET 1.5L\n * bottle from above to verify the bottle's profile fits cleanly inside\n * the bore line all the way down through shoulder, neck, and rim.\n *\n * Scope: covers from sleeve-z 195 up to z=345 (the rim). Total vertical\n * extent ~158mm — leaves room around the part on the A1 Mini bed for a\n * brim (5-8mm wide).\n * - z=195..247: body plateau region (bore constant at ID 98) — gives\n * you ~52mm of grip-able straight section\n * - z=247..317: shoulder narrowing zone (bore 49→16 over 70mm)\n * - z=317..345: lip flare at the rim (bore 16→30)\n *\n * Inner edges follow innerAt(z) exactly — same math as V2 1.5L Top.\n * Outer edges follow outerAt(z) exactly — same math as V2 1.5L Bottom.\n *\n * Footprint: ~106 × 158 × 2 mm. Leaves ~11mm of margin per top/bottom\n * edge on the A1 Mini's 180×180 bed for a brim.\n *\n * Material: ~10g PLA. Print FLAT (lying on its side, 2mm Z height) — the\n * part is already a 2D cross-section, no support needed. Add a 5-8mm\n * brim in the slicer for first-layer adhesion.\n */\n\nconst example: Example = {\n id: \"sleeve15Gauge\",\n icon: \"📏\",\n name: \"1.5L Sleeve Profile Gauge\",\n desc: \"Flat 2mm-thick gauge of the upper sleeve cross-section (z=195..345). Inner edges follow the sleeve bore exactly. ~158mm tall. Leaves bed margin for a brim. Slide down a real 1.5L bottle to verify fit.\",\n size: \"~106 × 158 × 2 mm\",\n time: \"~40 min\",\n generatorBody: `\n // ───────── Sleeve profile params (must match V2 1.5L Top/Bottom) ─────────\n const H = 345;\n const r_bot_out = 57, r_body_out = 52, r_narrow_out = 22, r_top_out = 35;\n const r_body_in = 49, r_narrow_in = 16, r_top_in = 30;\n const t_peak = 0.918;\n const shoulder_h = 70;\n\n // ───────── Gauge params ─────────\n const Z_LOW = 195; // bottom of gauge — into body plateau, leaving bed margin for brim\n const Z_HIGH = H; // top = sleeve rim\n const BAR_H = 8; // mm: horizontal connector bar height (above rim)\n const THICK = 2; // mm: gauge plate thickness\n const STEP = 0.5; // mm: profile sample spacing\n\n const { polygon } = jscad.primitives;\n const { extrudeLinear } = jscad.extrusions;\n const { union } = jscad.booleans;\n const { translate, mirrorX } = jscad.transforms;\n\n function smoothstep(u) {\n u = Math.max(0, Math.min(1, u));\n return u * u * (3 - 2 * u);\n }\n function outerAt(z) {\n const t = z / H;\n const t_body_end = t_peak - shoulder_h / H;\n if (t <= t_body_end) {\n const u = t_body_end > 0 ? t / t_body_end : 1;\n return r_bot_out + (r_body_out - r_bot_out) * smoothstep(u);\n } else if (t <= t_peak) {\n const u = (t - t_body_end) / (t_peak - t_body_end);\n return r_body_out + (r_narrow_out - r_body_out) * smoothstep(u);\n }\n const u = (t - t_peak) / (1 - t_peak);\n return r_narrow_out + (r_top_out - r_narrow_out) * smoothstep(u);\n }\n function innerAt(z) {\n const t = z / H;\n const t_body_end = t_peak - shoulder_h / H;\n if (t <= t_body_end) return r_body_in;\n if (t <= t_peak) {\n const u = (t - t_body_end) / (t_peak - t_body_end);\n return r_body_in + (r_narrow_in - r_body_in) * smoothstep(u);\n }\n const u = (t - t_peak) / (1 - t_peak);\n return r_narrow_in + (r_top_in - r_narrow_in) * smoothstep(u);\n }\n\n // ───────── Build right half as a 2D polygon ─────────\n const points = [];\n points.push([innerAt(Z_LOW), Z_LOW]);\n points.push([outerAt(Z_LOW), Z_LOW]);\n for (let z = Z_LOW; z <= Z_HIGH; z += STEP) {\n points.push([outerAt(z), z]);\n }\n points.push([outerAt(Z_HIGH), Z_HIGH]);\n points.push([innerAt(Z_HIGH), Z_HIGH]);\n for (let z = Z_HIGH; z >= Z_LOW; z -= STEP) {\n points.push([innerAt(z), z]);\n }\n const halfPoly2D = polygon({ points });\n const rightHalf = extrudeLinear({ height: THICK }, halfPoly2D);\n const leftHalf = mirrorX(rightHalf);\n\n // ───────── Top connector bar — sits ABOVE the rim ─────────\n const barHalfW = outerAt(Z_HIGH);\n const barPoints = [\n [-barHalfW, Z_HIGH],\n [ barHalfW, Z_HIGH],\n [ barHalfW, Z_HIGH + BAR_H],\n [-barHalfW, Z_HIGH + BAR_H],\n ];\n const bar = extrudeLinear({ height: THICK }, polygon({ points: barPoints }));\n\n // ───────── Combine and shift so the gauge sits at y=0 ─────────\n const combined = union(leftHalf, rightHalf, bar);\n return translate([0, -Z_LOW, 0], combined);\n `,\n};\n\nexport default example;\n",[],[219,639],"3f518894-0fb4-11f1-ba60-42dde27851f2","skadisLego.ts","3f518934-0fb4-11f1-ba60-42dde27851f2",89,["D",1771740225596],"import type { Example } from \"./types.ts\";\n\nconst example: Example = {\n id: \"skadisLego\",\n icon: \"🧱\",\n name: \"Skådis → Lego Technic\",\n desc: \"2 Skådis hooks (40mm apart) connected by a Technic-compatible beam with 6 pin holes at 8mm pitch\",\n size: \"48×16×12 mm\",\n time: \"~15 min\",\n generatorBody: `\n const { cuboid, cylinder, roundedCuboid } = jscad.primitives;\n const { subtract, union } = jscad.booleans;\n const { translate, rotateX } = jscad.transforms;\n\n // ═══ REFERENCE DIMENSIONS ═══\n // Skadis: slot 5×15mm, board ~5mm thick, 40mm hole-to-hole\n // Technic: pin Ø4.8mm, 8mm pitch, beam ~7.8mm square\n\n // ═══ DESIGN PARAMETERS ═══\n const technicPitch = 8;\n const pinHoleDia = 5.1; // 4.8mm pin + 0.3mm print clearance\n const beamSize = 8; // beam cross-section\n const numHoles = 6; // 6 holes = 40mm span = 1 Skadis spacing\n\n // Skadis hook peg\n const pegW = 4.5; // fits through 5mm slot\n const pegH = 12; // fits inside 15mm slot height\n const boardT = 5.5; // board thickness + clearance\n const catchW = 9; // wider than slot → locks behind board\n const catchH = 10;\n const catchD = 2.5; // depth of catch behind board\n\n // ═══ MAIN BEAM ═══\n const beamLen = (numHoles - 1) * technicPitch + beamSize; // 48mm\n const beam = roundedCuboid({\n size: [beamLen, beamSize, beamSize],\n roundRadius: 1,\n segments: 16\n });\n\n // ═══ PIN HOLES (through Y axis — front-to-back) ═══\n const holes = [];\n for (let i = 0; i < numHoles; i++) {\n const x = -beamLen / 2 + beamSize / 2 + i * technicPitch;\n holes.push(\n translate([x, 0, 0],\n rotateX(Math.PI / 2,\n cylinder({ radius: pinHoleDia / 2, height: beamSize + 2, segments: 32 })\n )\n )\n );\n }\n\n // ═══ SKADIS HOOKS (extend from back face toward wall) ═══\n function makeHook(xPos) {\n // Narrow peg that passes through the 5×15mm slot\n const peg = translate([xPos, beamSize / 2 + boardT / 2, 0],\n cuboid({ size: [pegW, boardT, pegH] })\n );\n // Wider catch plate behind the board (can't pull back through)\n const back = translate([xPos, beamSize / 2 + boardT + catchD / 2, 0],\n cuboid({ size: [catchW, catchD, catchH] })\n );\n return union(peg, back);\n }\n\n // Hook positions: first and last Technic hole = 40mm apart\n const x0 = -beamLen / 2 + beamSize / 2; // hole 0\n const x5 = beamLen / 2 - beamSize / 2; // hole 5\n\n return subtract(\n union(beam, makeHook(x0), makeHook(x5)),\n ...holes\n );\n `,\n};\n\nexport default example;\n",[],[219,647],"eddb7708-4033-11f1-b6e2-42b51c65c3df","pressFitTestAll4.ts","d3b1eb56-4032-11f1-ab77-42b51c65c3df",219,["D",1777072720303],"import type { Example } from \"./types.ts\";\n\n/**\n * Press-Fit Test — All 4 rings (0.5L mini)\n *\n * 2×2 grid laid out for the Bambu Lab A1 Mini (180×180mm build plate).\n * Total footprint ~153×153mm with 5mm gaps; fits comfortably.\n *\n * All rings are SHORT (8mm handle + 3mm plug = 11mm total) to save material\n * and print time. Position on the plate identifies them — no need for\n * height differences.\n *\n * Layout (top-down view, +Y is \"back\" of plate):\n *\n * Ring 1 (back-left) Ring 2 (back-right)\n * radial 0.15mm radial 0.10mm ← recommended\n *\n * Ring 4 (front-left) Ring 3 (front-right)\n * radial 0.00mm radial 0.05mm ← recommended\n *\n * RECOMMENDED PAIR (most likely to work): rings 2 + 3 (right column).\n * If too tight: ring 1 (back-left). If too loose: ring 4 (front-left).\n *\n * All share PLUG_H=3, plug inner bore=66mm (1.85mm+ wall, much beefier\n * than current 0.7mm).\n *\n * Test method: push each plug into the V1 0.5L mini collar/middle socket\n * (SOCKET_ID = 70.0). Pick the tightest one that seats fully without\n * cracking. Print at the same orientation/settings you use for V1 mini.\n */\n\nconst example: Example = {\n id: \"pressFitTestAll4\",\n icon: \"🎯\",\n name: \"Press-Fit Test — All 4 (0.5L mini, short)\",\n desc: \"All 4 test rings on one A1 Mini plate, all 11mm tall. Position identifies: back-right & front-right = recommended (radial 0.10/0.05). Back-left = 0.15 fallback. Front-left = 0.00 fallback.\",\n size: \"~153 × 153 × 11 mm\",\n time: \"~35 min\",\n generatorBody: `\n const { cylinder } = jscad.primitives;\n const { translate } = jscad.transforms;\n const { union, subtract } = jscad.booleans;\n\n function ring(plug_od, x_offset, y_offset) {\n const PLUG_H = 3;\n const HANDLE_H = 8; // just enough to grip\n const HANDLE_OD = 74;\n const PLUG_BORE = 66;\n const HANDLE_BORE = 68;\n const SEG = 96;\n\n const handle = cylinder({\n radius: HANDLE_OD/2, height: HANDLE_H, segments: SEG,\n center: [0, 0, HANDLE_H/2],\n });\n const handleBore = cylinder({\n radius: HANDLE_BORE/2, height: HANDLE_H + 0.2, segments: SEG,\n center: [0, 0, HANDLE_H/2],\n });\n\n const plug = cylinder({\n radius: plug_od/2, height: PLUG_H, segments: SEG,\n center: [0, 0, HANDLE_H + PLUG_H/2],\n });\n const plugBore = cylinder({\n radius: PLUG_BORE/2, height: PLUG_H + 0.2, segments: SEG,\n center: [0, 0, HANDLE_H + PLUG_H/2],\n });\n\n const single = union(\n subtract(handle, handleBore),\n subtract(plug, plugBore),\n );\n return translate([x_offset, y_offset, 0], single);\n }\n\n const X = 39.5;\n const Y = 39.5;\n\n const ring1 = ring(69.70, -X, Y); // back-left — radial 0.15mm\n const ring2 = ring(69.80, X, Y); // back-right — radial 0.10mm\n const ring3 = ring(69.90, X, -Y); // front-right — radial 0.05mm\n const ring4 = ring(70.00, -X, -Y); // front-left — radial 0.00mm\n\n return union(ring1, ring2, ring3, ring4);\n `,\n};\n\nexport default example;\n",[],[219,655],"5691a908-0500-11f1-84d1-42dde27851f2","phoneStand.ts","5691a9f8-0500-11f1-84d1-42dde27851f2",5,["D",1770563443558],"import type { Example } from \"./types.ts\";\n\nconst example: Example = {\n id: \"phoneStand\",\n icon: \"📱\",\n name: \"Phone Stand\",\n desc: \"Angled phone holder with cable slot — extrude + subtract\",\n size: \"70×50×60 mm\",\n time: \"~1 hr\",\n generatorBody: `\n const { cuboid, cylinder, roundedCuboid } = jscad.primitives;\n const { polygon } = jscad.primitives;\n const { subtract, union } = jscad.booleans;\n const { translate, rotateX } = jscad.transforms;\n const { extrudeLinear } = jscad.extrusions;\n\n // Base\n const base = roundedCuboid({ size: [70, 50, 6], center: [0, 0, 3], roundRadius: 2, segments: 16 });\n\n // Back support — angled\n const backSupport = translate([0, -15, 30],\n rotateX(-0.3,\n roundedCuboid({ size: [60, 5, 55], roundRadius: 1.5, segments: 8 })\n )\n );\n\n // Lip to hold the phone\n const lip = translate([0, -5, 5],\n roundedCuboid({ size: [60, 10, 10], roundRadius: 1, segments: 8 })\n );\n\n // Phone slot (cut into lip)\n const phoneSlot = translate([0, -8, 9],\n cuboid({ size: [55, 12, 8] })\n );\n\n // Cable routing hole through the back\n const cableHole = translate([0, -15, 8],\n rotateX(-0.3,\n cylinder({ radius: 5, height: 20, segments: 24 })\n )\n );\n\n // Anti-slip pads (small bumps on bottom)\n const pads = [[-25, -18, 0], [25, -18, 0], [-25, 18, 0], [25, 18, 0]].map(pos =>\n translate(pos, cylinder({ radius: 4, height: 1.5, segments: 16 }))\n );\n\n const body = union(base, backSupport, lip, ...pads);\n return subtract(body, phoneSlot, cableHole);\n `,\n};\n\nexport default example;\n",[],[219,663],"ad27bd5a-1fe7-11f1-9f0d-42dde27851f2","penHolder.ts","ad27be22-1fe7-11f1-9f0d-42dde27851f2",103,["D",1773521532809],"import type { Example } from \"./types.ts\";\n\nconst example: Example = {\n id: \"penHolder\",\n icon: \"✏️\",\n name: \"Pen Holder\",\n desc: \"Hexagonal pen holder with tapered base — union & subtract CSG\",\n size: \"50×50×80 mm\",\n time: \"~45 min\",\n generatorBody: `\n const { cylinder, cylinderElliptic } = jscad.primitives;\n const { subtract, union } = jscad.booleans;\n const { translate, rotateZ } = jscad.transforms;\n\n // Outer hex shell — 6 cylinders merged in a ring pattern\n const R = 22; // outer radius\n const H = 80; // total height\n const wall = 2; // wall thickness\n\n // Main outer cylinder\n const outerShell = cylinder({ radius: R, height: H, segments: 6 });\n\n // Hollow interior (subtract a slightly smaller hex)\n const innerCut = translate([0, 0, wall],\n cylinder({ radius: R - wall, height: H, segments: 6 })\n );\n\n // Tapered base ring for style\n const base = cylinderElliptic({\n startRadius: [R + 4, R + 4],\n endRadius: [R, R],\n height: 6,\n segments: 6,\n });\n const basePlaced = translate([0, 0, -(H / 2) + 3], base);\n\n // Internal divider — a thin cross to separate pens\n const dividerH = H - wall - 10;\n const div1 = translate([0, 0, -5],\n cylinder({ radius: 1, height: dividerH, segments: 4 })\n );\n\n // Combine everything\n const body = union(outerShell, basePlaced);\n const hollowed = subtract(body, innerCut);\n return union(hollowed, div1);\n `,\n};\n\nexport default example;\n",[],[219,671],"5af3db16-3f5b-11f1-9c96-42b51c65c3df","pco1881Pair.ts","5af3dbe8-3f5b-11f1-9c96-42b51c65c3df",152,["D",1776979702562],"import type { Example } from \"./types.ts\";\n\n/**\n * PCO-1881 thread pair — male (bottle neck stub) and female (cap) side by side.\n *\n * Dimensions follow ISBT PCO-1881 spec:\n * T (major OD) = 27.40 mm\n * E (root/minor OD) = 24.20 mm\n * pitch = 2.70 mm, single start, right-handed\n * spec calls for 650° thread travel (~1.8 turns); we use 2 full turns\n *\n * Thread synthesis approach (no native helical sweep in JSCAD 2.x):\n * - Define the axial cross-section of the thread as a 2D trapezoid\n * in the radial-axial plane (x = radial, y = axial).\n * - Extrude it a tiny amount tangentially, then rotateX to orient\n * the extrusion direction along the world's tangent axis.\n * - Stamp a copy at each (theta_i, z_i) along the helix.