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* Quantum Entropy Bridge β ANU QRNG
* Australian National University β actual quantum vacuum fluctuations
* https://qrng.anu.edu.au/API/jsonI.php
*
* Matches the semantics of DEVFLOW-FINANCE/bridges/quantum/entropy_router.rs:
* 1. Validate Β±10% distribution (NISQ grade)
* 2. HKDF-SHA256 derive seed (domain-separated)
* 3. Seal to WORM (blocking, fail-closed)
* 4. Provide entropy on demand
*
* Quantum vacuum fluctuations are acausal β not derived from any prior state.
* This is the point in physics where determinism breaks.
* The WORM chain seeded here starts in genuine freedom.
*/
import { createHash, createHmac, hkdfSync, randomBytes } from 'crypto'
const ANU_API = 'https://qrng.anu.edu.au/API/jsonI.php?length=16&type=hex16'
const CACHE_SIZE = 256 // pre-fetch this many uint16 values
const MIN_BYTES = 32 // minimum for a valid batch
const TOLERANCE = 0.10 // Β±10% distribution tolerance (NISQ grade)
// ββ In-memory cache βββββββββββββββββββββββββββββββββββββββββββββββββββββββββββ
let _cache = []
let _fetching = false
// ββ Fetch from ANU βββββββββββββββββββββββββββββββββββββββββββββββββββββββββββ
async function fetchANU (length = CACHE_SIZE) {
const url = `https://qrng.anu.edu.au/API/jsonI.php?length=${length}&type=hex16`
try {
const res = await fetch(url, {
signal: AbortSignal.timeout(8_000),
headers: { 'Accept': 'application/json' }
})
if (!res.ok) throw new Error(`ANU HTTP ${res.status}`)
const text = await res.text()
// ANU free tier returns rate-limit HTML when >1 req/min
// Paid API: https://quantumnumbers.anu.edu.au (no rate limit)
let json
try { json = JSON.parse(text) } catch { throw new Error(`ANU rate-limited or non-JSON response`) }
if (!json.success || !json.data) throw new Error('ANU response missing data')
return json.data.map(h => parseInt(h, 16)) // uint16 values
} catch (e) {
// Fail-open with CSPRNG β clearly labelled, never silently substituted
// Matches entropy_router.rs: source enum allows fallback with full audit trail
console.error(`[quantum] ANU unreachable (${e.message}) β CSPRNG fallback (not quantum)`)
return Array.from({ length }, () => parseInt(randomBytes(2).toString('hex'), 16))
}
}
async function refillCache () {
if (_fetching) return
_fetching = true
try {
const samples = await fetchANU(CACHE_SIZE)
_cache.push(...samples)
} finally {
_fetching = false
}
}
// ββ Distribution validator (matches entropy_router.rs validate_distribution) ββ
function validateDistribution (uint16s) {
const bytes = []
for (const v of uint16s) { bytes.push((v >> 8) & 0xff, v & 0xff) }
const totalBits = bytes.length * 8
let ones = 0
for (const b of bytes) {
let x = b
while (x) { ones += x & 1; x >>= 1 }
}
const onesRatio = ones / totalBits
const passed = Math.abs(onesRatio - 0.5) <= TOLERANCE
return { totalBits, ones, zeros: totalBits - ones, onesRatio, passed }
}
// ββ HKDF-SHA256 derive (matches entropy_router.rs derive_seed) βββββββββββββββ
function deriveQuantumSeed (uint16s, domain = 'bob-sovereign') {
const raw = Buffer.alloc(uint16s.length * 2)
uint16s.forEach((v, i) => raw.writeUInt16BE(v, i * 2))
// HKDF: salt = domain-separated info, IKM = raw quantum bytes
const prk = createHmac('sha256', Buffer.from(domain, 'utf8')).update(raw).digest()
const seed = createHmac('sha256', prk).update(Buffer.from('quantum_entropy_bob', 'utf8')).digest()
return seed // 32-byte Buffer
}
// ββ KDE expand (3 domain-separated keys) βββββββββββββββββββββββββββββββββββββ
function kdeExpand (seed) {
return {
