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buildTripoSplatEncoderTensors,
compositeRgbaOnBlack,
imageBitmapToRgba,
} from './models/triposplat/preprocess'
import { compareFloat32, type TensorComparison } from './models/triposplat/tensorMath'
import { OrtWorkerClient } from './runtime/OrtWorkerClient'
import { createTensorPayload, type TensorPayload } from './runtime/tensors'
const SESSION_ID = 'triposplat/dinov3-parity'
const SHAPES = {
pixelValues: [1, 3, 1024, 1024],
feature1: [1, 4101, 1280],
} as const
interface NumericTolerance {
absolute: number
relative: number
minimumCosineSimilarity: number
}
const DEFAULT_TOLERANCES: { strict: NumericTolerance; qualification: NumericTolerance } = {
strict: { absolute: 0.03, relative: 0.03, minimumCosineSimilarity: 0.99999 },
qualification: { absolute: 0.15, relative: 0.03, minimumCosineSimilarity: 0.99999 },
}
interface ToleranceGate extends TensorComparison {
fractionWithinTolerance: number
maxErrorIndex: number
referenceAtMaxError: number
candidateAtMaxError: number
passed: boolean
}
interface DinoLabResult {
passed: boolean
strictPassed: boolean
executionProvider: string
modelLoadMs: number
modelTransferBytes?: number
inferenceMs: number
readbackMs: number
preprocessing: TensorComparison
strictComparison: ToleranceGate
qualificationComparison: ToleranceGate
tolerances: {
strict: NumericTolerance
qualification: NumericTolerance
}
environment: { userAgent: string; crossOriginIsolated: boolean; webgpu: boolean }
}
declare global {
interface Window {
__TRIPOSPLAT_DINO_RESULT__?: DinoLabResult
}
}
const modelInput = document.querySelector<HTMLInputElement>('#model')!
const fixtureInput = document.querySelector<HTMLInputElement>('#fixture')!
const runButton = document.querySelector<HTMLButtonElement>('#run')!
const statusElement = document.querySelector<HTMLElement>('[data-testid="dino-status"]')!
const errorElement = document.querySelector<HTMLPreElement>('[data-testid="dino-error"]')!
const resultElement = document.querySelector<HTMLPreElement>('[data-testid="dino-result"]')!
let activeClient: OrtWorkerClient | undefined
let busy = false
function elementCount(shape: readonly number[]): number {
return shape.reduce((product, value) => product * value, 1)
}
async function fetchFloat32(url: string, expectedElements: number): Promise<Float32Array> {
const response = await fetch(url)
if (!response.ok) throw new Error(`Could not fetch ${url}: HTTP ${response.status}`)
const buffer = await response.arrayBuffer()
if (buffer.byteLength !== expectedElements * 4) {
throw new Error(`${url} has ${buffer.byteLength} bytes; expected ${expectedElements * 4}.`)
}
return new Float32Array(buffer)
}
async function contentLength(url: string): Promise<number | undefined> {
try {
const response = await fetch(url, { method: 'HEAD' })
if (!response.ok) return undefined
const value = Number(response.headers.get('content-length'))
return Number.isFinite(value) && value >= 0 ? value : undefined
} catch {
return undefined
}
}
function payloadFloat32(payload: TensorPayload | undefined): Float32Array {
if (!payload || payload.type !== 'float32') {
throw new Error("Output 'feature1' is missing or is not float32.")
}
return new Float32Array(payload.data)
}
function gate(
reference: Float32Array,
candidate: Float32Array,
tolerance: NumericTolerance,
): ToleranceGate {
const comparison = compareFloat32(reference, candidate)
let within = 0
let maxError = -1
let maxErrorIndex = 0
for (let index = 0; index < reference.length; index += 1) {
const error = Math.abs(reference[index] - candidate[index])
if (error <= tolerance.absolute + tolerance.relative * Math.abs(reference[index])) within += 1
if (error > maxError) {
maxError = error
maxErrorIndex = index
}
}
const fractionWithinTolerance = within / reference.length
return {
...comparison,
fractionWithinTolerance,
maxErrorIndex,
referenceAtMaxError: reference[maxErrorIndex],
candidateAtMaxError: candidate[maxErrorIndex],
passed: comparison.finite
&& fractionWithinTolerance === 1
&& comparison.cosineSimilarity >= tolerance.minimumCosineSimilarity,
}
}
function validTolerance(value: unknown): value is Record<string, number> {
if (typeof value !== 'object' || value === null) return false
const candidate = value as Record<string, unknown>
return ['absolute', 'relative', 'minimum_cosine_similarity'].every((key) => (
typeof candidate[key] === 'number' && Number.isFinite(candidate[key]) && candidate[key] >= 0
))
}
async function fixtureTolerances(fixtureUrl: string): Promise<DinoLabResult['tolerances']> {
const response = await fetch(`${fixtureUrl}/manifest.json`)
if (!response.ok) return DEFAULT_TOLERANCES
const manifest = await response.json() as {
tolerances?: { strict?: unknown; qualification?: unknown }
}
const strict = manifest.tolerances?.strict
const qualification = manifest.tolerances?.qualification
if (!validTolerance(strict) || !validTolerance(qualification)) return DEFAULT_TOLERANCES
const normalize = (value: Record<string, number>): NumericTolerance => ({
absolute: value.absolute,
relative: value.relative,
minimumCosineSimilarity: value.minimum_cosine_similarity,
})
return { strict: normalize(strict), qualification: normalize(qualification) }