\n * - hullChain between consecutive slabs to get a continuous thread.\n *\n * PRINT NOTE:\n * Print the CAP ceiling-down (flip in slicer). In the model, both parts are\n * oriented in \"use\" position so the threads mate visually.\n */\n\nconst example: Example = {\n id: \"pco1881Pair\",\n icon: \"🍾\",\n name: \"PCO-1881 Thread Pair\",\n desc: \"Male bottle neck stub & matching female cap. Standard soda-bottle thread (T=27.4, pitch=2.7). 0.2mm radial clearance. Tune by editing clearance.\",\n size: \"~52 × 32 × 10 mm\",\n time: \"~25 min\",\n generatorBody: `\n const { cylinder, polygon } = jscad.primitives;\n const { translate, rotateX, rotateZ } = jscad.transforms;\n const { union, subtract } = jscad.booleans;\n const { hullChain } = jscad.hulls;\n const { extrudeLinear } = jscad.extrusions;\n\n // ===== PCO-1881 nominal dimensions (ISBT standard) =====\n const T = 27.40; // thread major diameter\n const E = 24.20; // thread root (minor) diameter\n const pitch = 2.70; // axial rise per 360°\n const turns = 2.0; // slightly beyond the 650° spec (~1.8)\n\n const majorR = T / 2; // 13.70\n const minorR = E / 2; // 12.10\n const threadDepth = majorR - minorR; // 1.60 mm\n\n // Printing clearance (radial, each side). FDM is loose — start with 0.2–0.3 mm.\n const clearance = 0.20;\n\n // ===== Thread profile (trapezoid, axial cross-section) =====\n // 30° included flank angle (15° per side from axis-normal). Slightly steeper\n // than the 40° ISBT flank spec — better for FDM (thicker root, crisper peak).\n const flankHalf = (30 / 2) * Math.PI / 180;\n const tipW = 0.30; // axial width at thread tip\n const rootW = tipW + 2 * threadDepth * Math.tan(flankHalf); // axial width at root\n\n // ===== Universal thread ridge builder =====\n // rootR = where the thread roots INTO the cylinder (the wider base)\n // tipR = where the thread tip sticks to (the narrower peak)\n // tipR > rootR → male (outward ridge)\n // tipR < rootR → female (inward ridge)\n function makeThread(rootR, tipR, pitch, turns, segPerTurn) {\n segPerTurn = segPerTurn || 60;\n const d = 0.4; // tangential slab thickness\n const outward = tipR > rootR;\n\n // Polygon points in the (radial, axial) plane — kept CCW in both cases\n // so the resulting prism has consistent outward normals.\n const points = outward\n ? [\n [rootR, -rootW / 2],\n [tipR, -tipW / 2],\n [tipR, tipW / 2],\n [rootR, rootW / 2],\n ]\n : [\n [tipR, -tipW / 2],\n [rootR, -rootW / 2],\n [rootR, rootW / 2],\n [tipR, tipW / 2],\n ];\n\n function slab(theta, z) {\n // 1) Polygon in XY (x=radial, y=axial), extrude along Z by d.\n // Prism now: x=radial, y=axial, z ∈ [0, d] (will become tangential).\n let s = extrudeLinear({ height: d }, polygon({ points: points }));\n // 2) rotateX(+90°): (x,y,z) → (x, -z, y). So prism-z (tangential) maps\n // to world -Y and prism-y (axial) maps to world Z.\n s = rotateX(Math.PI / 2, s);\n // 3) Recenter tangentially so the slab spans y ∈ [-d/2, +d/2].\n s = translate([0, d / 2, 0], s);\n // 4) Swing around the axis to this helix angle, then lift to helix height.\n s = rotateZ(theta, s);\n s = translate([0, 0, z], s);\n return s;\n }\n\n const totalSegs = Math.ceil(segPerTurn * turns);\n const slabs = [];\n for (let i = 0; i <= totalSegs; i++) {\n const frac = i / segPerTurn;\n slabs.push(slab(frac * 2 * Math.PI, frac * pitch));\n }\n return hullChain.apply(null, slabs);\n }\n\n // ===== MALE: bottle-neck stub =====\n const baseT = 1.5; // flange thickness (print adhesion)\n const threadStart = 0.8; // axial lead-in above flange\n const neckHeight = turns * pitch + threadStart + 1.0;\n\n const flange = cylinder({\n radius: majorR + 3, // wider than thread for a real \"support ring\"-ish look\n height: baseT,\n segments: 96,\n center: [0, 0, baseT / 2],\n });\n const neckCore = cylinder({\n radius: minorR + 0.02, // hair larger than minorR, closes the thread-root seam\n height: neckHeight,\n segments: 96,\n center: [0, 0, baseT + neckHeight / 2],\n });\n const maleThread = translate(\n [0, 0, baseT + threadStart],\n makeThread(minorR, majorR, pitch, turns),\n );\n const male = union(flange, neckCore, maleThread);\n\n // ===== FEMALE: matching cap =====\n // Cap's thread ROOTS live at capBoreR (= majorR + clearance).\n // Cap's thread TIPS point inward to capTipR (= minorR + clearance).\n const capBoreR = majorR + clearance; // 13.90 — the cap's inner \"bore\" (between threads)\n const capTipR = minorR + clearance; // 12.30 — where the cap's thread tips reach\n const wallT = 1.8;\n const capOuterR = capBoreR + wallT; // 15.70\n const ceilingT = 1.5;\n const capH = turns * pitch + ceilingT + 1.0;\n\n const capBlank = cylinder({\n radius: capOuterR,\n height: capH,\n segments: 96,\n center: [0, 0, capH / 2],\n });\n // Blind bore from the bottom — open end at z=0, ceiling at z=capH\n const boreDepth = capH - ceilingT;\n const capBore = cylinder({\n radius: capBoreR,\n height: boreDepth + 0.1,\n segments: 96,\n center: [0, 0, boreDepth / 2 - 0.05],\n });\n const capShell = subtract(capBlank, capBore);\n // Female threads inside the bore. Start 0.6mm above the rim for a lead-in.\n const capThreads = translate(\n [0, 0, 0.6],\n makeThread(capBoreR, capTipR, pitch, turns),\n );\n const cap = union(capShell, capThreads);\n\n // ===== Side-by-side layout (male left, cap right) =====\n return union(\n translate([-18, 0, 0], male),\n translate([ 18, 0, 0], cap),\n );\n `,\n};\n\nexport default example;\n",[],[219,679],"81281428-102b-11f1-9a0f-42dde27851f2","owalaSleeveFuzzy.ts","9a947294-0f54-11f1-922e-42dde27851f2",94,["D",1771791446153],"import type { Example } from \"./types.ts\";\n\nconst example: Example = {\n id: \"owalaSleeveFuzzy\",\n icon: \"🧸\",\n name: \"Owala Sleeve (Fuzzy Skin)\",\n desc: \"Sleeve for Owala bottle bottom, extra clearance for fuzzy skin. 29→31mm bowl-curve taper over first 4mm. No base. 0.6mm clearance.\",\n size: \"~34 × 34 × 16.25mm\",\n time: \"~12 min\",\n generatorBody: `\n const { cylinder } = jscad.primitives;\n const { subtract, union } = jscad.booleans;\n const { translate } = jscad.transforms;\n const { hull } = jscad.hulls;\n\n const seg = 96;\n\n // Clearance: -0.2mm on diameter for tight fit (squeeze on while cooling)\n const clearance = -0.2;\n const botID = 28 + clearance; // 27.8mm inner dia at base\n const topID = 30.4927 + clearance; // 30.29mm inner dia at 4mm+\n const wallT = 0.4; // matches nozzle width for vase mode\n const taperH = 4;\n const totalH = 16.25;\n const straightH = totalH - taperH;\n\n const botIR = botID / 2;\n const topIR = topID / 2;\n const botOR = botIR + wallT;\n const topOR = topIR + wallT;\n\n // ─── Taper section (0 to taperH): bowl-curve loft ───\n const slices = 12;\n const taperRings = [];\n for (let i = 0; i <= slices; i++) {\n const t = i / slices;\n // Bowl shape: expands quickly at bottom, flattens toward top\n const s = Math.sqrt(2 * t - t * t);\n const ir = botIR + (topIR - botIR) * s;\n const or_ = ir + wallT;\n const z = t * taperH;\n const ringH = 0.01;\n taperRings.push(\n subtract(\n cylinder({ radius: or_, height: ringH, center: [0, 0, z], segments: seg }),\n cylinder({ radius: ir, height: ringH + 0.1, center: [0, 0, z], segments: seg })\n )\n );\n }\n // Hull consecutive pairs\n const taperParts = [];\n for (let i = 0; i < taperRings.length - 1; i++) {\n taperParts.push(hull(taperRings[i], taperRings[i + 1]));\n }\n\n // ─── Straight section (taperH to totalH) ───\n const straightZ = taperH + straightH / 2;\n const straight = subtract(\n cylinder({ radius: topOR, height: straightH, center: [0, 0, straightZ], segments: seg }),\n cylinder({ radius: topIR, height: straightH + 0.1, center: [0, 0, straightZ], segments: seg })\n );\n\n return union(...taperParts, straight);\n `,\n};\n\nexport default example;\n",[],[219,687],"7de79130-102b-11f1-81b5-42dde27851f2","owalaSleeve.ts","656cfc08-0f54-11f1-a9d9-42dde27851f2",93,["D",1771791440699],"import type { Example } from \"./types.ts\";\n\nconst example: Example = {\n id: \"owalaSleeveVase\",\n icon: \"🧦\",\n name: \"Owala Sleeve (Vase Mode)\",\n desc: \"Spiral vase mode sleeve for Owala bottle bottom. 29→31mm bowl-curve taper over first 4mm, then straight to 16.25mm. No base — slicer handles bottom layers in vase mode. 0.3mm clearance.\",\n size: \"~34 × 34 × 16.25mm\",\n time: \"~12 min\",\n generatorBody: `\n const { cylinder } = jscad.primitives;\n const { subtract, union } = jscad.booleans;\n const { translate } = jscad.transforms;\n const { hull } = jscad.hulls;\n\n const seg = 96;\n\n // Clearance: -0.2mm on diameter for tight fit (squeeze on while cooling)\n const clearance = -0.2;\n const botID = 28 + clearance; // 27.8mm inner dia at base\n const topID = 30.4927 + clearance; // 30.29mm inner dia at 4mm+\n const wallT = 0.4; // matches nozzle width for vase mode\n const taperH = 4; // curved transition zone\n const totalH = 16.25;\n const straightH = totalH - taperH;\n\n const botIR = botID / 2;\n const topIR = topID / 2;\n const botOR = botIR + wallT;\n const topOR = topIR + wallT;\n\n // ─── Taper section (0 to taperH): bowl-curve loft ───\n const slices = 12;\n const taperRings = [];\n for (let i = 0; i <= slices; i++) {\n const t = i / slices;\n // Bowl shape: expands quickly at bottom, flattens toward top\n const s = Math.sqrt(2 * t - t * t);\n const ir = botIR + (topIR - botIR) * s;\n const or_ = ir + wallT;\n const z = t * taperH;\n const ringH = 0.01;\n taperRings.push(\n subtract(\n cylinder({ radius: or_, height: ringH, center: [0, 0, z], segments: seg }),\n cylinder({ radius: ir, height: ringH + 0.1, center: [0, 0, z], segments: seg })\n )\n );\n }\n // Hull consecutive pairs\n const taperParts = [];\n for (let i = 0; i < taperRings.length - 1; i++) {\n taperParts.push(hull(taperRings[i], taperRings[i + 1]));\n }\n\n // ─── Straight section (taperH to totalH) ───\n const straightZ = taperH + straightH / 2;\n const straight = subtract(\n cylinder({ radius: topOR, height: straightH, center: [0, 0, straightZ], segments: seg }),\n cylinder({ radius: topIR, height: straightH + 0.1, center: [0, 0, straightZ], segments: seg })\n );\n\n return union(...taperParts, straight);\n `,\n};\n\nexport default example;\n",[],[219,695],"951251ce-09d2-11f1-8cb4-42dde27851f2","orangeCup.ts","43b2c1f2-09d1-11f1-90a2-42dde27851f2",20,["D",1771093547390],"import type { Example } from \"./types.ts\";\n\nconst example: Example = {\n id: \"orangeCup\",\n icon: \"🍊\",\n name: \"Orange Cup with Lid\",\n desc: \"Orange-shaped cup with domed lid & leaf — 5 mm walls, 80/20 split, orange-peel texture\",\n size: \"50×50×60 mm\",\n time: \"~2 hrs\",\n generatorBody: `\n const { sphere, cylinder, cuboid } = jscad.primitives;\n const { subtract, union, intersect } = jscad.booleans;\n const { translate, scale, rotateX, rotateZ, rotateY } = jscad.transforms;\n const { hull } = jscad.hulls;\n\n // ===== Dimensions =====\n const outerR = 25; // 50mm diameter\n const wall = 5; // 5mm wall thickness\n const innerR = outerR - wall;\n const totalH = 60; // total height\n const cupH = totalH * 0.8; // 48mm — 80% is the cup\n const lidH = totalH * 0.2; // 12mm — 20% is the lid\n const seg = 48;\n\n // ===== CUP BODY (80% of the orange) =====\n // Outer shell: sphere clipped to cup height\n const outerSphere = sphere({ radius: outerR, segments: seg });\n const clipBox = translate([0, 0, cupH / 2],\n cuboid({ size: [outerR * 3, outerR * 3, cupH] })\n );\n const outerCup = intersect(outerSphere, clipBox);\n\n // Inner cavity — hollowed out with 5mm walls and 5mm floor\n const innerSphere = sphere({ radius: innerR, segments: seg });\n const innerClip = translate([0, 0, (cupH + wall) / 2 + wall / 2],\n cuboid({ size: [innerR * 3, innerR * 3, cupH] })\n );\n const innerCavity = intersect(innerSphere, innerClip);\n\n // Also carve a cylindrical cavity for the upper straight portion\n // where the sphere curve flattens near the rim\n const cylCavity = translate([0, 0, wall + (cupH - wall) / 2],\n cylinder({ radius: innerR, height: cupH - wall, segments: seg })\n );\n const fullCavity = union(innerCavity, cylCavity);\n\n // Make sure cavity doesn't poke through the bottom — clip above floor\n const cavityClip = translate([0, 0, wall + (cupH - wall + 5) / 2],\n cuboid({ size: [outerR * 3, outerR * 3, cupH - wall + 5] })\n );\n const clippedCavity = intersect(fullCavity, cavityClip);\n\n const cupBody = subtract(outerCup, clippedCavity);\n\n // ===== LID (top 20% dome of the orange) =====\n // Dome: ellipsoid scaled to the lid height, sitting on top of the cup\n const lidSphereOuter = translate([0, 0, cupH],\n scale([1, 1, lidH / outerR],\n sphere({ radius: outerR, segments: seg })\n )\n );\n const lidClipBox = translate([0, 0, cupH + lidH / 2],\n cuboid({ size: [outerR * 3, outerR * 3, lidH + 0.1] })\n );\n const lidOuter = intersect(lidSphereOuter, lidClipBox);\n\n const lidSphereInner = translate([0, 0, cupH],\n scale([1, 1, lidH / outerR],\n sphere({ radius: innerR, segments: seg })\n )\n );\n const lidInner = intersect(lidSphereInner, lidClipBox);\n const lidShell = subtract(lidOuter, lidInner);\n\n // Lip ring — sits just inside the cup rim so the lid stays put\n const lipOuter = translate([0, 0, cupH - 2],\n cylinder({ radius: innerR - 0.3, height: 4, segments: seg })\n );\n const lipInner = translate([0, 0, cupH - 2.5],\n cylinder({ radius: innerR - wall, height: 5, segments: seg })\n );\n const lidLip = subtract(lipOuter, lipInner);\n\n const lid = union(lidShell, lidLip);\n\n // ===== LEAF on top of lid =====\n const leafBase = translate([0, 0, cupH + lidH],\n scale([1, 0.4, 0.15],\n sphere({ radius: 8, segments: 24 })\n )\n );\n const leafTip = translate([10, 0, cupH + lidH + 1],\n scale([1, 0.3, 0.1],\n sphere({ radius: 5, segments: 24 })\n )\n );\n const leaf = hull(leafBase, leafTip);\n\n // Small stem nub\n const stem = translate([0, 0, cupH + lidH - 1],\n cylinder({ radius: 1.5, height: 4, segments: 12 })\n );\n\n // ===== ORANGE PEEL TEXTURE =====\n // Dense grid of small bumps on the surface to mimic real orange skin.\n // We place tiny spheres just outside the surface, then union them on.