Download aureole/innovation.py from PureOne/AUREOLE-R-v3: direct link, hf CLI and curl.
- Browser
- Download file 4.26 kB
-
https://huggingface.co/PureOne/AUREOLE-R-v3/resolve/main/aureole/innovation.py
- Command line
-
hf download hf://PureOne/AUREOLE-R-v3/aureole/innovation.py
-
curl -L -o innovation.py https://huggingface.co/PureOne/AUREOLE-R-v3/resolve/main/aureole/innovation.py
4.26 kB
| """Sequential residual elimination with fixed budget and exact partial sums. | |
| Do not supply unverified entries as known. Zero proposal support is legal | |
| only when the contribution is exact. This module does not validate geometry. | |
| """ | |
| import numpy as np | |
| def prepare(bound, prior, values, known, score): | |
| b, p, v = np.asarray(bound, float), np.asarray(prior, float), np.asarray(values, float) | |
| k, s = np.asarray(known, bool), np.asarray(score, float) | |
| if (b.ndim != 3 or p.shape != b.shape[:2] or v.shape != p.shape or k.shape != p.shape | |
| or s.shape != p.shape or not all(np.isfinite(x).all() for x in (b,p,v,s)) | |
| or (b < 0).any() or ((p < 0)|(p > 1)).any() or ((v < 0)|(v > 1)).any() or (s <= 0).any()): | |
| raise ValueError("Invalid finite control or strictly positive base scores") | |
| h = b*np.where(k, v, p)[..., None] | |
| scores = np.where(k, 0, s) | |
| total = scores.sum(1, keepdims=True) | |
| q = np.divide(scores, total, out=np.zeros_like(scores), where=total > 0) | |
| return h.copy(), q | |
| def eliminate(h, q, oracle, n, rng): | |
| """oracle(rows,j) supplies *current exact* RGB for one term per row. | |
| Each selected term is assimilated after its martingale estimate is formed. | |
| No duplicates; no queries for rows already complete. Exact completion is | |
| determined by the initial support size, not by observed sample values. | |
| """ | |
| h, q = np.array(h, float, copy=True), np.array(q, float, copy=True) | |
| if (h.ndim != 3 or q.shape != h.shape[:2] or not np.isfinite(h).all() | |
| or not np.isfinite(q).all() or (q < 0).any() | |
| or not np.all(np.isclose(q.sum(1), 1, atol=1e-12) | (q.sum(1) == 0)) | |
| or isinstance(n, bool) or not isinstance(n, (int, np.integer)) or n < 1): | |
| raise ValueError("Finite control, normalized nonnegative support and fixed positive budget required") | |
| initial_count = (q > 0).sum(1) | |
| scores = q.copy() | |
| estimates = np.zeros((len(h), h.shape[2])) | |
| selections = [] | |
| for _ in range(n): | |
| integral = h.sum(1) | |
| active = np.flatnonzero(scores.sum(1) > 0) | |
| y = integral.copy() | |
| if len(active): | |
| weights = scores[active]/scores[active].sum(1, keepdims=True) | |
| cdf = np.minimum(np.cumsum(weights, 1), 1.0) | |
| last = weights.shape[1]-1-np.argmax(weights[:, ::-1] > 0, axis=1) | |
| # Floating-point summation must not give a trailing zero-support | |
| # bin a tiny spurious interval near one. | |
| cdf[np.arange(weights.shape[1])[None, :] >= last[:, None]] = 1.0 | |
| j = (rng.random(len(active))[:, None] >= cdf).sum(1) | |
| f = np.asarray(oracle(active, j), float) | |
| if f.shape != (len(active), h.shape[2]) or not np.isfinite(f).all(): | |
| raise ValueError("Oracle returned invalid physical values") | |
| y[active] += (f-h[active, j])/weights[np.arange(len(active)), j, None] | |
| h[active, j] = f | |
| scores[active, j] = 0 | |
| selections.append((active.copy(), j.copy())) | |
| estimates += y/n | |
| complete = initial_count <= n | |
| estimates[complete] = h.sum(1)[complete] | |
| return estimates, selections | |
| def exact_risk_two(truth, h, q): | |
| """Audit-only expected MSE for eliminate(..., n=2). No online access. | |
| Works only when zero-support terms really are exact; otherwise raises. | |
| """ | |
| f, h, q = np.asarray(truth), np.asarray(h), np.asarray(q) | |
| r = f-h | |
| if np.max(np.abs(np.where((q == 0)[..., None], r, 0)), initial=0) > 1e-10: | |
| raise ValueError("False certificate: nonzero residual has zero support") | |
| s = np.divide(r*r, q[..., None], out=np.zeros_like(r), where=q[..., None] > 0).sum(1) | |
| total = r.sum(1) | |
| v1 = s-total*total | |
| v2 = s*(1-(q*q).sum(1))[:, None]-(r*r).sum(1)-total*total+2*total*(q[..., None]*r).sum(1) | |
| result = np.maximum((v1+v2).mean(-1)/4, 0) | |
| result[(q > 0).sum(1) <= 2] = 0 | |
| return result | |
| def covariance(residual, proposal): | |
| """One-sample covariance on positive support; used in proof witnesses.""" | |
| r, q = np.asarray(residual, float), np.asarray(proposal, float) | |
| use = q > 0 | |
| if np.any(np.abs(r[~use]) > 1e-12): | |
| raise ValueError("Uncertified zero support") | |
| return (r[use].T/q[use])@r[use]-np.outer(r.sum(0), r.sum(0)) | |