}
async function run(): Promise<void> {
if (busy) return
busy = true
runButton.disabled = true
runButton.textContent = 'Running…'
errorElement.hidden = true
resultElement.hidden = true
delete window.__TRIPOSPLAT_DINO_RESULT__
try {
if (activeClient) await activeClient.dispose()
const modelUrl = modelInput.value
const fixtureUrl = fixtureInput.value
const client = new OrtWorkerClient({ onStatus: ({ message }) => { statusElement.textContent = message } })
activeClient = client
statusElement.textContent = 'Fetching prepared image and official PyTorch tensors…'
const [imageResponse, recordedInput, reference, tolerances] = await Promise.all([
fetch(`${fixtureUrl}/prepared.png`),
fetchFloat32(`${fixtureUrl}/pixel_values.f32`, elementCount(SHAPES.pixelValues)),
fetchFloat32(`${fixtureUrl}/feature1.f32`, elementCount(SHAPES.feature1)),
fixtureTolerances(fixtureUrl),
])
if (!imageResponse.ok) throw new Error(`Could not fetch prepared image: HTTP ${imageResponse.status}`)
const bitmap = await createImageBitmap(await imageResponse.blob())
const browserInput = (() => {
try {
const rgb = compositeRgbaOnBlack(imageBitmapToRgba(bitmap))
return buildTripoSplatEncoderTensors(rgb).dinov3.data
} finally {
bitmap.close()
}
})()
const preprocessing = compareFloat32(recordedInput, browserInput)
const sidecarUrl = `${modelUrl}.data`
const graphName = new URL(modelUrl, document.baseURI).pathname.split('/').at(-1)
if (!graphName) throw new Error(`Could not derive graph name from ${modelUrl}.`)
const transferParts = await Promise.all([contentLength(modelUrl), contentLength(sidecarUrl)])
const modelTransferBytes = transferParts.every((value) => value !== undefined)
? transferParts.reduce<number>((sum, value) => sum + (value ?? 0), 0)
: undefined
const loaded = await client.loadSession({
sessionId: SESSION_ID,
manifest: {
graphUrl: modelUrl,
externalData: [{ path: `${decodeURIComponent(graphName)}.data`, url: sidecarUrl }],
},
options: { allowWasmFallback: false, graphOptimizationLevel: 'disabled' },
})
if (loaded.executionProvider !== 'webgpu') throw new Error(`Expected WebGPU, loaded ${loaded.executionProvider}.`)
const response = await client.runSession({
sessionId: SESSION_ID,
inputs: {
pixel_values: createTensorPayload('float32', browserInput, SHAPES.pixelValues),
},
outputs: ['feature1'],
tag: 'dinov3-parity',
})
const candidate = payloadFloat32(response.outputs.feature1)
const strictComparison = gate(reference, candidate, tolerances.strict)
const qualificationComparison = gate(reference, candidate, tolerances.qualification)
const result: DinoLabResult = {
passed: preprocessing.finite
&& preprocessing.maxAbsoluteError <= 1e-6
&& qualificationComparison.passed,
strictPassed: strictComparison.passed,
executionProvider: loaded.executionProvider,
modelLoadMs: loaded.loadMs,
modelTransferBytes,
inferenceMs: response.timings.inferenceMs,
readbackMs: response.timings.readbackMs,
preprocessing,
strictComparison,
qualificationComparison,
tolerances,
environment: {
userAgent: navigator.userAgent,
crossOriginIsolated: self.crossOriginIsolated,
webgpu: 'gpu' in navigator,
},
}
await client.dispose()
if (activeClient === client) activeClient = undefined
window.__TRIPOSPLAT_DINO_RESULT__ = result
resultElement.textContent = JSON.stringify(result, null, 2)
resultElement.hidden = false
statusElement.textContent = result.passed
? result.strictPassed
? 'PASS: WebGPU DINOv3 matches the strict official gate.'
: 'PASS: WebGPU DINOv3 matches the recorded qualification envelope; strict gate remains failed.'
: 'FAIL: WebGPU DINOv3 exceeds the recorded qualification envelope.'
} catch (caught) {
const message = caught instanceof Error ? caught.message : String(caught)
errorElement.textContent = message
errorElement.hidden = false
statusElement.textContent = 'DINOv3 validation failed.'
if (activeClient) await activeClient.dispose().catch(() => undefined)
activeClient = undefined
} finally {
busy = false
runButton.disabled = false
runButton.textContent = 'Run DINOv3 parity gate'
}
}
runButton.addEventListener('click', () => { void run() })
addEventListener('beforeunload', () => { if (activeClient) void activeClient.dispose() })
if (new URLSearchParams(location.search).get('autorun') === '1') queueMicrotask(() => { void run() })
const style = document.createElement('style')
style.textContent = `
:root { color: #ececf3; background: #101014; font: 15px/1.5 ui-monospace, SFMono-Regular, Menlo, monospace; }
body { margin: 0; } main { max-width: 920px; margin: 0 auto; padding: 48px 24px; }
h1 { font: 600 28px/1.2 system-ui, sans-serif; } label { display: grid; gap: 6px; margin: 18px 0; }
input { box-sizing: border-box; width: 100%; padding: 10px; color: inherit; background: #1b1b22; border: 1px solid #3a3a48; border-radius: 6px; }
button { padding: 10px 16px; color: #08080a; background: #f8cf00; border: 0; border-radius: 6px; font-weight: 700; cursor: pointer; }
button:disabled { opacity: .55; cursor: wait; } pre { overflow: auto; padding: 16px; background: #18181f; border-radius: 8px; }
.error { color: #ff9b9b; }
`
document.head.append(style)
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