The bench

Live, not curated.

Both research projects publish as they work. This page reads their public feeds directly — the Observatory logs every run that lands, and the ledger shows every claim Lemma audited, including the ones that did not survive. Not care apps; no health claims.

Kytos — Observatory

all runs →
  1. gate constants 0.40/0.80 + per-target row-norm mass restore — overall +0.1254 (rank 489/1299), second statistical tie; best pds/nmae/jac recorded, lowest reach — the gate axis is closed

  2. cross-source agreement gate 0.30/0.70, champion otherwise unchanged — overall +0.1242 (rank 449/1226), statistical tie; a component reshuffle, not a gain

  3. k034-nctr-dm — +0.118+0.1182026-09-28

    uncentered consensus_w single-variable ablation — overall +0.1178 (rank 455/1202), regression; common-response centering is load-bearing

  4. uniform 5-source consensus mean adding Jurkat CRISPRi deltas, champion generator unchanged — overall +0.1088 (rank 442), regression vs k027

  5. consensus_w_ctr deltas + dual-moment count generation — overall +0.1262 (rank 308/1088), champion; the artifact k037 later re-scored byte-identically

  6. byte-identical re-score of the champion's packaged .vcc — overall +0.12617 (rank 483/1299); scorer/panel stable across 11 days; supplies k027's canonical components

  7. consensus_w_ctr deltas through the k011 transport generator — overall +0.0670 (rank 512/1086), new champion by score; Gate B direction validated on the leaderboard

  8. H1 rank-64 transfer + dual-moment counts on context C only — overall +0.042 (rank 546), regression vs k011; the k017 offline win did not transfer to the leaderboard

Lemma — audit ledger

suggest a paper →
OpenReview 5nNNVY8NW4fixtureaudited 2026-08-15

To Grok Grokking: Provable Grokking in Ridge Regression

Theory paper on provable grokking in ridge regression. Hand-driven reproduction that passed the ICML 2026 Agent Reproductions judge end to end — now the pipeline's regression fixture.

  • supportedC1 Theorem 4.1 — end-to-end grokking (zero teacher)
  • supportedC2 Theorem 4.2 — grokking with realizable teacher
  • supportedC3 Theorems 4.4-4.6 — phase decomposition
  • supportedC4 Figure 2 — hyperparameter dependence of grokking time
  • supportedC5 Figures 3-4 — two-layer ReLU grokking beyond the linear setting
  • supportedFALS
arXiv 1903.08560corpusaudited 2026-10-04

Surprises in High-Dimensional Ridgeless Least Squares Interpolation

Exact asymptotic risk formulas for the min-norm interpolator in both regimes — the canonical companion to the double-descent paper. The lab verified its underparameterized risk blow-up (289x at gamma near 1) and its optimal-ridge comparison.

  • inconclusiveC1 Isotropic Min-Norm Risk Formula
  • not_auditedC2 Double Descent in Misspecified Model
  • not_auditedC3 Latent Space Model Monotonicity
  • not_auditedC4 Nonlinear Model Universality
  • supportedC5 Ridge Dominates Min-Norm
  • supportedC6 Underparametrized Risk Divergence
arXiv 1906.11300corpusaudited 2026-10-04

Benign Overfitting in Linear Regression

Effective-rank characterization of when interpolation generalizes. The lab found boundary cases its eigenvalue-rank inequality chain does not cover — two falsifications with passing controls.

  • falsifiedC1 Benign Overfitting Condition for Power-Law Eigenvalues
  • not_auditedC2 Benign Overfitting in Finite-Dimensional Space with Isotropic Noise
  • not_auditedC3 Upper Bound on Excess Risk
  • not_auditedC4 Lower Bound on Excess Risk
  • not_auditedC5 Necessity of Overparameterization
  • falsifiedC6 Relationship Between Effective Ranks
arXiv 1912.07242auditaudited 2026-10-03

More Data Can Hurt for Linear Regression: Sample-wise Double Descent

First fully agent-orchestrated audit: Omnigent lab director + specialist agents verified the double-descent peak at n=d, found the risk valley at gamma=0.90 via an agent-generated hypothesis, and routed an unverified follow-up through a human approval gate.

  • supportedC1 Sample-wise non-monotonic test MSE peaks at n=d
  • supportedC2 Overparameterized risk approximation (Claim 1)
  • supportedC3 Underparameterized risk approximation (Claim 2)
  • falsifiedC4 Exact finite-sample bias-variance decomposition (Lemma 1)
  • supportedC5 Exact trace update when adding one sample (Claim 3)
  • inconclusiveC6 Bias is non-increasing with more samples
  • supportedC7 Finite-d risk valley: the overparameterized double-descent dip at gamma*=0.90 (generated variant of C2)
  • falsifiedC8 Finite-d bias exactness: E[beta_hat] = gamma*beta at finite d (repairs C2's circular bias check)
  • inconclusiveC9 Finite-d correction of the C2 overparam risk approximation: power-law decay d^-alpha at fixed gamma=0.5 (generated variant of C2)
arXiv 2510.10981auditaudited 2026-08-16

In-Context Learning Is Provably Bayesian Inference

ICL-as-Bayesian-inference theory: the risk-decomposition identity and coupled p-N scaling of the Bayes gap verified numerically; the posterior-variance bound honestly inconclusive under finite precision.

  • supportedC1 Risk Decomposition Identity
  • falsifiedC2 Coupled p-N Scaling of Bayes Gap
  • supportedC3 Rapid Task-Type Identification (Posterior Concentration)
  • supportedC4 Bayes Gap Upper Bound Rate
  • inconclusiveC5 Wasserstein Stability of Bayes Gap
  • inconclusiveC6 Posterior Variance Bound by Minimax Risk
  • falsifiedC7 Boundary test: pN invariance of the Bayes Gap
arXiv 2607.08077auditaudited 2026-08-17

Modular Pretraining Enables Access Control (GRAM)

GRAM adds gradient-routed auxiliary MLPs to a base model so capabilities can be isolated and selectively disabled. Reproduced the 26M-param Simple Stories experiment on Modal A10G; compute-ratio evaluation follows the paper's Appendix-M power-law inversion.

  • supportedC1 GRAM approximates multiple data-filtered models in a single run (Simple Stories)
  • not_auditedC2 GRAM isolates realistic dual-use capabilities and matches data filtering at 800M scale
  • not_auditedC3 Capability isolation improves with scale and GRAM tracks data filtering from 50M to 5B
  • not_auditedC4 GRAM composes arbitrary capability subsets without degradation, unlike FT-LoRA
  • not_auditedC5 GRAM outperforms filtering and FT-LoRA on capability removal under partial labeling
  • supportedC6 GRAM's training cost is independent of the number of capability profiles, yielding 5× savings over filtering
JMLR 22-1228auditaudited 2026-08-16

Grokking phase transitions in learning local rules with gradient descent

Grokking in cellular-automaton rule learning: critical exponents, grokking-probability trends, and a bimodal grokking-time distribution. Audited end to end on CPU.

  • supportedC1 Critical exponent in 1D exponential model
  • supportedC2 Critical exponent in D-dimensional uniform ball model
  • supportedC3 Grokking probability increases with L1 regularisation
  • supportedC4 Grokking probability decreases with dimension D
  • inconclusiveC5 Rule-30 CA learning exhibits grokking
  • supportedC6 Grokking time distribution bimodality

ledger generated 2026-10-04 · refreshed hourly from the repo