\n const bumps = [];\n const bumpR = 1.0; // radius of each bump\n const bumpProtrusion = 0.45; // how far bump sticks out\n const surfaceR = outerR + bumpProtrusion - bumpR; // center of bumps\n\n // Distribute bumps using latitude/longitude grid\n const latSteps = 14; // rows from bottom to top\n const baseLonSteps = 28; // bumps around equator\n\n for (let lat = 1; lat < latSteps; lat++) {\n const t = lat / latSteps;\n const phi = t * Math.PI * 0.55; // only go up ~100° (covers the sphere face)\n const z = outerR * Math.cos(phi);\n const ringR = outerR * Math.sin(phi);\n const circumference = 2 * Math.PI * ringR;\n const numBumps = Math.max(6, Math.round(baseLonSteps * (ringR / outerR)));\n\n for (let lon = 0; lon < numBumps; lon++) {\n // Offset every other row for organic feel\n const lonOffset = (lat % 2) * (Math.PI / numBumps);\n const theta = (lon / numBumps) * Math.PI * 2 + lonOffset;\n\n const bx = surfaceR * Math.sin(phi) * Math.cos(theta);\n const by = surfaceR * Math.sin(phi) * Math.sin(theta);\n const bz = surfaceR * Math.cos(phi);\n\n // Only add bumps within the total height of the model\n if (bz >= -1 && bz <= totalH + 2) {\n bumps.push(\n translate([bx, by, bz],\n sphere({ radius: bumpR, segments: 8 })\n )\n );\n }\n }\n }\n\n // Also add 8 subtle segment grooves (the natural orange divisions)\n const grooves = [];\n for (let i = 0; i < 8; i++) {\n const angle = (i / 8) * Math.PI * 2;\n const gx = Math.cos(angle) * outerR;\n const gy = Math.sin(angle) * outerR;\n grooves.push(\n translate([gx, gy, totalH / 2],\n rotateZ(angle,\n scale([0.25, 1, 1],\n cylinder({ radius: 0.6, height: totalH + 10, segments: 6 })\n )\n )\n )\n );\n }\n\n // ===== ASSEMBLE =====\n const smoothBody = union(cupBody, lid, leaf, stem);\n const texturedBody = union(smoothBody, ...bumps);\n return subtract(texturedBody, ...grooves);\n `,\n};\n\nexport default example;\n",[],[219,703],"49832052-0500-11f1-8678-42dde27851f2","mountingPlate.ts","49832124-0500-11f1-8678-42dde27851f2",["D",1770563421654],"import type { Example } from \"./types.ts\";\n\nconst example: Example = {\n id: \"mountingPlate\",\n icon: \"🔩\",\n name: \"Mounting Plate\",\n desc: \"Rounded plate with countersunk bolt holes — real CSG subtract\",\n size: \"60×40×5 mm\",\n time: \"~25 min\",\n generatorBody: `\n const { cuboid, cylinder, roundedCuboid } = jscad.primitives;\n const { subtract, union } = jscad.booleans;\n const { translate } = jscad.transforms;\n\n // Base plate with rounded edges\n const plate = roundedCuboid({ size: [60, 40, 5], roundRadius: 3, segments: 16 });\n\n // Bolt hole positions\n const holePositions = [[-22, -12, 0], [22, -12, 0], [-22, 12, 0], [22, 12, 0]];\n\n // Create through-holes + countersinks\n const holes = holePositions.map(pos => {\n const throughHole = translate(pos,\n cylinder({ radius: 2.1, height: 10, segments: 24 })\n );\n const countersink = translate([pos[0], pos[1], 1.5],\n cylinder({ radius: 4, height: 2.5, segments: 24 })\n );\n return union(throughHole, countersink);\n });\n\n // Center slot\n const slot = cuboid({ size: [20, 8, 10] });\n\n // Subtract all holes and slot from plate\n return subtract(plate, ...holes, slot);\n `,\n};\n\nexport default example;\n",[],[219,711],"d792c018-0a74-11f1-853b-42dde27851f2","microgreensMesh.ts","d792c0d6-0a74-11f1-853b-42dde27851f2",21,["D",1771163237431],"import type { Example } from \"./types.ts\";\n\nconst example: Example = {\n id: \"microgreensMesh\",\n icon: \"🌱\",\n name: \"Microgreens Mesh Table\",\n desc: \"Mini hydroponic platform — mesh top for paper towel + root growth, legs for water clearance. Print upside-down!\",\n size: \"65×25×27 mm\",\n time: \"~20 min\",\n generatorBody: `\n const { cuboid } = jscad.primitives;\n const { union } = jscad.booleans;\n const { translate } = jscad.transforms;\n\n const tableW = 65, tableD = 25, plateThick = 1.5;\n const legH = 25, legW = 3, legD = 3;\n const railH = 2.5, railW = 1.5;\n const holeSize = 4, wallSize = 1.5;\n const rimW = wallSize;\n\n const parts = [];\n\n // ─── Mesh Plate Frame ───\n // Top/bottom rim\n parts.push(translate([0, -tableD/2 + rimW/2, plateThick/2],\n cuboid({ size: [tableW, rimW, plateThick] })));\n parts.push(translate([0, tableD/2 - rimW/2, plateThick/2],\n cuboid({ size: [tableW, rimW, plateThick] })));\n // Left/right rim\n parts.push(translate([-tableW/2 + rimW/2, 0, plateThick/2],\n cuboid({ size: [rimW, tableD - 2*rimW, plateThick] })));\n parts.push(translate([tableW/2 - rimW/2, 0, plateThick/2],\n cuboid({ size: [rimW, tableD - 2*rimW, plateThick] })));\n\n // ─── Internal Grid Bars ───\n const innerW = tableW - 2*rimW;\n const innerD = tableD - 2*rimW;\n const spacing = holeSize + wallSize;\n\n // Horizontal bars (X-direction)\n const numHolesY = Math.floor((innerD - wallSize) / spacing);\n const gridStartY = -((numHolesY - 1) * spacing) / 2;\n for (let i = 0; i <= numHolesY; i++) {\n const barY = gridStartY - spacing/2 + i * spacing;\n if (Math.abs(barY) < innerD/2 - wallSize/2) {\n parts.push(translate([0, barY, plateThick/2],\n cuboid({ size: [innerW, wallSize, plateThick] })));\n }\n }\n // Vertical bars (Y-direction)\n const numHolesX = Math.floor((innerW - wallSize) / spacing);\n const gridStartX = -((numHolesX - 1) * spacing) / 2;\n for (let i = 0; i <= numHolesX; i++) {\n const barX = gridStartX - spacing/2 + i * spacing;\n if (Math.abs(barX) < innerW/2 - wallSize/2) {\n parts.push(translate([barX, 0, plateThick/2],\n cuboid({ size: [wallSize, innerD, plateThick] })));\n }\n }\n\n // ─── Legs (4 corners) ───\n const legOffX = tableW/2 - legW/2 - 0.5;\n const legOffY = tableD/2 - legD/2 - 0.5;\n const legCZ = plateThick + legH/2;\n parts.push(translate([-legOffX, -legOffY, legCZ], cuboid({ size: [legW, legD, legH] })));\n parts.push(translate([legOffX, -legOffY, legCZ], cuboid({ size: [legW, legD, legH] })));\n parts.push(translate([-legOffX, legOffY, legCZ], cuboid({ size: [legW, legD, legH] })));\n parts.push(translate([legOffX, legOffY, legCZ], cuboid({ size: [legW, legD, legH] })));\n\n // ─── Side Rails (connect legs) ───\n const railCZ = plateThick + legH - railH/2 - 0.5;\n parts.push(translate([0, -legOffY, railCZ], cuboid({ size: [tableW - 2*legW, railW, railH] })));\n parts.push(translate([0, legOffY, railCZ], cuboid({ size: [tableW - 2*legW, railW, railH] })));\n parts.push(translate([-legOffX, 0, railCZ], cuboid({ size: [railW, tableD - 2*legD, railH] })));\n parts.push(translate([legOffX, 0, railCZ], cuboid({ size: [railW, tableD - 2*legD, railH] })));\n\n return union(...parts);\n `,\n};\n\nexport default example;\n",[],[219,718],"23226690-0ac1-11f1-a4b3-42dde27851f2","microgreensHoneycomb.ts","d9d9fe3c-0a7d-11f1-9e85-42dde27851f2",40,["D",1771196005951],"import type { Example } from \"./types.ts\";\n\nconst example: Example = {\n id: \"microgreensHoneycomb\",\n icon: \"🐝\",\n name: \"Microgreens Honeycomb Disc\",\n desc: \"Annular honeycomb mesh disc for PET bottle hydro — 29mm ID, 130mm OD, hex pattern, 1mm bars, 1mm tall.\",\n size: \"Ø130 × Ø29 × 1mm\",\n time: \"~30 min\",\n generatorBody: `\n const { cylinder, cuboid } = jscad.primitives;\n const { union, subtract } = jscad.booleans;\n const { translate, rotateZ } = jscad.transforms;\n\n // ─── Dimensions ───\n const innerR = 14.5; // 29mm ID\n const outerR = 65; // 130mm OD\n const innerSolidW = 3; // inner solid ring width\n const outerSolidW = 4; // outer solid ring width\n const meshH = 1; // mesh height\n const rimH = 1; // outer rim (flush)\n const holeSize = 3; // hex hole flat-to-flat\n const barW = 1; // bar width\n const seg = 72;\n\n const innerSolidR = innerR + innerSolidW;\n const outerSolidR = outerR - outerSolidW;\n\n // Hex geometry: pointy-top orientation\n // Inscribed radius (flat-to-flat / 2) = desired hole / 2 + half a bar\n // hexR = circumradius = inscribed / cos(30°) = inscribed / (√3/2)\n const inscribed = (holeSize + barW) / 2;\n const hexR = inscribed / (Math.sqrt(3) / 2);\n\n // Grid spacing\n const colSpacing = hexR * Math.sqrt(3); // horizontal\n const rowSpacing = hexR * 1.5; // vertical\n\n const parts = [];\n\n // ─── Solid Outer Ring ───\n parts.push(subtract(\n cylinder({ radius: outerR, height: rimH, center: [0, 0, rimH / 2], segments: seg }),\n cylinder({ radius: outerSolidR, height: rimH + 2, center: [0, 0, rimH / 2], segments: seg })\n ));\n\n // ─── Solid Inner Ring ───\n parts.push(subtract(\n cylinder({ radius: innerSolidR, height: meshH, center: [0, 0, meshH / 2], segments: seg }),\n cylinder({ radius: innerR, height: meshH + 2, center: [0, 0, meshH / 2], segments: seg })\n ));\n\n // ─── Honeycomb Mesh ───\n // Track placed edges by key to avoid duplicates\n const placed = new Set();\n\n const nCols = Math.ceil(outerSolidR / colSpacing) + 2;\n const nRows = Math.ceil(outerSolidR / rowSpacing) + 2;\n\n for (let row = -nRows; row <= nRows; row++) {\n for (let col = -nCols; col <= nCols; col++) {\n // Hex center\n const cx = col * colSpacing + (Math.abs(row) % 2 === 1 ? colSpacing / 2 : 0);\n const cy = row * rowSpacing;\n\n // Quick bounds check — skip hexes far outside annulus\n const cr2 = cx * cx + cy * cy;\n const cr = Math.sqrt(cr2);\n if (cr > outerSolidR + hexR * 2) continue;\n if (cr < innerSolidR - hexR * 2) continue;\n\n // Place 6 edges of this hex\n for (let i = 0; i < 6; i++) {\n // Pointy-top: first vertex at 30°\n const a1 = (Math.PI / 6) + i * (Math.PI / 3);\n const a2 = (Math.PI / 6) + (i + 1) * (Math.PI / 3);\n const vx1 = cx + hexR * Math.cos(a1);\n const vy1 = cy + hexR * Math.sin(a1);\n const vx2 = cx + hexR * Math.cos(a2);\n const vy2 = cy + hexR * Math.sin(a2);\n\n // Deduplicate: round midpoint to create a key\n const mx = Math.round((vx1 + vx2) / 2 * 10);\n const my = Math.round((vy1 + vy2) / 2 * 10);\n const key = mx + ',' + my;\n if (placed.has(key)) continue;\n placed.add(key);\n\n // Check if midpoint is in annular mesh zone\n const midX = (vx1 + vx2) / 2;\n const midY = (vy1 + vy2) / 2;\n const mr2 = midX * midX + midY * midY;\n // Extend slightly into solid rings for overlap\n if (mr2 > (outerSolidR + barW) * (outerSolidR + barW)) continue;\n if (mr2 < (innerSolidR - barW) * (innerSolidR - barW)) continue;\n\n // Bar direction and angle\n const dx = vx2 - vx1;\n const dy = vy2 - vy1;\n const edgeLen = Math.sqrt(dx * dx + dy * dy);\n const angle = Math.atan2(dy, dx);\n\n parts.push(\n translate([midX, midY, meshH / 2],\n rotateZ(angle,\n cuboid({ size: [edgeLen + barW * 0.5, barW, meshH] })\n )\n )\n );\n }\n }\n }\n\n return union(...parts);\n `,\n};\n\nexport default example;\n",[],[219,726],"1c6b703a-0ac1-11f1-a8a9-42dde27851f2","microgreensDonut.ts","a15e5860-0a7c-11f1-9e68-42dde27851f2",38,["D",1771195994688],"import type { Example } from \"./types.ts\";\n\nconst example: Example = {\n id: \"microgreensDonut\",\n icon: \"🍩\",\n name: \"Microgreens Donut Disc\",\n desc: \"Annular mesh disc for PET bottle hydro — 29mm ID fits bottle neck, 130mm OD. Solid inner/outer rings, 1mm bars, 1mm tall.\",\n size: \"Ø130 × Ø29 × 1mm\",\n time: \"~25 min\",\n generatorBody: `\n const { cylinder, cuboid } = jscad.primitives;\n const { union, subtract } = jscad.booleans;\n const { translate } = jscad.transforms;\n\n // ─── Dimensions ───\n const innerR = 14.5; // 29mm inner diameter\n const outerR = 65; // 130mm outer diameter\n const innerSolidW = 3; // inner solid ring width\n const outerSolidW = 4; // outer solid ring width\n const meshH = 1; // mesh plate height\n const rimH = 1; // outer rim height (flush)\n const holeSize = 3; // mesh hole size\n const barW = 1; // mesh bar width\n const seg = 72; // cylinder segments\n\n const innerSolidR = innerR + innerSolidW;\n const outerSolidR = outerR - outerSolidW;\n const pitch = holeSize + barW;\n\n const parts = [];\n\n // ─── Solid Outer Ring ───\n parts.push(subtract(\n cylinder({ radius: outerR, height: rimH, center: [0, 0, rimH / 2], segments: seg }),\n cylinder({ radius: outerSolidR, height: rimH + 2, center: [0, 0, rimH / 2], segments: seg })\n ));\n\n // ─── Solid Inner Ring ───\n parts.push(subtract(\n cylinder({ radius: innerSolidR, height: meshH, center: [0, 0, meshH / 2], segments: seg }),\n cylinder({ radius: innerR, height: meshH + 2, center: [0, 0, meshH / 2], segments: seg })\n ));\n\n // ─── Mesh Grid Bars ───\n // Bars start FROM the inner solid ring edge and go TO the outer solid ring edge.\n // This ensures full overlap with both rings (no gaps).\n\n // Horizontal bars (along X, spaced in Y)\n for (let y = -outerSolidR; y <= outerSolidR; y += pitch) {\n const y2 = y * y;\n if (y2 >= outerSolidR * outerSolidR) continue;\n const xOuter = Math.sqrt(outerSolidR * outerSolidR - y2);\n\n if (y2 < innerSolidR * innerSolidR) {\n const xInner = Math.sqrt(innerSolidR * innerSolidR - y2);\n // Extend bars to overlap: start inside inner ring, end inside outer ring\n const x0 = xInner - barW;\n const x1 = xOuter + barW;\n const segLen = x1 - x0;\n if (segLen > barW) {\n parts.push(translate([-(x0 + x1) / 2, y, meshH / 2],\n cuboid({ size: [segLen, barW, meshH] })));\n parts.push(translate([(x0 + x1) / 2, y, meshH / 2],\n cuboid({ size: [segLen, barW, meshH] })));\n }\n } else {\n const x0 = -xOuter - barW;\n const x1 = xOuter + barW;\n const segLen = x1 - x0;\n if (segLen > barW) {\n parts.push(translate([0, y, meshH / 2],\n cuboid({ size: [segLen, barW, meshH] })));\n }\n }\n }\n\n // Vertical bars (along Y, spaced in X)\n for (let x = -outerSolidR; x <= outerSolidR; x += pitch) {\n const x2 = x * x;\n if (x2 >= outerSolidR * outerSolidR) continue;\n const yOuter = Math.sqrt(outerSolidR * outerSolidR - x2);\n\n if (x2 < innerSolidR * innerSolidR) {\n const yInner = Math.sqrt(innerSolidR * innerSolidR - x2);\n const y0 = yInner - barW;\n const y1 = yOuter + barW;\n const segLen = y1 - y0;\n if (segLen > barW) {\n parts.push(translate([x, -(y0 + y1) / 2, meshH / 2],\n cuboid({ size: [barW, segLen, meshH] })));\n parts.push(translate([x, (y0 + y1) / 2, meshH / 2],\n cuboid({ size: [barW, segLen, meshH] })));\n }\n } else {\n const y0 = -yOuter - barW;\n const y1 = yOuter + barW;\n const segLen = y1 - y0;\n if (segLen > barW) {\n parts.push(translate([x, 0, meshH / 2],\n cuboid({ size: [barW, segLen, meshH] })));\n }\n }\n }\n\n return union(...parts);\n `,\n};\n\nexport default example;\n",[],[219,734],"f2854aec-04fe-11f1-b891-42dde27851f2","kratky.ts","019c3dc4-fdf2-76fa-8252-85f7a6562ee9",["D",1770562846100],"import type { Example } from \"./types.ts\";\n\n/**\n * Kratky Hydroponic Planter — v4 (LatheGeometry approach)\n *\n * Each rotationally-symmetric part uses LatheGeometry with a clean\n * cross-section profile. This gives correct normals, no z-fighting,\n * and no ExtrudeGeometry winding issues.