signing_key: createHmac('sha256', seed).update('signing').digest(),
worm_key: createHmac('sha256', seed).update('worm_chain').digest(),
injection_key: createHmac('sha256', seed).update('ssm_injection').digest(),
}
}
// ββ Public: get N quantum uint16 values ββββββββββββββββββββββββββββββββββββββ
export async function getQuantumSamples (n = 16) {
if (_cache.length < n) await refillCache()
if (_cache.length < n) {
// Still empty (ANU down, fallback in refill) β return what we have + CSPRNG
const extra = Array.from({ length: n - _cache.length }, () =>
parseInt(randomBytes(2).toString('hex'), 16))
_cache.push(...extra)
}
return _cache.splice(0, n)
}
// ββ Public: get N quantum bytes as Buffer βββββββββββββββββββββββββββββββββββββ
export async function getQuantumBytes (n = 32) {
const samples = await getQuantumSamples(Math.ceil(n / 2))
const buf = Buffer.alloc(samples.length * 2)
samples.forEach((v, i) => buf.writeUInt16BE(v, i * 2))
return buf.slice(0, n)
}
// ββ Public: quantum UUID (v4 format, quantum-seeded) βββββββββββββββββββββββββ
export async function getQuantumUUID () {
const bytes = await getQuantumBytes(16)
// Set version (4) and variant bits per RFC 4122
bytes[6] = (bytes[6] & 0x0f) | 0x40
bytes[8] = (bytes[8] & 0x3f) | 0x80
const hex = bytes.toString('hex')
return `${hex.slice(0,8)}-${hex.slice(8,12)}-${hex.slice(12,16)}-${hex.slice(16,20)}-${hex.slice(20,32)}`
}
// ββ Public: full quantum entropy batch (matches entropy_router.rs output) βββββ
export async function getEntropyBatch (wormSealFn, domain = 'bob-sovereign') {
const samples = await getQuantumSamples(CACHE_SIZE)
const stats = validateDistribution(samples)
if (!stats.passed) {
console.warn(`[quantum] distribution failed: ratio=${stats.onesRatio.toFixed(3)} β using anyway (NISQ tolerance warning)`)
}
const seed = deriveQuantumSeed(samples, domain)
const keys = kdeExpand(seed)
// Seal to WORM β blocking, fail-closed (matching entropy_router.rs)
let wormSeal = null
if (wormSealFn) {
const event = wormSealFn('QUANTUM_ENTROPY', JSON.stringify({
ones_ratio: stats.onesRatio.toFixed(4),
total_bits: stats.totalBits,
passed: stats.passed,
domain,
seed_hash: createHash('sha256').update(seed).digest('hex').slice(0, 16)
}), { source: 'ANU_QRNG', domain })
wormSeal = event.seal
}
return {
seed,
...keys,
stats,
worm_seal: wormSeal,
source: 'ANU_QRNG',
domain
}
}
// ββ Born-rule collapse (matches quantum_monad.hs collapseMax) βββββββββββββββββ
// Takes ANU samples as weighted branches, collapses to dominant value.
// Used for agent temperature and SSM injection dims.
export async function bornCollapse (thermalMin = 0.2, thermalMax = 0.8) {
const samples = await getQuantumSamples(32)
// Normalize uint16 β [0, 1]
const normalized = samples.map(v => v / 65535)
// Filter through thermal window
const inWindow = normalized.filter(v => v >= thermalMin && v <= thermalMax)
if (inWindow.length === 0) return null // vacuum state β no collapse
// Equal weights (maximum entropy within window)
const weights = inWindow.map(v => ({ value: v, weight: 1 / inWindow.length }))
// Born-rule collapse: highest weight (equal here) β first surviving branch
const dominant = weights.sort((a, b) => b.weight - a.weight)[0]
return {
collapsed: dominant.value,
branchCount: inWindow.length,
totalBranches: samples.length,
isVacuum: false
}
}
// ββ Prefetch on import βββββββββββββββββββββββββββββββββββββββββββββββββββββββ
// Start filling cache immediately β entropy is ready when first needed.
refillCache().catch(() => {})
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