Replace a fixed-size random transition gate with a risk-calibrated gate whose test count is chosen from the estimated probability of a critical event and the cost of shipping a model that misses it. The gate should combine ordinary i.i.d. rollouts with planner-generated probes aimed at high-cost boundaries, because uniform sampling can make a dangerous model appear perfectly accurate.
Train a neural state-space model whose one-step dynamics are linear in a fixed analytic feature vector, and use the empirical feature Gram matrix to detect whether passive trajectories identify the dynamics. Add data collection or replay only when the Gram matrix is poorly conditioned; the analytic-feature assumption predicts that persistent excitation should emerge without deliberately visiting every operating mode.
Attach an exact structural uncertainty report to any best-of-N evaluation: after measuring reliability only for budgets n = 1,...,m, report that deployment reliability at budget N is unresolved by at least B_{m,N}. Use this width to select the smallest audit budget that makes a claimed reliability gap meaningful, or reject model comparisons whose validation budget lies below the square-root-of-N threshold.
Replace raw Pearson correlation when evaluating a temporal neural predictor with a score measuring how many null standard deviations its Fisher-transformed correlation exceeds. Estimate the null scale from a small set of time-misaligned predictions, then reuse it across context lengths or checkpoints. This prevents models from being rewarded for predicting statistically easy, low-information features and gives a more comparable validation signal across datasets and targets.
Use the paper's Lp inequality to construct an empirical certificate for a neural network's generalization gap. Estimate cross-example interaction beta with coordinate-replacement probes and estimate the single-example fluctuation M by conditional resampling; use the resulting certificate for checkpoint selection or as a stability-aware hyperparameter objective.
Wrap a neural estimator with V leave-fold-out refits and use the dispersion of fold pseudo-values to produce uncertainty intervals without deriving an influence function or relying on unstable parameter-space Hessians. The same construction can be applied to scalar metrics, predictions at fixed inputs, dose-response curves, or vectors of logits and probabilities.
Construct a data-dependent threshold for future cumulative safety violations using the paper's decision-centric large-deviation profile instead of a plug-in estimate. For binary violation increments, the threshold explicitly accounts for both uncertainty in the historical violation rate and the probability that the future process produces an unusually large maximum.
Replace raw neural scores with randomized pairwise-error probabilities relative to a reference candidate distribution. Use a fixed PEP threshold to accept, abstain, or form a variable-size candidate list; exact uniformity under the reference law makes the threshold interpretable independently of the model's score scale and robust to ties.
Freeze a neural backbone and replace heuristic last-layer uncertainty with a confidence region derived from the paper's uniform logistic likelihood-ratio bound. For a binary head, accept a prediction only when every head parameter in the confidence region gives the same label; otherwise abstain or request an additional label. The threshold also gives a principled stopping rule for fine-tuning the head.
Use a frozen neural discrepancy score and conditional Monte Carlo replicas to test whether a generative model or learned sampler is compatible with a null data distribution, without requiring mixed chains or joint exchangeability. The resulting empirical p-value has a finite-sample false-alarm bound of at most two times the nominal level, making it safer than an ordinary Monte Carlo rank test for validation and deployment monitoring.