\n *\n * Components:\n * 1. Reservoir bucket (single LatheGeometry)\n * 2. Lid ring (single LatheGeometry)\n * 3. Net pot basket (single LatheGeometry)\n * 4. Fill port, water level indicator, handles (simple primitives)\n */\nconst kratky: Example = {\n id: \"planter\",\n icon: \"🌿\",\n name: \"Kratky Hydroponic Planter\",\n desc: \"Functional deep water culture setup — max build volume\",\n size: \"160 × 160 × 170 mm\",\n time: \"~8 hrs\",\n generatorBody: `\n const S = 64;\n const V2 = (x, y) => new THREE.Vector2(x, y);\n const parts = [];\n\n // ═══════════════════════════════════════════\n // 1. RESERVOIR — tapered bucket\n // ═══════════════════════════════════════════\n // Cross-section profile (right half, revolved around Y axis)\n //\n // rTopO rTopI\n // rim ─┐ ┌─ rim inner\n // │ │\n // outer │ │ inner wall\n // wall │ │\n // │ │\n // bot ─┘──────┘─ bot inner\n // rBotO rBotI\n //\n const wall = 3;\n const rBotO = 65, rTopO = 78;\n const rBotI = rBotO - wall, rTopI = rTopO - wall;\n const resH = 112;\n const rimW = 3, rimH = 4;\n\n const resProfile = [\n // Start at inner bottom center, trace clockwise\n V2(2, wall), // near-center inner bottom (avoid axis)\n V2(rBotI, wall), // inner wall base\n V2(rTopI, resH), // inner wall top\n V2(rTopI, resH + rimH), // inner rim top\n V2(rTopO + rimW, resH + rimH), // outer rim top (overhang)\n V2(rTopO + rimW, resH), // outer rim bottom\n V2(rTopO, resH), // outer wall top\n V2(rBotO, 0), // outer wall base\n V2(2, 0), // near-center outer bottom\n ];\n parts.push(new THREE.LatheGeometry(resProfile, S));\n\n // Foot ring for stability\n const footProfile = [\n V2(rBotO - 5, 0),\n V2(rBotO - 5, -3),\n V2(rBotO + 3, -3),\n V2(rBotO + 3, 0),\n ];\n parts.push(new THREE.LatheGeometry(footProfile, S));\n\n // Decorative ridges (3 torus rings on outer wall)\n for (let i = 0; i < 3; i++) {\n const ry = 22 + i * 28;\n const t = ry / resH;\n const rAtY = rBotO + (rTopO - rBotO) * t;\n const ridge = new THREE.TorusGeometry(rAtY + 1.5, 1.5, 8, S);\n ridge.rotateX(Math.PI / 2);\n ridge.translate(0, ry, 0);\n parts.push(ridge);\n }\n\n // ═══════════════════════════════════════════\n // 2. LID — flat ring with center hole + inner lip\n // ═══════════════════════════════════════════\n const lidGap = 2;\n const lidY = resH + rimH + lidGap;\n const lidH = 6;\n const netHoleR = 35;\n const lipDrop = 8;\n\n // Profile: ring from net-pot hole to outer edge, with lip\n //\n // lip drops inside reservoir:\n // ┌──────────────────┐ lid top surface\n // hole │ │ outer edge\n // edge └──┐ ┌──┘\n // │ inner │\n // │ lip │ (nothing here, just outer drops)\n // └───────────┘\n //\n const lidProfile = [\n V2(netHoleR, lidY + lidH), // top surface, hole edge\n V2(rTopO + 2, lidY + lidH), // top surface, outer edge\n V2(rTopO + 2, lidY), // outer edge bottom\n V2(rTopI + 1, lidY), // inner lip outer\n V2(rTopI + 1, lidY - lipDrop), // lip drops down\n V2(rTopI - 2, lidY - lipDrop), // lip inner wall\n V2(rTopI - 2, lidY), // lip inner wall top\n V2(netHoleR, lidY), // bottom surface, hole edge\n ];\n parts.push(new THREE.LatheGeometry(lidProfile, S));\n\n // ═══════════════════════════════════════════\n // 3. NET POT COLLAR — raised ring around the hole\n // ═══════════════════════════════════════════\n const collarH = 10;\n const collarW = 4;\n const collarY = lidY + lidH;\n\n const collarProfile = [\n V2(netHoleR, collarY),\n V2(netHoleR, collarY + collarH),\n V2(netHoleR + collarW, collarY + collarH + 2), // lip overhang\n V2(netHoleR + collarW, collarY + collarH),\n V2(netHoleR + collarW, collarY),\n ];\n parts.push(new THREE.LatheGeometry(collarProfile, S));\n\n // ═══════════════════════════════════════════\n // 4. NET POT — basket that hangs into reservoir\n // ═══════════════════════════════════════════\n const npTopR = netHoleR - 1;\n const npBotR = npTopR - 8;\n const npH = 52;\n const npWall = 2.5;\n const npY = lidY - npH + 8; // hangs below lid\n const drainR = 7;\n\n // Profile: basket cross-section with flange at top\n const npProfile = [\n // Drain hole edge at bottom, then trace walls up\n V2(drainR, npY + npWall), // inner bottom, drain edge\n V2(npBotR - npWall, npY + npWall), // inner bottom meets inner wall\n V2(npTopR - npWall, npY + npH), // inner wall top\n // Flange (rests on collar)\n V2(netHoleR + collarW - 1, npY + npH),\n V2(netHoleR + collarW - 1, npY + npH + 3),\n V2(npTopR - npWall - 1, npY + npH + 3),\n V2(npTopR - npWall - 1, npY + npH),\n // Back down outer wall\n V2(npTopR, npY + npH), // outer wall top\n V2(npBotR, npY), // outer wall bottom\n V2(drainR, npY), // outer bottom, drain edge\n ];\n parts.push(new THREE.LatheGeometry(npProfile, S));\n\n // Drainage slot indicators — small torus rings around pot\n for (let row = 0; row < 4; row++) {\n const sy = npY + 8 + row * 11;\n const t = (sy - npY) / npH;\n const sr = npBotR + (npTopR - npBotR) * t;\n const slot = new THREE.TorusGeometry(sr + 0.5, 0.7, 6, S);\n slot.rotateX(Math.PI / 2);\n slot.translate(0, sy, 0);\n parts.push(slot);\n }\n\n // ═══════════════════════════════════════════\n // 5. FILL PORT — offset tube on lid\n // ═══════════════════════════════════════════\n const fpR = 10, fpH = 18;\n const fpAngle = Math.PI * 0.3;\n const fpDist = (rTopO + netHoleR + collarW) / 2;\n const fpX = Math.cos(fpAngle) * fpDist;\n const fpZ = Math.sin(fpAngle) * fpDist;\n const fpBaseY = lidY + lidH;\n\n // Tube (solid cylinder, represents port)\n const fpOuter = new THREE.CylinderGeometry(fpR, fpR, fpH, 24);\n fpOuter.translate(fpX, fpBaseY + fpH / 2, fpZ);\n parts.push(fpOuter);\n\n // Port rim bead\n const fpRim = new THREE.TorusGeometry(fpR, 1.5, 8, 24);\n fpRim.rotateX(Math.PI / 2);\n fpRim.translate(fpX, fpBaseY + fpH, fpZ);\n parts.push(fpRim);\n\n // ═══════════════════════════════════════════\n // 6. WATER LEVEL INDICATOR\n // ═══════════════════════════════════════════\n const wlY = 15, wlH = 55;\n const wlMidH = wlY + wlH / 2;\n const wlR = rBotO + (rTopO - rBotO) * (wlMidH / resH);\n\n // Raised channel strip\n parts.push(makeBox(7, wlH, 3, wlR + 2, wlMidH, 0));\n\n // MIN/MAX marks + ticks\n for (let i = 0; i <= 4; i++) {\n const ty = wlY + 3 + i * ((wlH - 6) / 4);\n const tr = rBotO + (rTopO - rBotO) * (ty / resH);\n const w = (i === 0 || i === 4) ? 14 : 10;\n const th = (i === 0 || i === 4) ? 1.5 : 0.8;\n parts.push(makeBox(w, th, 3.5, tr + 2, ty, 0));\n }\n\n // ═══════════════════════════════════════════\n // 7. HANDLES — ear nubs on sides\n // ═══════════════════════════════════════════\n const hY = resH * 0.6;\n for (const side of [1, -1]) {\n const hR = rBotO + (rTopO - rBotO) * (hY / resH);\n const handle = new THREE.TorusGeometry(9, 3.5, 8, 16, Math.PI);\n handle.rotateY(Math.PI / 2);\n handle.rotateZ(Math.PI / 2);\n handle.translate(0, hY, side * (hR + 6));\n parts.push(handle);\n }\n\n return mergeGeos(parts);\n `,\n};\n\nexport default kratky;\n",[],[219,742],"4f4bf888-0500-11f1-99ac-42dde27851f2","hexBox.ts","4f4bf95a-0500-11f1-99ac-42dde27851f2",["D",1770563431362],"import type { Example } from \"./types.ts\";\n\nconst example: Example = {\n id: \"hexBox\",\n icon: \"📦\",\n name: \"Hex Storage Box\",\n desc: \"Hollowed box with hex pattern cutouts — subtract + translate loops\",\n size: \"50×50×30 mm\",\n time: \"~45 min\",\n generatorBody: `\n const { cuboid, cylinder, roundedCuboid } = jscad.primitives;\n const { subtract } = jscad.booleans;\n const { translate, rotateZ } = jscad.transforms;\n\n // Outer shell\n const outer = roundedCuboid({ size: [50, 50, 30], roundRadius: 2, segments: 16 });\n // Inner cavity (wall thickness = 2mm)\n const inner = translate([0, 0, 2],\n cuboid({ size: [46, 46, 28] })\n );\n\n // Hex cutout pattern on one side\n const hexHoles = [];\n const hexR = 4;\n const spacingX = hexR * 2.2;\n const spacingY = hexR * 1.9;\n for (let row = -2; row <= 2; row++) {\n for (let col = -2; col <= 2; col++) {\n const offsetX = (row % 2) * (spacingX / 2);\n const x = col * spacingX + offsetX;\n const y = row * spacingY;\n if (Math.abs(x) < 22 && Math.abs(y) < 22) {\n hexHoles.push(\n translate([x, y, 0],\n cylinder({ radius: hexR, height: 60, segments: 6 })\n )\n );\n }\n }\n }\n\n return subtract(outer, inner, ...hexHoles);\n `,\n};\n\nexport default example;\n",[],[219,749],"525f5d3c-0f53-11f1-9be5-42dde27851f2","halfRingTest.ts","02088232-0f53-11f1-8ebc-42dde27851f2",71,["D",1771698596372],"import type { Example } from \"./types.ts\";\n\nconst example: Example = {\n id: \"halfRingTest\",\n icon: \"🌗\",\n name: \"Half Ring Tester\",\n desc: \"4 half-rings: 25mm & 26mm ID at 2mm height (plain), plus 25mm & 26mm ID at 4mm height with chamfered top half. 2mm walls.\",\n size: \"~66 × 50 × 4mm\",\n time: \"~8 min\",\n generatorBody: `\n const { cylinder, cuboid } = jscad.primitives;\n const { subtract, union } = jscad.booleans;\n const { translate } = jscad.transforms;\n const cylinderElliptic = jscad.primitives.cylinderElliptic;\n\n const wall = 2;\n const seg = 64;\n const radii = [12.5, 13]; // 25mm and 26mm diameters\n const hSpacing = 36;\n const vSpacing = 36;\n\n const parts = [];\n\n // ─── Top row: plain half-rings, 2mm tall ───\n radii.forEach((innerR, col) => {\n const outerR = innerR + wall;\n const h = 2;\n const x = (col - 0.5) * hSpacing;\n const y = vSpacing / 2;\n\n const fullRing = subtract(\n cylinder({ radius: outerR, height: h, segments: seg }),\n cylinder({ radius: innerR, height: h + 2, segments: seg })\n );\n // Cut in half: remove the -Y side\n const cutter = cuboid({ size: [outerR * 3, outerR * 2, h + 4], center: [0, -outerR, 0] });\n parts.push(translate([x, y, h / 2], subtract(fullRing, cutter)));\n });\n\n // ─── Bottom row: chamfered half-rings, 4mm tall ───\n radii.forEach((innerR, col) => {\n const outerR = innerR + wall;\n const h = 4;\n const x = (col - 0.5) * hSpacing;\n const y = -vSpacing / 2;\n\n // Outer shell: full cylinder\n const outer = cylinder({ radius: outerR, height: h, segments: seg });\n\n // Bottom bore (0–2mm): straight cylinder at innerR\n const boreStraight = translate([0, 0, -h / 4],\n cylinder({ radius: innerR, height: h / 2 + 0.01, segments: seg })\n );\n\n // Top bore (2–4mm): taper from innerR to outerR (chamfer)\n const boreChamfer = translate([0, 0, h / 4],\n cylinderElliptic({\n startRadius: [innerR, innerR],\n endRadius: [outerR + 0.01, outerR + 0.01],\n height: h / 2 + 0.01,\n segments: seg\n })\n );\n\n const fullRing = subtract(outer, boreStraight, boreChamfer);\n const cutter = cuboid({ size: [outerR * 3, outerR * 2, h + 4], center: [0, -outerR, 0] });\n parts.push(translate([x, y, h / 2], subtract(fullRing, cutter)));\n });\n\n return union(...parts);\n `,\n};\n\nexport default example;\n",[],[219,756],"f2853ade-04fe-11f1-b891-42dde27851f2","gear.ts","019c3dc4-fdf2-76fa-8252-802ba8540399",["D",1770562846100],"import type { Example } from \"./types.ts\";\n\nconst gear: Example = {\n id: \"gear\",\n icon: \"⚙️\",\n name: \"Herringbone Gear\",\n desc: \"Mechanical test piece with fine teeth\",\n size: \"60 × 60 × 20 mm\",\n time: \"~25 min\",\n generatorBody: `\n const R = 28, r = 22, T = 20, H = 20;\n const s = new THREE.Shape();\n for (let i = 0; i < T; i++) {\n const a1 = (i / T) * Math.PI * 2;\n const a2 = ((i + 0.25) / T) * Math.PI * 2;\n const a3 = ((i + 0.5) / T) * Math.PI * 2;\n const a4 = ((i + 0.75) / T) * Math.PI * 2;\n if (!i) s.moveTo(Math.cos(a1) * r, Math.sin(a1) * r);\n else s.lineTo(Math.cos(a1) * r, Math.sin(a1) * r);\n s.lineTo(Math.cos(a2) * R, Math.sin(a2) * R);\n s.lineTo(Math.cos(a3) * R, Math.sin(a3) * R);\n s.lineTo(Math.cos(a4) * r, Math.sin(a4) * r);\n }\n s.closePath();\n const hole = new THREE.Path();\n for (let i = 0; i <= 32; i++) {\n const a = (i / 32) * Math.PI * 2;\n if (!i) hole.moveTo(Math.cos(a) * 8, Math.sin(a) * 8);\n else hole.lineTo(Math.cos(a) * 8, Math.sin(a) * 8);\n }\n s.holes.push(hole);\n const g = new THREE.ExtrudeGeometry(s, { depth: H, bevelEnabled: false });\n g.rotateX(-Math.PI / 2);\n return g;\n `,\n};\n\nexport default gear;\n",[],[219,764],"a22c6636-423c-11f1-aff8-42b51c65c3df","funnel170to75.ts","a22c6712-423c-11f1-aff8-42b51c65c3df",254,["D",1777296361119],"import type { Example } from \"./types.ts\";\n\nconst example: Example = {\n id: \"funnel170to75\",\n icon: \"🪣\",\n name: \"Funnel Ø170 → Ø75\",\n desc:\n \"Truncated-cone funnel, 60mm tall, 2mm wall. Wall angle 38.4° from vertical (FDM-safe, well under the 45° overhang limit). PRINT SMALL END DOWN — walls slope outward going up.\",\n size: \"Ø170 × Ø75 × 60mm tall\",\n time: \"~1.5 hr\",\n generatorBody: `\n const { cylinderElliptic } = jscad.primitives;\n const { subtract } = jscad.booleans;\n\n // ─── Dimensions ───\n const outerR_top = 85; // 170mm OD top\n const outerR_bottom = 37.5; // 75mm OD bottom\n const wallT = 2;\n const height = 60;\n const segments = 128;\n\n const innerR_top = outerR_top - wallT; // 83\n const innerR_bottom = outerR_bottom - wallT; // 35.5\n\n // Outer frustum\n const outer = cylinderElliptic({\n startRadius: [outerR_bottom, outerR_bottom],\n endRadius: [outerR_top, outerR_top],\n height,\n center: [0, 0, height / 2],\n segments,\n });\n\n // Inner frustum (slightly taller for clean boolean)\n const inner = cylinderElliptic({\n startRadius: [innerR_bottom, innerR_bottom],\n endRadius: [innerR_top, innerR_top],\n height: height + 2,\n center: [0, 0, height / 2],\n segments,\n });\n\n return subtract(outer, inner);\n `,\n};\n\nexport default example;\n",[],[219,771],"f285314c-04fe-11f1-b891-42dde27851f2","duck.ts","019c3dc4-fdf2-76fa-8252-7d06f281a902",["D",1770562846100],"import type { Example } from \"./types.ts\";\n\nconst duck: Example = {\n id: \"duck\",\n icon: \"🦆\",\n name: \"Rubber Duck\",\n desc: \"A cute little rubber duck — quack!\",\n size: \"50 × 40 × 45 mm\",\n time: \"~40 min\",\n generatorBody: `\n const geos = [];\n\n // --- Body (squished sphere) ---\n const body = new THREE.SphereGeometry(20, 32, 24);\n body.scale(1.1, 0.85, 1.0);\n body.translate(0, 14, 0);\n geos.push(body);\n\n // --- Head (smaller sphere, tilted forward) ---\n const head = new THREE.SphereGeometry(12, 32, 24);\n head.translate(0, 34, 10);\n geos.push(head);\n\n // --- Beak (cone pointing forward) ---\n const beak = new THREE.ConeGeometry(4, 10, 16);\n beak.rotateX(Math.PI / 2);\n beak.translate(0, 32, 24);\n geos.push(beak);\n\n // --- Eyes (little bumps) ---\n for (let side = -1; side <= 1; side += 2) {\n const eye = new THREE.SphereGeometry(2.2, 12, 12);\n eye.translate(side * 7, 38, 15);\n geos.push(eye);\n }\n\n // --- Flat bottom so it sits nicely ---\n const base = makeCyl(14, 3, 32, 0, 1.5, 0);\n geos.push(base);\n\n // --- Tail (little upward nub) ---\n const tail = new THREE.SphereGeometry(5, 12, 12);\n tail.scale(0.6, 1.2, 0.8);\n tail.translate(0, 22, -20);\n geos.push(tail);\n\n // --- Wings (flattened spheres on each side) ---\n for (let side = -1; side <= 1; side += 2) {\n const wing = new THREE.SphereGeometry(8, 16, 12);\n wing.scale(0.35, 0.7, 1.0);\n wing.rotateZ(side * 0.3);\n wing.translate(side * 18, 16, -2);\n geos.push(wing);\n }\n\n return mergeGeos(geos);\n `,\n};\n\nexport default duck;\n",[],[219,779],"c5447de6-1034-11f1-85cb-42dde27851f2","chamferChannelTest.ts","62b265cc-1033-11f1-939a-42dde27851f2",100,["D",1771795425898],"import type { Example } from \"./types.ts\";\n\nconst example: Example = {\n id: \"chamferChannelTest\",\n icon: \"🔲\",\n name: \"Chamfer Channel Test\",\n desc: \"Two open-ended channel test pieces: 25mm and 26mm ID. Chamfered semicircle pocket + straight channel, walls extend a bit past chamfer.\",\n size: \"~55 × 45 × 4mm\",\n time: \"~10 min\",\n generatorBody: `\n const { cylinder, cuboid } = jscad.primitives;\n const { subtract, union } = jscad.booleans;\n const { translate } = jscad.transforms;\n const { hull } = jscad.hulls;\n const cylinderElliptic = jscad.primitives.cylinderElliptic;\n\n const raisedH = 4;\n const chamferWall = 2;\n const supportWall = 2;\n const seg = 72;\n\n const radii = [12.5, 13]; // 25mm and 26mm ID\n const spacing = 42;\n const totalLen = 20; // total straight length past semicircle center\n\n const parts = [];\n\n radii.forEach((holeR, i) => {\n const chamferTopR = holeR + chamferWall;\n const wallOuterR = chamferTopR + supportWall;\n const cx = (i - 0.5) * spacing;\n\n // ─── Body: semicircle + straight box, all 4mm tall ───\n const closedCap = translate([cx, 0, raisedH / 2],\n cylinder({ radius: wallOuterR, height: raisedH, segments: seg })\n );\n const straightBox = translate([cx, totalLen / 2, raisedH / 2],\n cuboid({ size: [wallOuterR * 2, totalLen, raisedH] })\n );\n const body = union(closedCap, straightBox);\n\n // ─── Slot cut: semicircle + straight rect, full height ───\n const cutH = raisedH + 4;\n const slotCap = translate([cx, 0, 0],\n cylinder({ radius: holeR, height: cutH, segments: seg })\n );\n const slotRect = translate([cx, (totalLen + wallOuterR) / 2, 0],\n cuboid({ size: [holeR * 2, totalLen + wallOuterR, cutH] })\n );\n const slotCut = union(slotCap, slotRect);\n\n // ─── Chamfer cut: semicircle taper + straight taper ───\n const chamferBase = raisedH / 2; // bottom of chamfer = halfway up (2mm)\n const chamferH = raisedH / 2; // top 2mm\n\n // Semicircle chamfer\n const chamferSemi = translate([cx, 0, chamferBase + chamferH / 2],\n cylinderElliptic({\n startRadius: [holeR, holeR],\n endRadius: [chamferTopR + 0.01, chamferTopR + 0.01],\n height: chamferH + 0.01,\n segments: seg\n })\n );\n // Straight chamfer: hull two thin slabs\n const botSlab = translate([cx, totalLen / 2, chamferBase],\n cuboid({ size: [holeR * 2, totalLen + 0.01, 0.01] })\n );\n const topSlab = translate([cx, totalLen / 2, raisedH],\n cuboid({ size: [(chamferTopR + 0.01) * 2, totalLen + 0.01, 0.01] })\n );\n const chamferStraight = hull(botSlab, topSlab);\n\n const chamferCut = union(chamferSemi, chamferStraight);\n\n parts.push(subtract(body, slotCut, chamferCut));\n });\n\n return union(...parts);\n `,\n};\n\nexport default example;\n",[],[219,786],"f2852b98-04fe-11f1-b891-42dde27851f2","castle.ts","019c3dc4-fdf2-76fa-8252-7853e1aa2ac5",["D",1770562846100],"import type { Example } from \"./types.ts\";\n\nconst castle: Example = {\n id: \"castle\",\n icon: \"🏰\",\n name: \"Mini Castle\",\n desc: \"Tabletop terrain with turrets & walls\",\n size: \"100 × 100 × 80 mm\",\n time: \"~3 hrs\",\n generatorBody: `\n const p = [makeBox(100, 40, 100, 0, 20, 0)];\n for (const [tx, tz] of [[-42,-42],[42,-42],[-42,42],[42,42]]) {\n p.push(makeCyl(10, 60, 12, tx, 30, tz));\n p.push(makeCone(14, 20, 12, tx, 70, tz));\n }\n p.push(makeBox(20, 30, 8, 0, 15, 54));\n p.push(makeBox(30, 60, 30, 0, 30, 0));\n p.push(makeCone(22, 25, 8, 0, 72, 0));\n for (let i = -40; i <= 40; i += 12) {\n p.push(makeBox(6, 8, 6, i, 44, -47));\n p.push(makeBox(6, 8, 6, i, 44, 47));\n p.push(makeBox(6, 8, 6, -47, 44, i));\n p.push(makeBox(6, 8, 6, 47, 44, i));\n }\n return mergeGeos(p);\n `,\n};\n\nexport default castle;\n",[],[219,794],"26eddc10-36d0-11f1-908b-42b51c65c3df","calCylinders.ts","213d5da4-36d0-11f1-9cc0-42b51c65c3df",128,["D",1776040305929],"import type { Example } from \"./types.ts\";\n\nconst example: Example = {\n id: \"calCylinders\",\n icon: \"🔬\",\n name: \"Calibration Cylinders\",\n desc: \"Six 20mm tall solid cylinders at 12, 13, 14, 15, 17, and 20mm diameters for dimensional calibration.\",\n size: \"~90 × 20 × 20mm\",\n time: \"~10 min\",\n generatorBody: `\n const { cylinder } = jscad.primitives;\n const { union } = jscad.booleans;\n const { translate } = jscad.transforms;\n\n const diameters = [12, 13, 14, 15, 17, 20];\n const h = 20;\n const seg = 64;\n const gap = 3;\n\n const parts = [];\n let x = 0;\n\n for (let i = 0; i < diameters.length; i++) {\n const r = diameters[i] / 2;\n if (i === 0) {\n x = r;\n } else {\n x += diameters[i - 1] / 2 + gap + r;\n }\n parts.push(translate([x, 0, h / 2], cylinder({ radius: r, height: h, segments: seg })));\n }\n\n return union(...parts);\n `,\n};\n\nexport default example;\n",[],[219,801],"5dac72f4-0500-11f1-826c-42dde27851f2","cableOrganizer.ts","5dac73c6-0500-11f1-826c-42dde27851f2",["D",1770563455449],"import type { Example } from \"./types.ts\";\n\nconst example: Example = {\n id: \"cableOrganizer\",\n icon: \"🔌\",\n name: \"Cable Organizer\",\n desc: \"Desk clip with cable channels — hull + subtract\",\n size: \"40×30×15 mm\",\n time: \"~20 min\",\n generatorBody: `\n const { cuboid, cylinder, roundedCuboid } = jscad.primitives;\n const { subtract, union } = jscad.booleans;\n const { translate } = jscad.transforms;\n const { hull } = jscad.hulls;\n\n // Main body using hull of cylinders for organic shape\n const bodyParts = [\n translate([-12, 0, 0], cylinder({ radius: 15, height: 15, segments: 32 })),\n translate([12, 0, 0], cylinder({ radius: 15, height: 15, segments: 32 })),\n ];\n const body = hull(bodyParts);\n\n // Cable channels (3 slots of different sizes)\n const channels = [\n // USB-C sized\n translate([-12, 0, 5], cylinder({ radius: 3.5, height: 20, segments: 16 })),\n // Lightning/thin cable\n translate([0, 0, 5], cylinder({ radius: 2.5, height: 20, segments: 16 })),\n // Thick cable (power)\n translate([12, 0, 5], cylinder({ radius: 4.5, height: 20, segments: 16 })),\n ];\n\n // Entry slots (so cables can snap in from the top)\n const slots = [\n translate([-12, 0, 11], cuboid({ size: [3, 20, 8] })),\n translate([0, 0, 11], cuboid({ size: [2.5, 20, 8] })),\n translate([12, 0, 11], cuboid({ size: [4, 20, 8] })),\n ];\n\n // Desk clip cutout (bottom)\n const clipSlot = translate([0, 0, -4],\n cuboid({ size: [50, 20, 6] })\n );\n\n return subtract(body, ...channels, ...slots, clipSlot);\n `,\n};\n\nexport default example;\n",[],[219,809],"d905c6de-316b-11f1-8167-42dde27851f2","bucketOpenerIterations.ts","787165c2-3147-11f1-958e-42dde27851f2",112,["D",1775447469736],"import type { Example } from \"./types.ts\";\n\nconst example: Example = {\n id: \"bucketOpenerIterations\",\n icon: \"🪣\",\n name: \"Bucket Opener — Flat Iterations\",\n desc: \"Reinforced G-profile — 4 height variants (12/15/18/21mm). Built from cuboids.\",\n size: \"~80×25×21 mm (layout)\",\n time: \"~6 min\",\n generatorBody: `\n const { cuboid } = jscad.primitives;\n const { polygon } = jscad.primitives;\n const { extrudeLinear } = jscad.extrusions;\n const { translate } = jscad.transforms;\n const { union } = jscad.booleans;\n\n // Reinforced G-profile from simple convex parts.\n // wallT=3, topArmT=4, armLen=3, armT=1.2, hookH=4, tipT=0.4, gusset=2\n function makeG(back) {\n const d = 2; // extrusion depth\n const wallT = 3;\n const topArmT = 4;\n const armLen = 3;\n const armT = 1.2;\n const hookH = 4;\n const tipT = 0.4;\n const gusset = 2;\n const topArmLen = wallT + armLen + armT;\n\n // 1. Back plate\n const backPlate = translate(\n [wallT / 2, back / 2, d / 2],\n cuboid({ size: [wallT, back, d] })\n );\n\n // 2. Top arm\n const topArm = translate(\n [topArmLen / 2, back - topArmT / 2, d / 2],\n cuboid({ size: [topArmLen, topArmT, d] })\n );\n\n // 3. Bottom arm\n const botArm = translate(\n [wallT + armLen / 2, armT / 2, d / 2],\n cuboid({ size: [armLen, armT, d] })\n );\n\n // 4. Wedge (trapezoid — convex, safe for extrude)\n const wx = wallT + armLen;\n const wedgePts = [\n [wx, armT],\n [wx + armT, armT],\n [wx + tipT, armT + hookH],\n [wx, armT + hookH],\n ];\n const wedge = extrudeLinear({ height: d }, polygon({ points: wedgePts }));\n\n // 5. Filler under wedge\n const filler = translate(\n [wx + armT / 2, armT / 2, d / 2],\n cuboid({ size: [armT, armT, d] })\n );\n\n // 6. Gusset (triangle — convex)\n const gx = wx + armT;\n const gussetPts = [\n [gx, armT],\n [gx, 0],\n [gx + gusset, 0],\n ];\n const gussetPart = extrudeLinear({ height: d }, polygon({ points: gussetPts }));\n\n return union(backPlate, topArm, botArm, wedge, filler, gussetPart);\n }\n\n const heights = [12, 15, 18, 21];\n const parts = heights.map((h, i) => {\n return translate([i * 18, 0, 0], makeG(h));\n });\n\n return union(...parts);\n `,\n};\n\nexport default example;\n",[],[219,816],"8d0d605a-316d-11f1-b3eb-42dde27851f2","bucketOpenerCurved.ts","e62b15da-316b-11f1-bd03-42dde27851f2",117,["D",1775448201258],"import type { Example } from \"./types.ts\";\n\nconst example: Example = {\n id: \"bucketOpenerCurved\",\n icon: \"🪣\",\n name: \"Bucket Opener — Curved 3D\",\n desc: \"Reinforced G-profile w/ horn handle, swept 10° at r=102mm. Top arm 2x, 30° horn.\",\n size: \"~40×15×30 mm\",\n time: \"~12 min\",\n generatorBody: `\n const { cuboid, sphere, cylinder } = jscad.primitives;\n const { translate, rotateZ, rotateY } = jscad.transforms;\n const { union } = jscad.booleans;\n const { hull } = jscad.hulls;\n\n const R = 102;\n const back = 15;\n const wallT = 3;\n const topArmT = 4;\n const armLen = 3;\n const armT = 1.2;\n const hookH = 4;\n const gusset = 2;\n\n const topArmLen = 14; // 2x original\n\n const d = 0.5;\n\n // Piece functions: each returns thin slice at angle=0 in XZ plane (Z up)\n function makeBackPlate() {\n return translate([R - wallT / 2, 0, back / 2], cuboid({ size: [wallT, d, back] }));\n }\n function makeTopArm() {\n return translate([R - topArmLen / 2, 0, back - topArmT / 2], cuboid({ size: [topArmLen, d, topArmT] }));\n }\n function makeBotArm() {\n return translate([R - wallT - armLen / 2, 0, armT / 2], cuboid({ size: [armLen, d, armT] }));\n }\n function makeWedgeBase() {\n const wx = R - wallT - armLen;\n return translate([wx - armT / 2, 0, armT + hookH / 2], cuboid({ size: [armT, d, hookH] }));\n }\n function makeWedgeTip() {\n const wx = R - wallT - armLen;\n return translate([wx - 0.2, 0, armT + hookH - 0.5], cuboid({ size: [0.4, d, 1] }));\n }\n function makeFiller() {\n const wx = R - wallT - armLen;\n return translate([wx - armT / 2, 0, armT / 2], cuboid({ size: [armT, d, armT] }));\n }\n function makeGusset() {\n const gx = R - wallT - armLen - armT;\n return translate([gx - gusset / 2, 0, armT / 3], cuboid({ size: [gusset, d, armT * 0.7] }));\n }\n\n const pieceFns = [makeBackPlate, makeTopArm, makeBotArm, makeWedgeBase, makeWedgeTip, makeFiller, makeGusset];\n\n const totalAngle = 10 * Math.PI / 180;\n const numSteps = 6;\n const stepAngle = totalAngle / numSteps;\n\n // Sweep each piece\n const allParts = pieceFns.map(fn => {\n const slices = [];\n for (let i = 0; i <= numSteps; i++) {\n slices.push(rotateZ(i * stepAngle, fn()));\n }\n const hulled = [];\n for (let i = 0; i < slices.length - 1; i++) {\n hulled.push(hull(slices[i], slices[i + 1]));\n }\n return union(...hulled);\n });\n\n // ====== HORN HANDLE ======\n // Rectangular bar, 30° angle from horizontal, sticking outward from bucket\n // Placed at midpoint of arc (5°), at outer-top corner (R, 0, back)\n // Horn: 25mm long, 4mm thick (Z), arc-width matched (~width of swept part)\n //\n // At 30° from horizontal going outward+up:\n // dx = 25*cos(30°) = 21.65 (radially outward, +X)\n // dz = 25*sin(30°) = 12.5 (upward, +Z)\n //\n // Build as a series of cuboid segments along the horn axis\n\n const hornAngle = 30 * Math.PI / 180; // 30° from horizontal\n const hornLen = 25;\n const hornThick = 4; // thickness in Z perpendicular to axis\n const midArcAngle = totalAngle / 2;\n\n // Arc width at radius R over 10°: R * totalAngle ≈ 17.8mm\n const hornDepth = R * totalAngle; // width of horn matching the arc\n\n const hornSegs = 5;\n const segLen = hornLen / hornSegs;\n\n const hornParts = [];\n for (let i = 0; i < hornSegs; i++) {\n const t0 = i * segLen;\n const t1 = (i + 1) * segLen;\n const x0 = R + t0 * Math.cos(hornAngle);\n const z0 = back + t0 * Math.sin(hornAngle);\n const x1 = R + t1 * Math.cos(hornAngle);\n const z1 = back + t1 * Math.sin(hornAngle);\n\n const c0 = rotateZ(midArcAngle, translate([x0, 0, z0],\n cuboid({ size: [segLen, hornDepth, hornThick] })\n ));\n const c1 = rotateZ(midArcAngle, translate([x1, 0, z1],\n cuboid({ size: [segLen, hornDepth, hornThick] })\n ));\n hornParts.push(hull(c0, c1));\n }\n\n // Rounded endcap: sphere at horn tip\n const tipX = R + hornLen * Math.cos(hornAngle);\n const tipZ = back + hornLen * Math.sin(hornAngle);\n const endcap = rotateZ(midArcAngle, translate([tipX, 0, tipZ],\n sphere({ radius: hornThick / 2, segments: 16 })\n ));\n\n // Also add a small transition block where horn meets the back/top-arm corner\n const hornBase = rotateZ(midArcAngle, translate([R, 0, back],\n cuboid({ size: [wallT, hornDepth, topArmT] })\n ));\n\n return union(...allParts, ...hornParts, endcap, hornBase);\n `,\n};\n\nexport default example;\n",[],[219,824],"a8153206-31b8-11f1-aceb-42dde27851f2","bucketOpener70mm.ts","bfc927c0-31b5-11f1-aad0-42dde27851f2",123,["D",1775480458879],"import type { Example } from \"./types.ts\";\n\nconst example: Example = {\n id: \"bucketOpener70mm\",\n icon: \"🪣\",\n name: \"Bucket Opener — Cross-Section\",\n desc: \"Reinforced G-profile w/ horn handle. Thin 2mm slice — thicken in slicer.\",\n size: \"~25×2×40 mm\",\n time: \"~2 min\",\n generatorBody: `\nconst { cuboid } = jscad.primitives;\nconst { polygon } = jscad.primitives;\nconst { extrudeLinear } = jscad.extrusions;\nconst { translate, rotateY } = jscad.transforms;\nconst { union } = jscad.booleans;\n\nconst d = 2;\n\n// Back plate\nconst backPlate = translate([1.5, 0, 7.5],\n cuboid({ size: [3, d, 15] }));\n\n// Top arm (14mm long, 4mm thick)\nconst topArm = translate([7, 0, 15 - 2],\n cuboid({ size: [14, d, 4] }));\n\n// Bottom arm\nconst botArm = translate([3 + 1.5, 0, 0.6],\n cuboid({ size: [3, d, 1.2] }));\n\n// Wedge: proper trapezoid (convex, safe for JSCAD)\n// Base at armT=1.2, width=1.2mm. Tip at armT+hookH=5.2, width=0.4mm.\n// Inner edge at x=6 (wallT+armLen), outer tapers inward.\nconst wedgePts = [\n [6, 1.2], // inner base\n [6 + 1.2, 1.2], // outer base (1.2mm wide)\n [6 + 0.4, 5.2], // outer tip (0.4mm wide)\n [6, 5.2], // inner tip\n];\nconst wedge = extrudeLinear({ height: d }, polygon({ points: wedgePts }));\n\n// Filler under wedge base\nconst filler = translate([6 + 0.6, 0, 0.6],\n cuboid({ size: [1.2, d, 1.2] }));\n\n// Gusset (triangle, convex)\nconst gussetPts = [\n [7.2, 1.2],\n [7.2, 0],\n [9.2, 0],\n];\nconst gussetPart = extrudeLinear({ height: d }, polygon({ points: gussetPts }));\n\n// Horn handle: single cuboid rotated 30deg\nconst hornRaw = cuboid({ size: [25, d, 4] });\nconst hornRotated = rotateY(-30 * Math.PI / 180, hornRaw);\nconst hornCenterDist = 25 / 2;\nconst hornCX = 5 - hornCenterDist * Math.cos(30 * Math.PI / 180) + 2 * Math.sin(30 * Math.PI / 180);\nconst hornCZ = 15 + hornCenterDist * Math.sin(30 * Math.PI / 180) - 2 * Math.cos(30 * Math.PI / 180);\nconst hornPlaced = translate([hornCX, 0, hornCZ], hornRotated);\n\nreturn union(\n backPlate, topArm, botArm,\n wedge, filler, gussetPart,\n hornPlaced\n);\n `,\n};\n\nexport default example;\n",[],[219,832],"ea66c4a0-0506-11f1-b742-42dde27851f2","bottleSplitter.ts","3d8e347e-0502-11f1-a42d-42dde27851f2",["D",1770566268566],"import type { Example } from \"./types.ts\";\n\nconst bottleSplitter: Example = {\n id: \"bottleSplitter\",\n icon: \"🔱\",\n name: \"3-Way Bottle Splitter\",\n desc: \"3 threaded bottle ports on bottom → hollow funnel chamber → open pour top\",\n size: \"~76 × 76 × 80 mm\",\n time: \"~3 hrs\",\n generatorBody: `\n const { cylinder } = jscad.primitives;\n const { subtract, union } = jscad.booleans;\n const { translate } = jscad.transforms;\n const { hull } = jscad.hulls;\n\n // ── DIMENSIONS ──\n const bore_r = 14; // 28mm ID for PCO-1881 bottle neck\n const wall_t = 3; // wall thickness\n const port_r = bore_r + wall_t; // outer radius of port\n const port_h = 30; // threaded port depth\n const spread = 28; // distance from center to each port\n const spout_r = 14; // pour opening radius at top\n const chamber_h = 50; // funnel chamber height\n const chamber_wall = 3; // chamber wall thickness\n const thread_depth = 1.5; // thread groove depth\n const thread_pitch = 3.5; // thread spacing\n const num_threads = 5; // threads per port\n\n // Port positions: equilateral triangle\n const angles = [Math.PI/2, Math.PI/2 + 2*Math.PI/3, Math.PI/2 + 4*Math.PI/3];\n const ports = angles.map(a => [spread * Math.cos(a), spread * Math.sin(a)]);\n\n // ══ THREADED PORTS (bottom) ══\n const portSolids = ports.map(([x, y]) =>\n translate([x, y, port_h / 2],\n cylinder({ radius: port_r, height: port_h, segments: 48 })\n )\n );\n\n const portBores = ports.map(([x, y]) =>\n translate([x, y, port_h / 2],\n cylinder({ radius: bore_r, height: port_h + 2, segments: 48 })\n )\n );\n\n // Internal thread grooves\n const threads = [];\n for (const [x, y] of ports) {\n for (let i = 0; i < num_threads; i++) {\n const z = 3 + i * thread_pitch;\n threads.push(\n translate([x, y, z],\n subtract(\n cylinder({ radius: bore_r + thread_depth, height: 1.8, segments: 48 }),\n cylinder({ radius: bore_r - 0.1, height: 2.5, segments: 48 })\n )\n )\n );\n }\n }\n\n // ══ FUNNEL CHAMBER (top) ══\n const base_r = port_r + 3;\n const top_r = spout_r + chamber_wall;\n\n // Outer shell: hull from 3 wide bases to 1 narrow top\n const chamberOuter = hull(\n ...ports.map(([x, y]) =>\n translate([x, y, port_h + 1.5],\n cylinder({ radius: base_r, height: 3, segments: 48 })\n )\n ),\n translate([0, 0, port_h + chamber_h - 1.5],\n cylinder({ radius: top_r, height: 3, segments: 48 })\n )\n );\n\n // Inner cavity\n const chamberInner = hull(\n ...ports.map(([x, y]) =>\n translate([x, y, port_h],\n cylinder({ radius: bore_r, height: 3, segments: 48 })\n )\n ),\n translate([0, 0, port_h + chamber_h - chamber_wall],\n cylinder({ radius: spout_r, height: 3, segments: 48 })\n )\n );\n\n // Open top (pour hole)\n const topHole = translate([0, 0, port_h + chamber_h - 1],\n cylinder({ radius: spout_r, height: 4, segments: 48 })\n );\n\n // Bottom holes (connect ports to chamber)\n const bottomHoles = ports.map(([x, y]) =>\n translate([x, y, port_h],\n cylinder({ radius: bore_r, height: chamber_wall + 2, segments: 48 })\n )\n );\n\n // ══ ASSEMBLY ══\n let solid = union(...portSolids, chamberOuter);\n solid = subtract(solid, ...portBores, chamberInner, topHole, ...bottomHoles, ...threads);\n\n return solid;\n `,\n};\n\nexport default bottleSplitter;\n",[],[219,840],"6775161c-0c15-11f1-b3f3-42dde27851f2","bottleSleeveVase.ts","677516d0-0c15-11f1-b3f3-42dde27851f2",45,["D",1771342149467],"import type { Example } from \"./types.ts\";\n\nconst example: Example = {\n id: \"bottleSleeveVase\",\n icon: \"🫙\",\n name: \"Single Bottle Sleeve (Vase Mode)\",\n desc: \"Simple vase-mode sleeve for a 500mL water bottle. Open top & bottom, single wall. Print with spiral vase, 0 bottom layers.\",\n size: \"~69 × 69 × 120mm\",\n time: \"~15 min\",\n generatorBody: `\n const { cylinder } = jscad.primitives;\n const { subtract } = jscad.booleans;\n\n // ─── Dimensions ───\n // 500mL bottle body ~65mm diameter\n const bottleDia = 65;\n const clearance = 1; // 0.5mm per side\n const innerR = (bottleDia + clearance) / 2; // 33mm\n const wallT = 0.8; // vase mode single wall\n const outerR = innerR + wallT; // 33.8mm\n const height = 120; // covers most of the straight body\n const seg = 96; // smooth for vase mode\n\n const outer = cylinder({\n radius: outerR,\n height: height,\n center: [0, 0, height / 2],\n segments: seg\n });\n\n const inner = cylinder({\n radius: innerR,\n height: height + 2,\n center: [0, 0, height / 2],\n segments: seg\n });\n\n return subtract(outer, inner);\n `,\n};\n\nexport default example;\n",[],[219,847],"f2850d2a-04fe-11f1-b891-42dde27851f2","bottleSleeveV2.ts","019c3dc4-fdf2-76fa-8252-7556e5654510",["D",1770562846100],"import type { Example } from \"./types.ts\";\n\nconst bottleSleeveV2: Example = {\n id: \"bottleSleeveV2\",\n icon: \"🫙\",\n name: \"Bottle Sleeve v2\",\n desc: \"Snug sleeve for a standard 500ml bottle — inward-curving base, 1.2mm walls\",\n size: \"68 × 68 × 155 mm\",\n time: \"~1.5 hrs\",\n generatorBody: `\n // Bottle Sleeve v2 — accurate to standard 500ml PET water bottle\n // Body dia: 64mm, height: ~200mm, cap dia: ~30mm, neck: ~25mm\n // Wall: 1.2mm (3 perimeters on 0.4mm nozzle — thinnest practical)\n // Clearance: ~1.5mm radial gap so it slides on easily\n //\n // Profile: bottom curves inward (like it almost has a bottom)\n // but inner opening is still > 64mm so bottle drops through.\n // Then straight body, shoulder taper, open mouth at top.\n\n const wall = 1.2;\n const bottleR = 32; // bottle body radius (64mm dia)\n const clearance = 1.5; // radial gap for easy slide-on\n const innerR = bottleR + clearance; // 33.5mm inner radius\n const outerR = innerR + wall; // 34.7mm outer radius\n\n // Bottle neck/cap zone\n const capR = 15; // cap radius (~30mm dia)\n const neckInnerR = capR + clearance; // 16.5mm\n const neckOuterR = neckInnerR + wall; // 17.7mm\n\n // Heights\n const straightH = 85; // straight body section\n const shoulderH = 50; // taper from body to neck\n const neckH = 15; // short straight neck section at top\n const totalH = straightH + shoulderH + neckH; // 150mm\n\n // Bottom inward curve params\n const curlDepth = 8; // how far the lip curls inward\n const curlH = 12; // height of the curl zone\n // The curl narrows the bottom opening but keeps inner dia > 64mm\n // Narrowest inner point at curl: innerR - curlDepth + wall ≈ 26.7mm\n // But we need to keep the HOLE wide enough — the curl is on the outer\n // shell only, creating the illusion of a base\n\n const pts = [];\n const segs = 64; // smooth lathe\n\n // ── OUTER WALL (bottom to top) ──\n\n // Bottom curl: outer wall curves inward then back out\n // Start at the bottom lip (curled inward)\n const curlInnerR = outerR - curlDepth; // ~26.7mm — this is just the outer wall curling\n pts.push(new THREE.Vector2(curlInnerR, 0)); // bottom-most point (curled in)\n // Smooth curve from curl up to full outer radius\n const curlSteps = 10;\n for (let i = 1; i <= curlSteps; i++) {\n const t = i / curlSteps;\n // Sinusoidal ease for smooth curl\n const ease = Math.sin(t * Math.PI / 2);\n const r = curlInnerR + (outerR - curlInnerR) * ease;\n const y = t * curlH;\n pts.push(new THREE.Vector2(r, y));\n }\n\n // Straight body section\n pts.push(new THREE.Vector2(outerR, straightH));\n\n // Shoulder taper — smooth S-curve from body to neck\n const taperSteps = 24;\n for (let i = 1; i <= taperSteps; i++) {\n const t = i / taperSteps;\n const ease = t * t * (3 - 2 * t); // smoothstep\n const r = outerR - (outerR - neckOuterR) * ease;\n const y = straightH + t * shoulderH;\n pts.push(new THREE.Vector2(r, y));\n }\n\n // Neck straight section\n pts.push(new THREE.Vector2(neckOuterR, straightH + shoulderH + neckH));\n\n // Small lip at top for a finished edge\n const lipR = 1.0;\n pts.push(new THREE.Vector2(neckOuterR + lipR, totalH + 1.5));\n pts.push(new THREE.Vector2(neckOuterR + lipR * 0.5, totalH + 3));\n\n // ── INNER WALL (top to bottom) ──\n\n // Inner lip at top\n pts.push(new THREE.Vector2(neckInnerR + lipR * 0.5, totalH + 3));\n pts.push(new THREE.Vector2(neckInnerR, totalH + 1.5));\n\n // Inner neck\n pts.push(new THREE.Vector2(neckInnerR, straightH + shoulderH));\n\n // Inner shoulder taper (reverse)\n for (let i = taperSteps; i >= 1; i--) {\n const t = i / taperSteps;\n const ease = t * t * (3 - 2 * t);\n const r = innerR - (innerR - neckInnerR) * ease;\n const y = straightH + t * shoulderH;\n pts.push(new THREE.Vector2(r, y));\n }\n\n // Inner straight body\n pts.push(new THREE.Vector2(innerR, curlH));\n\n // Inner bottom curl — mirrors outer but offset by wall thickness\n const innerCurlR = curlInnerR + wall; // keep wall thickness through curl\n for (let i = curlSteps; i >= 1; i--) {\n const t = i / curlSteps;\n const ease = Math.sin(t * Math.PI / 2);\n const r = innerCurlR + (innerR - innerCurlR) * ease;\n const y = t * curlH;\n pts.push(new THREE.Vector2(r, y));\n }\n pts.push(new THREE.Vector2(innerCurlR, 0)); // close at bottom\n\n return new THREE.LatheGeometry(pts, segs);\n `,\n};\n\nexport default bottleSleeveV2;\n",[],[219,855],"4b7f9ed8-0a8e-11f1-a69b-42dde27851f2","bottleSleeve15L.ts","4b7f9fa0-0a8e-11f1-a69b-42dde27851f2",33,["D",1771174169302],"import type { Example } from \"./types.ts\";\n\nconst example: Example = {\n id: \"bottleSleeve15L\",\n icon: \"🧴\",\n name: \"1.5L Bottle Sleeve (Vase Mode)\",\n desc: \"Two-part vase mode sleeve for 1.5L water bottle. Part 1: body. Part 2: tapers to 2\\\" opening. Overlap friction-fit joint. Print with 0 bottom layers.\",\n size: \"~93 × 93 × 170mm each\",\n time: \"~30 min each\",\n generatorBody: `\n const { cylinder, cylinderElliptic } = jscad.primitives;\n const { subtract, union } = jscad.booleans;\n const { translate } = jscad.transforms;\n\n // ─── Dimensions ───\n const bodyOD = 92; // ~90mm bottle + 2mm clearance\n const wallT = 1; // modeled wall (slicer vase mode = 0.4mm actual)\n const bodyID = bodyOD - wallT * 2;\n\n const overlapH = 10; // overlap joint height\n const overlapGap = 0.4; // clearance for friction fit\n\n // Bottle ~ 330mm tall\n const part1H = 170; // max safe height on A1 Mini\n const part2H = 170; // remaining + 13mm above bottle\n const taperStartH = 80; // straight section on part 2 before taper begins\n const topOD = 54; // 2\" (51mm) + a little wall\n const topID = topOD - wallT * 2;\n\n const seg = 96; // smooth circles for vase mode\n const gap = 110; // spacing between parts for display\n\n // ═══ PART 1: Bottom sleeve ═══\n // Simple straight cylinder, no bottom\n const p1Outer = cylinder({\n radius: bodyOD / 2,\n height: part1H,\n center: [0, 0, part1H / 2],\n segments: seg\n });\n const p1Inner = cylinder({\n radius: bodyID / 2,\n height: part1H + 2,\n center: [0, 0, part1H / 2],\n segments: seg\n });\n const part1 = subtract(p1Outer, p1Inner);\n\n // ═══ PART 2: Top sleeve with taper ═══\n // Bottom overlap zone: slightly wider to slide over part 1\n const overlapOD = bodyOD + overlapGap * 2 + wallT * 2;\n const overlapID = bodyOD + overlapGap * 2;\n\n const overlapOuter = cylinder({\n radius: overlapOD / 2,\n height: overlapH,\n center: [0, 0, overlapH / 2],\n segments: seg\n });\n const overlapInner = cylinder({\n radius: overlapID / 2,\n height: overlapH + 2,\n center: [0, 0, overlapH / 2],\n segments: seg\n });\n const overlapRing = subtract(overlapOuter, overlapInner);\n\n // Straight section above overlap (same diameter as body)\n const straightH = taperStartH - overlapH;\n const straightOuter = cylinder({\n radius: bodyOD / 2,\n height: straightH,\n center: [0, 0, overlapH + straightH / 2],\n segments: seg\n });\n const straightInner = cylinder({\n radius: bodyID / 2,\n height: straightH + 2,\n center: [0, 0, overlapH + straightH / 2],\n segments: seg\n });\n const straightSection = subtract(straightOuter, straightInner);\n\n // Taper section: cone from body diameter to 2\" opening\n const taperH = part2H - taperStartH;\n const taperOuter = cylinderElliptic({\n startRadius: [bodyOD / 2, bodyOD / 2],\n endRadius: [topOD / 2, topOD / 2],\n height: taperH,\n center: [0, 0, taperStartH + taperH / 2],\n segments: seg\n });\n const taperInner = cylinderElliptic({\n startRadius: [bodyID / 2, bodyID / 2],\n endRadius: [topID / 2, topID / 2],\n height: taperH + 2,\n center: [0, 0, taperStartH + taperH / 2],\n segments: seg\n });\n const taperSection = subtract(taperOuter, taperInner);\n\n const part2 = union(overlapRing, straightSection, taperSection);\n\n // ═══ LAYOUT: side by side ═══\n return union(\n translate([-gap / 2, 0, 0], part1),\n translate([gap / 2, 0, 0], part2)\n );\n `,\n};\n\nexport default example;\n",[],[219,862],"f284fe98-04fe-11f1-b891-42dde27851f2","bottleSleeve.ts","019c3dc4-fdf2-76fa-8252-712f9b17b1c7",["D",1770562846100],"import type { Example } from \"./types.ts\";\n\nconst bottleSleeve: Example = {\n id: \"bottleSleeve\",\n icon: \"🧴\",\n name: \"Bottle Sleeve\",\n desc: \"Drop-over sleeve for a 500ml plastic water bottle — open top & bottom\",\n size: \"70 × 70 × 140 mm\",\n time: \"~2 hrs\",\n generatorBody: `\n // Water bottle sleeve — open bottom, tapers up, open mouth at top\n // Fits standard 500ml bottle (~65mm body, ~28mm cap)\n // Wall thickness ~2mm, profile traced as cross-section for LatheGeometry\n\n const wall = 2;\n const bodyR = 34; // outer radius at bottom (68mm dia)\n const mouthR = 17; // outer radius at top opening (34mm dia, fits over cap area)\n const straightH = 80; // straight body section height\n const taperH = 55; // taper section height\n const totalH = straightH + taperH; // 135mm total\n const lipH = 5; // small rolled lip at top\n\n const pts = [];\n\n // Trace outer wall bottom-to-top, then inner wall top-to-bottom\n // OUTER wall (bottom up)\n // Small foot flare at very bottom\n pts.push(new THREE.Vector2(bodyR + 1, 0));\n pts.push(new THREE.Vector2(bodyR, 3));\n\n // Straight body section\n pts.push(new THREE.Vector2(bodyR, straightH));\n\n // Taper section — gentle curve up to mouth\n const taperSteps = 20;\n for (let i = 1; i <= taperSteps; i++) {\n const t = i / taperSteps;\n // Ease-in curve for natural taper\n const ease = t * t * (3 - 2 * t);\n const r = bodyR - (bodyR - mouthR) * ease;\n const y = straightH + t * taperH;\n pts.push(new THREE.Vector2(r, y));\n }\n\n // Lip at top (small outward roll)\n pts.push(new THREE.Vector2(mouthR + 1.5, totalH + lipH * 0.5));\n pts.push(new THREE.Vector2(mouthR + 1, totalH + lipH));\n\n // INNER wall (top down)\n pts.push(new THREE.Vector2(mouthR + 1 - wall, totalH + lipH));\n pts.push(new THREE.Vector2(mouthR - wall + 1, totalH + lipH * 0.5));\n\n // Inner taper (reverse)\n for (let i = taperSteps; i >= 1; i--) {\n const t = i / taperSteps;\n const ease = t * t * (3 - 2 * t);\n const r = (bodyR - wall) - ((bodyR - wall) - (mouthR - wall)) * ease;\n const y = straightH + t * taperH;\n pts.push(new THREE.Vector2(r, y));\n }\n\n // Inner straight section\n pts.push(new THREE.Vector2(bodyR - wall, straightH));\n pts.push(new THREE.Vector2(bodyR - wall, 3));\n pts.push(new THREE.Vector2(bodyR + 1 - wall, 0));\n\n return new THREE.LatheGeometry(pts, 48);\n `,\n};\n\nexport default bottleSleeve;\n",[],[219,870],"43c70a24-367f-11f1-b360-42b51c65c3df","bottleShell.ts","34fd5746-367f-11f1-a876-42b51c65c3df",125,["D",1776005565092],"import type { Example } from \"./types.ts\";\n\nconst example: Example = {\n id: \"bottleShell\",\n icon: \"🫙\",\n name: \"Bottle Shell (C-Shape)\",\n desc: \"180mm tall shell, 36mm outer radius, 0.8mm wall, with a 10mm vertical cutout for a C-shaped cross-section.\",\n size: \"~72 × 72 × 180mm\",\n time: \"~30 min\",\n generatorBody: `\n const { cylinder, cuboid } = jscad.primitives;\n const { subtract } = jscad.booleans;\n const { translate } = jscad.transforms;\n\n const outerR = 36;\n const wall = 0.8;\n const innerR = outerR - wall;\n const h = 180;\n const cutWidth = 10;\n const seg = 128;\n\n // Hollow cylinder (shell)\n const shell = subtract(\n cylinder({ radius: outerR, height: h, segments: seg }),\n cylinder({ radius: innerR, height: h + 2, segments: seg })\n );\n\n // Cut a 10mm wide strip out of one side (centered on +X axis)\n const cutter = cuboid({\n size: [outerR * 2 + 2, cutWidth, h + 4],\n center: [outerR, 0, 0]\n });\n\n return translate([0, 0, h / 2], subtract(shell, cutter));\n `,\n};\n\nexport default example;\n",[],[219,877],"35cbe8e0-0a88-11f1-94e0-42dde27851f2","bottleRingTest.ts","cd02a27c-0a87-11f1-bee6-42dde27851f2",32,["D",1771171555948],"import type { Example } from \"./types.ts\";\n\nconst example: Example = {\n id: \"bottleRingTest\",\n icon: \"⭕\",\n name: \"Bottle Neck Ring Tester\",\n desc: \"6 test rings: 27–32mm ID in 2×3 grid. Top row L→R: 27, 28, 29. Bottom row: 30, 31, 32. 2mm tall, 2mm walls.\",\n size: \"~116 × 80 × 2mm\",\n time: \"~8 min\",\n generatorBody: `\n const { cylinder } = jscad.primitives;\n const { subtract, union } = jscad.booleans;\n const { translate } = jscad.transforms;\n\n const diameters = [27, 28, 29, 30, 31, 32];\n const wall = 2;\n const h = 2;\n const seg = 64;\n\n // 2 rows of 3\n const cols = 3;\n const hSpacing = 40; // center-to-center horizontal\n const vSpacing = 42; // center-to-center vertical\n\n const parts = [];\n for (let i = 0; i < diameters.length; i++) {\n const row = Math.floor(i / cols);\n const col = i % cols;\n const innerR = diameters[i] / 2;\n const outerR = innerR + wall;\n\n const x = (col - 1) * hSpacing;\n const y = (0.5 - row) * vSpacing;\n\n parts.push(\n translate([x, y, h / 2],\n subtract(\n cylinder({ radius: outerR, height: h, segments: seg }),\n cylinder({ radius: innerR, height: h + 2, segments: seg })\n )\n )\n );\n }\n\n return union(...parts);\n `,\n};\n\nexport default example;\n",[],[219,885],"f284d8a0-04fe-11f1-b891-42dde27851f2","bottleManifold.ts","019c3dc4-fdf2-76fa-8252-6c51afba2953",["D",1770562846100],"import type { Example } from \"./types.ts\";\n\nconst bottleManifold: Example = {\n id: \"bottleManifold\",\n icon: \"🔀\",\n name: \"Bottle Manifold\",\n desc: \"Hub connecting 3 bottle ports (PCO 1881 neck) to an open pour mouth\",\n size: \"110 × 110 × 65 mm\",\n time: \"~3 hrs\",\n generatorBody: `\n // Bottle Manifold — 3 threaded bottle ports + open top mouth\n // Bottle neck PCO 1881: ~27mm OD, so female port ~29mm ID\n // Ports angled 30° below horizontal, 120° apart\n // Central hub connects everything, open pour spout on top\n\n const geos = [];\n\n // ── CENTRAL HUB ──\n const hubR = 28, hubCY = 24;\n // Sphere with top cut off so mouth connects to interior\n // thetaStart=0.35 skips the top cap, leaving an opening\n const hub = new THREE.SphereGeometry(hubR, 48, 32, 0, Math.PI * 2, 0.35, Math.PI - 0.35);\n hub.scale(1.0, 0.75, 1.0);\n hub.translate(0, hubCY, 0);\n geos.push(hub);\n\n // Flat base — small enough to avoid clipping the angled ports\n const basePlate = new THREE.CylinderGeometry(18, 22, 5, 48);\n basePlate.translate(0, 2.5, 0);\n geos.push(basePlate);\n\n // Decorative ring around hub equator\n const eqRing = new THREE.TorusGeometry(hubR + 1, 1.5, 10, 48);\n eqRing.rotateX(Math.PI / 2);\n eqRing.translate(0, hubCY, 0);\n geos.push(eqRing);\n\n // ── TOP MOUTH (open pour spout) ──\n const mouthR = 17, mouthWall = 3.5, mouthH = 24;\n const mouthY = hubCY + hubR * 0.5;\n\n // Collar cylinder\n const collar = new THREE.CylinderGeometry(\n mouthR + mouthWall, mouthR + mouthWall + 1, mouthH, 36, 1, true\n );\n collar.translate(0, mouthY + mouthH / 2, 0);\n geos.push(collar);\n\n // Rolled lip at top\n const lip = new THREE.TorusGeometry(mouthR + mouthWall, 2.5, 12, 36);\n lip.rotateX(Math.PI / 2);\n lip.translate(0, mouthY + mouthH, 0);\n geos.push(lip);\n\n // Inner ring (visual indication of opening)\n const innerRing = new THREE.TorusGeometry(mouthR, 1.2, 8, 36);\n innerRing.rotateX(Math.PI / 2);\n innerRing.translate(0, mouthY + mouthH - 0.5, 0);\n geos.push(innerRing);\n\n // ── 3 BOTTLE PORTS ──\n // Port inner dia ~29mm to accept standard bottle neck (~27mm OD)\n const portR = 14.5;\n const portLen = 34;\n\n // Tilt: rotateZ(-120°) gives axis direction (0.87, -0.5, 0)\n // = 30° below horizontal\n const tiltZ = -2 * Math.PI / 3;\n\n // Compute translation so inner end overlaps into hub\n // After rotateZ(tiltZ), inner end at (-0.433*L, 0.25*L, 0)\n const sinA = Math.sin(2 * Math.PI / 3); // 0.866\n const cosA = Math.cos(2 * Math.PI / 3); // -0.5\n const innerRawX = cosA * (-portLen / 2) * 0 - (-portLen / 2) * (-sinA);\n // Simpler: after rotateZ(-120°), point (0, -L/2, 0) maps to:\n // x = L/2 * sin(-120°) = -L/2 * sin(120°) = -0.433*L\n // y = -L/2 * cos(-120°) = -L/2 * (-0.5) = 0.25*L\n const halfL = portLen / 2;\n const iex = -0.433 * portLen; // inner end X after rotation\n const iey = 0.25 * portLen; // inner end Y after rotation\n const tx = hubR * 0.35 - iex; // target inner end inside hub\n const ty = hubCY - iey;\n\n // Build one port set (tube + thread ridges + rim + fillet)\n // then clone & spin for each of 3 positions\n function buildPort() {\n const parts = [];\n\n // Main tube (slight taper: wider at opening end)\n const tube = new THREE.CylinderGeometry(portR, portR + 0.5, portLen, 24, 1, true);\n tube.rotateZ(tiltZ);\n tube.translate(tx, ty, 0);\n parts.push(tube);\n\n // Thread ridges — 4 rings along outer half of port\n for (let j = 0; j < 4; j++) {\n const d = portLen * 0.32 + j * 4.5;\n const ridge = new THREE.TorusGeometry(portR - 1.5, 0.9, 8, 24);\n ridge.rotateX(Math.PI / 2);\n ridge.translate(0, -halfL + d, 0);\n ridge.rotateZ(tiltZ);\n ridge.translate(tx, ty, 0);\n parts.push(ridge);\n }\n\n // Flared rim at port opening\n const rim = new THREE.TorusGeometry(portR + 2.5, 2, 12, 24);\n rim.rotateX(Math.PI / 2);\n rim.translate(0, halfL, 0);\n rim.rotateZ(tiltZ);\n rim.translate(tx, ty, 0);\n parts.push(rim);\n\n // Reinforcement fillet where port meets hub\n const fillet = new THREE.TorusGeometry(portR + 5, 3.5, 12, 24);\n fillet.rotateX(Math.PI / 2);\n fillet.translate(0, -halfL + 3, 0);\n fillet.rotateZ(tiltZ);\n fillet.translate(tx, ty, 0);\n parts.push(fillet);\n\n return parts;\n }\n\n const portParts = buildPort();\n for (let i = 0; i < 3; i++) {\n const az = i * 2 * Math.PI / 3;\n for (const g of portParts) {\n const p = g.clone();\n p.rotateY(az);\n geos.push(p);\n }\n }\n\n return mergeGeos(geos);\n `,\n};\n\nexport default bottleManifold;\n",[],[219,893],"81b79b28-41e7-11f1-ab99-42b51c65c3df","bokashiDrainageThird135.ts","81b79c04-41e7-11f1-ab99-42b51c65c3df",251,["D",1777259799467],"import type { Example } from \"./types.ts\";\n\nconst example: Example = {\n id: \"bokashiDrainageThird135\",\n icon: \"🪣\",\n name: \"Bokashi Drainage Platform (1/3 — 13.5cm)\",\n desc:\n \"120° wedge at Ø135mm — print 2× and pair with the original Ø160 wedge for an asymmetric assembly. 3mm-thick mesh (3mm holes, 1mm bars), 40mm-tall supports, castellated outer wall + 2 centerline pillars.\",\n size: \"~Ø135 wedge × 43mm\",\n time: \"~2.5 hr\",\n generatorBody: `\n const { cylinder, cuboid, polygon } = jscad.primitives;\n const { union, subtract, intersect } = jscad.booleans;\n const { translate, rotate } = jscad.transforms;\n const { extrudeLinear } = jscad.extrusions;\n\n // ─── Dimensions ───\n const outerR = 67.5; // 135mm OD\n const innerR = 5;\n const innerSolidW = 3;\n const outerSolidW = 4;\n const radialEdgeW = 3;\n const meshH = 3;\n const supportH = 40;\n const wallT = 3;\n const pillarR = 4;\n const holeSize = 3;\n const barW = 1;\n const seg = 96;\n const wedgeAngle = (2 * Math.PI) / 3;\n const halfAngle = wedgeAngle / 2;\n const innerSolidR = innerR + innerSolidW;\n const outerSolidR = outerR - outerSolidW;\n const pitch = holeSize + barW;\n const meshZ = supportH + meshH / 2;\n const supportZ = supportH / 2;\n const dr = Math.PI / 180;\n\n // ─── Wedge mask ───\n function wedgeMask(rOuter, height, centerZ) {\n const numSteps = 60;\n const points = [[0, 0]];\n for (let i = 0; i <= numSteps; i++) {\n const a = -halfAngle + wedgeAngle * i / numSteps;\n points.push([Math.cos(a) * rOuter, Math.sin(a) * rOuter]);\n }\n return translate([0, 0, centerZ - height / 2],\n extrudeLinear({ height }, polygon({ points })));\n }\n\n const meshMask = wedgeMask(outerR + 5, meshH + 2, meshZ);\n\n // ─── Build full-disk mesh, then clip to wedge ───\n const fullMesh = [];\n\n fullMesh.push(subtract(\n cylinder({ radius: outerR, height: meshH, center: [0, 0, meshZ], segments: seg }),\n cylinder({ radius: outerSolidR, height: meshH + 2, center: [0, 0, meshZ], segments: seg })\n ));\n\n fullMesh.push(subtract(\n cylinder({ radius: innerSolidR, height: meshH, center: [0, 0, meshZ], segments: seg }),\n cylinder({ radius: innerR, height: meshH + 2, center: [0, 0, meshZ], segments: seg })\n ));\n\n for (let y = -outerSolidR; y <= outerSolidR; y += pitch) {\n const y2 = y * y;\n if (y2 >= outerSolidR * outerSolidR) continue;\n const xOuter = Math.sqrt(outerSolidR * outerSolidR - y2);\n\n if (y2 < innerSolidR * innerSolidR) {\n const xInner = Math.sqrt(innerSolidR * innerSolidR - y2);\n const x0 = xInner - barW;\n const x1 = xOuter + barW;\n const segLen = x1 - x0;\n if (segLen > barW) {\n fullMesh.push(translate([-(x0 + x1) / 2, y, meshZ],\n cuboid({ size: [segLen, barW, meshH] })));\n fullMesh.push(translate([(x0 + x1) / 2, y, meshZ],\n cuboid({ size: [segLen, barW, meshH] })));\n }\n } else {\n const x0 = -xOuter - barW;\n const x1 = xOuter + barW;\n const segLen = x1 - x0;\n if (segLen > barW) {\n fullMesh.push(translate([0, y, meshZ],\n cuboid({ size: [segLen, barW, meshH] })));\n }\n }\n }\n\n for (let x = -outerSolidR; x <= outerSolidR; x += pitch) {\n const x2 = x * x;\n if (x2 >= outerSolidR * outerSolidR) continue;\n const yOuter = Math.sqrt(outerSolidR * outerSolidR - x2);\n\n if (x2 < innerSolidR * innerSolidR) {\n const yInner = Math.sqrt(innerSolidR * innerSolidR - x2);\n const y0 = yInner - barW;\n const y1 = yOuter + barW;\n const segLen = y1 - y0;\n if (segLen > barW) {\n fullMesh.push(translate([x, -(y0 + y1) / 2, meshZ],\n cuboid({ size: [barW, segLen, meshH] })));\n fullMesh.push(translate([x, (y0 + y1) / 2, meshZ],\n cuboid({ size: [barW, segLen, meshH] })));\n }\n } else {\n const y0 = -yOuter - barW;\n const y1 = yOuter + barW;\n const segLen = y1 - y0;\n if (segLen > barW) {\n fullMesh.push(translate([x, 0, meshZ],\n cuboid({ size: [barW, segLen, meshH] })));\n }\n }\n }\n\n const wedgeMesh = intersect(union(...fullMesh), meshMask);\n\n // ─── Radial edge frames (mesh-level) ───\n function buildRadialFrame(angleRad, sign) {\n const len = outerR - innerR;\n const strip = cuboid({\n size: [len, radialEdgeW, meshH],\n center: [(innerR + outerR) / 2, sign * radialEdgeW / 2, meshZ]\n });\n return rotate([0, 0, angleRad], strip);\n }\n const radialFrames = union(\n buildRadialFrame(-halfAngle, +1),\n buildRadialFrame(+halfAngle, -1)\n );\n\n // ─── Castellated outer arc wall ───\n function arcSegment(a0, a1) {\n const numSteps = 30;\n const points = [];\n for (let i = 0; i <= numSteps; i++) {\n const a = a0 + (a1 - a0) * i / numSteps;\n points.push([Math.cos(a) * outerR, Math.sin(a) * outerR]);\n }\n for (let i = numSteps; i >= 0; i--) {\n const a = a0 + (a1 - a0) * i / numSteps;\n points.push([Math.cos(a) * (outerR - wallT), Math.sin(a) * (outerR - wallT)]);\n }\n return extrudeLinear({ height: supportH }, polygon({ points }));\n }\n\n // Same 25° + 15° gap + 40° + 15° gap + 25° = 120° layout as the big version\n const cornerSeg = 25 * dr;\n const midSeg = 40 * dr;\n const arcSeg1 = arcSegment(-halfAngle, -halfAngle + cornerSeg);\n const arcSeg2 = arcSegment(-midSeg / 2, midSeg / 2);\n const arcSeg3 = arcSegment(halfAngle - cornerSeg, halfAngle);\n\n // ─── Internal pillars (centerline) ───\n // Apex pillar: just inside the inner solid ring (same as big version)\n const apexPillar = cylinder({\n radius: pillarR,\n height: supportH,\n center: [innerSolidR + pillarR + 1, 0, supportZ],\n segments: 24\n });\n // Mid-radius pillar: scaled down — mid-point between inner ring and outer wall\n const midPillar = cylinder({\n radius: pillarR + 1,\n height: supportH,\n center: [38, 0, supportZ],\n segments: 24\n });\n\n return union(\n wedgeMesh,\n radialFrames,\n arcSeg1, arcSeg2, arcSeg3,\n apexPillar,\n midPillar\n );\n `,\n};\n\nexport default example;\n",[],[219,900],"e0954022-41cf-11f1-90c3-42b51c65c3df","bokashiDrainageThird.ts","e09540ea-41cf-11f1-90c3-42b51c65c3df",248,["D",1777249650693],"import type { Example } from \"./types.ts\";\n\nconst example: Example = {\n id: \"bokashiDrainageThird\",\n icon: \"🪣\",\n name: \"Bokashi Drainage Platform (1/3)\",\n desc:\n \"120° wedge — 3 of these form a Ø160mm porous platform raised 40mm. 3mm-thick mesh (3mm holes, 1mm bars). Castellated outer wall + 2 centerline pillars; radial edges open for drainage.\",\n size: \"~Ø160 wedge × 43mm\",\n time: \"~3 hr\",\n generatorBody: `\n const { cylinder, cuboid, polygon } = jscad.primitives;\n const { union, subtract, intersect } = jscad.booleans;\n const { translate, rotate } = jscad.transforms;\n const { extrudeLinear } = jscad.extrusions;\n\n // ─── Dimensions ───\n const outerR = 80; // 160mm OD disk\n const innerR = 5; // small apex radius (3 pieces leave a tiny ~10mm hole at center)\n const innerSolidW = 3; // inner solid arc width\n const outerSolidW = 4; // outer solid arc width\n const radialEdgeW = 3; // solid frame along the two cut edges\n const meshH = 3; // mesh thickness\n const supportH = 40; // 4cm raised\n const wallT = 3; // support wall thickness\n const pillarR = 4; // internal pillar radius\n const holeSize = 3; // mesh hole size\n const barW = 1; // mesh bar width\n const seg = 96;\n const wedgeAngle = (2 * Math.PI) / 3; // 120°\n const halfAngle = wedgeAngle / 2; // 60°\n const innerSolidR = innerR + innerSolidW; // 8\n const outerSolidR = outerR - outerSolidW; // 76\n const pitch = holeSize + barW; // 4\n const meshZ = supportH + meshH / 2;\n const supportZ = supportH / 2;\n const dr = Math.PI / 180;\n\n // ─── Wedge mask (pie slice) ───\n function wedgeMask(rOuter, height, centerZ) {\n const numSteps = 60;\n const points = [[0, 0]];\n for (let i = 0; i <= numSteps; i++) {\n const a = -halfAngle + wedgeAngle * i / numSteps;\n points.push([Math.cos(a) * rOuter, Math.sin(a) * rOuter]);\n }\n return translate([0, 0, centerZ - height / 2],\n extrudeLinear({ height }, polygon({ points })));\n }\n\n const meshMask = wedgeMask(outerR + 5, meshH + 2, meshZ);\n\n // ─── Build full-disk mesh, then clip to wedge ───\n const fullMesh = [];\n\n // Outer solid ring\n fullMesh.push(subtract(\n cylinder({ radius: outerR, height: meshH, center: [0, 0, meshZ], segments: seg }),\n cylinder({ radius: outerSolidR, height: meshH + 2, center: [0, 0, meshZ], segments: seg })\n ));\n\n // Inner solid ring\n fullMesh.push(subtract(\n cylinder({ radius: innerSolidR, height: meshH, center: [0, 0, meshZ], segments: seg }),\n cylinder({ radius: innerR, height: meshH + 2, center: [0, 0, meshZ], segments: seg })\n ));\n\n // Horizontal mesh bars\n for (let y = -outerSolidR; y <= outerSolidR; y += pitch) {\n const y2 = y * y;\n if (y2 >= outerSolidR * outerSolidR) continue;\n const xOuter = Math.sqrt(outerSolidR * outerSolidR - y2);\n\n if (y2 < innerSolidR * innerSolidR) {\n const xInner = Math.sqrt(innerSolidR * innerSolidR - y2);\n const x0 = xInner - barW;\n const x1 = xOuter + barW;\n const segLen = x1 - x0;\n if (segLen > barW) {\n fullMesh.push(translate([-(x0 + x1) / 2, y, meshZ],\n cuboid({ size: [segLen, barW, meshH] })));\n fullMesh.push(translate([(x0 + x1) / 2, y, meshZ],\n cuboid({ size: [segLen, barW, meshH] })));\n }\n } else {\n const x0 = -xOuter - barW;\n const x1 = xOuter + barW;\n const segLen = x1 - x0;\n if (segLen > barW) {\n fullMesh.push(translate([0, y, meshZ],\n cuboid({ size: [segLen, barW, meshH] })));\n }\n }\n }\n\n // Vertical mesh bars\n for (let x = -outerSolidR; x <= outerSolidR; x += pitch) {\n const x2 = x * x;\n if (x2 >= outerSolidR * outerSolidR) continue;\n const yOuter = Math.sqrt(outerSolidR * outerSolidR - x2);\n\n if (x2 < innerSolidR * innerSolidR) {\n const yInner = Math.sqrt(innerSolidR * innerSolidR - x2);\n const y0 = yInner - barW;\n const y1 = yOuter + barW;\n const segLen = y1 - y0;\n if (segLen > barW) {\n fullMesh.push(translate([x, -(y0 + y1) / 2, meshZ],\n cuboid({ size: [barW, segLen, meshH] })));\n fullMesh.push(translate([x, (y0 + y1) / 2, meshZ],\n cuboid({ size: [barW, segLen, meshH] })));\n }\n } else {\n const y0 = -yOuter - barW;\n const y1 = yOuter + barW;\n const segLen = y1 - y0;\n if (segLen > barW) {\n fullMesh.push(translate([x, 0, meshZ],\n cuboid({ size: [barW, segLen, meshH] })));\n }\n }\n }\n\n const wedgeMesh = intersect(union(...fullMesh), meshMask);\n\n // ─── Radial edge frames (mesh-level) ───\n // Place each strip ENTIRELY inside the wedge so it isn't sliced thin by the mask.\n function buildRadialFrame(angleRad, sign) {\n const len = outerR - innerR;\n const strip = cuboid({\n size: [len, radialEdgeW, meshH],\n center: [(innerR + outerR) / 2, sign * radialEdgeW / 2, meshZ]\n });\n return rotate([0, 0, angleRad], strip);\n }\n const radialFrames = union(\n buildRadialFrame(-halfAngle, +1), // bottom edge → offset toward +y in rotated frame\n buildRadialFrame(+halfAngle, -1) // top edge → offset toward -y in rotated frame\n );\n\n // ─── Castellated outer arc wall (3 segments with 2 gaps) ───\n function arcSegment(a0, a1) {\n const numSteps = 30;\n const points = [];\n for (let i = 0; i <= numSteps; i++) {\n const a = a0 + (a1 - a0) * i / numSteps;\n points.push([Math.cos(a) * outerR, Math.sin(a) * outerR]);\n }\n for (let i = numSteps; i >= 0; i--) {\n const a = a0 + (a1 - a0) * i / numSteps;\n points.push([Math.cos(a) * (outerR - wallT), Math.sin(a) * (outerR - wallT)]);\n }\n return extrudeLinear({ height: supportH }, polygon({ points }));\n }\n\n // Layout: 25° + 15° gap + 40° + 15° gap + 25° = 120° ✓\n const cornerSeg = 25 * dr;\n const midSeg = 40 * dr;\n const arcSeg1 = arcSegment(-halfAngle, -halfAngle + cornerSeg);\n const arcSeg2 = arcSegment(-midSeg / 2, midSeg / 2);\n const arcSeg3 = arcSegment(halfAngle - cornerSeg, halfAngle);\n\n // ─── Internal pillars (centerline) ───\n // Apex pillar: just inside the inner solid ring\n const apexPillar = cylinder({\n radius: pillarR,\n height: supportH,\n center: [innerSolidR + pillarR + 1, 0, supportZ],\n segments: 24\n });\n // Mid-radius pillar\n const midPillar = cylinder({\n radius: pillarR + 1,\n height: supportH,\n center: [45, 0, supportZ],\n segments: 24\n });\n\n return union(\n wedgeMesh,\n radialFrames,\n arcSeg1, arcSeg2, arcSeg3,\n apexPillar,\n midPillar\n );\n `,\n};\n\nexport default example;\n",[],[219,908],"b6ce8e22-36d7-11f1-b12a-42b51c65c3df","bodkin.ts","e786bc0c-36d6-11f1-8d66-42b51c65c3df",135,["D",1776043553795],"import type { Example } from \"./types.ts\";\n\nconst example: Example = {\n id: \"bodkin\",\n icon: \"🪡\",\n name: \"Drawstring Bodkin\",\n desc: \"254mm long bodkin/threader. 2×2mm cross-section, tapered point, smooth wedge to long oval eye for 3mm string. Diagonal of A1 Mini bed.\",\n size: \"~254 × 5 × 2mm\",\n time: \"~12 min\",\n generatorBody: `\n const { cuboid, cylinder } = jscad.primitives;\n const { subtract, union } = jscad.booleans;\n const { translate } = jscad.transforms;\n const { hull } = jscad.hulls;\n\n const totalLen = 254.5;\n const thick = 2;\n const w = 2;\n const tipLen = 12;\n const eyeWidth = 5;\n const eyeLen = 20;\n const eyeHoleW = 3.4;\n const eyeHoleL = 16;\n const wedgeLen = 15;\n const seg = 48;\n\n const blk = (x, bw) => cuboid({ size: [0.1, bw, thick], center: [x, 0, 0] });\n\n // Pointed tip\n const tip = hull(\n blk(tipLen, w),\n cuboid({ size: [0.1, 0.4, thick * 0.6], center: [0, 0, 0] })\n );\n\n // Main body (shortened to keep total at 254.5)\n const bodyEnd = totalLen - wedgeLen - eyeLen;\n const body = cuboid({\n size: [bodyEnd - tipLen, w, thick],\n center: [tipLen + (bodyEnd - tipLen) / 2, 0, 0]\n });\n\n // Wedge taper\n const wedge = hull(\n blk(bodyEnd, w),\n blk(bodyEnd + wedgeLen, eyeWidth)\n );\n\n // Eye section\n const eyeBlock = cuboid({\n size: [eyeLen, eyeWidth, thick],\n center: [bodyEnd + wedgeLen + eyeLen / 2, 0, 0]\n });\n\n // Rounded tail\n const tailCap = translate(\n [bodyEnd + wedgeLen + eyeLen, 0, 0],\n cylinder({ radius: eyeWidth / 2, height: thick, segments: seg })\n );\n\n // Longer oval eye hole\n const holeC = cylinder({ radius: eyeHoleW / 2, height: thick + 2, segments: seg });\n const eyeCenterX = bodyEnd + wedgeLen + eyeLen / 2;\n const eyeHole = hull(\n translate([eyeCenterX - eyeHoleL / 2 + eyeHoleW / 2, 0, 0], holeC),\n translate([eyeCenterX + eyeHoleL / 2 - eyeHoleW / 2, 0, 0], holeC)\n );\n\n const bodkin = subtract(\n union(tip, body, wedge, eyeBlock, tailCap),\n eyeHole\n );\n\n return translate([0, 0, thick / 2], bodkin);\n `,\n};\n\nexport default example;\n",[],[219,916],["D",1770562846100],[235,236,237,238,239,240,241,242,243,244,245,246,247,248,249,250,251,252,253,254,255,256,257,258,259,260,261,262,263,264,265,266,267,268,269,270,271,272,273,274,275,276,277,278,279,280,281,282,283,284,285,286,287,288,289,290,291,292,293,294,295,296,297,298,299,300,301,302,303,304],[219],["D",1770562846100],{"_99":98,"_107":103},{"_99":98,"_100":101,"_102":103,"_18":54,"_104":105,"_106":24},{"_13":85,"_31":86,"_42":41,"_87":43,"_88":89,"_90":91,"_92":49,"_93":94,"_95":64,"_96":44,"_97":98},"ctx",{"_78":-5,"_129":963,"_964":965,"_966":967,"_968":24,"_969":24,"_970":24,"_971":58,"_972":-5,"_973":-7,"_974":-7,"_975":62,"_976":24,"_977":24,"_978":-5,"_979":24,"_980":24,"_981":24,"_982":-5},"ENV",{"_934":935,"_936":937,"_938":86,"_939":940,"_941":942,"_943":944,"_945":946,"_947":948,"_949":950,"_951":952,"_953":954,"_955":956,"_957":958,"_959":960,"_961":962},"REACT_APP_SENTRY_DSN","https://586020d86f05489db63a554690acf1e9@o1398359.ingest.sentry.io/6724499","RENDER_GIT_COMMIT","e87eb04e707cf64e7e532c8e8ec395f209e17f15","RENDER_GIT_BRANCH","POSTHOG_API_TOKEN","phc_nmoyuAkStEZuUp69rYlg1DZgrIt19Gx0Y4Hwf8tGgJP","POSTHOG_API_HOST","https://wart.val.town","WEB_API_TEMPLATE","https://{val}.web.val.run","APP_URL","https://www.val.town","MODULE_URL","https://esm.town","VANITY_WEB_API_TEMPLATE","https://{label}.val.run/","DENOLS_URL","https://lsp.val.town","NODE_ENV","production","CLOUDFLARE_TURNSTILE_SITE_KEY","0x4AAAAAACtaIZJH7s9rBMZ6","GOOGLE_CLIENT_ID","875989696899-jtsqkhlbdv5jrlsk8631p7ipjg3c6o62.apps.googleusercontent.com","STRIPE_PUBLISHABLE_KEY","pk_live_51N2zvWEpZTTLipIkVEwXrUG9AT0yeOOEYxszarZT1jpsZV58Ly6wlg3SltZpHN26CUalOBmUSY7adQRQiSkCZz2500qSXNkf8Y","API_URL","https://api.val.town",[],"preferencesKeybindings","default","preferencesTheme","light","preferencesFixers","preferencesCopilot","preferencesSelectionAi","preferencesCloseBrackets","preferencesChatPanelState","preferencesDprint","preferencesDenofmt","notificationCount","flagDenols","isBusinessOrgMember","businessOrgHandle","isBusinessOrgAdmin","isHigherTownieTier","navCollapsed","currentOrgId"]

Vase Creator

Outer profile

Inner bore

Model Analysis

◆ STL CREATOR

Diff · v269