Use a conditional normalizing flow to replace inner-loop MCMC when sampling states or parameters under progressively tighter neural energy or likelihood constraints. The flow is trained online from recent live sets, and proposals are corrected by importance weighting and resampling, so flow bias does not directly corrupt the nested estimate.
Wrap a neural ODE, recurrent state-space model, or learned world model with a split-conformal prediction tube that is valid between irregularly sampled observations. Calibrate a pointwise residual quantile at observed times and inflate it at an unobserved time according to its distance from the nearest observed time and an estimated bound on the true and predicted trajectory slopes.
Use the generalized Cramér–Rao relation to adapt the inverse-temperature or noise schedule of an energy-based sampler, diffusion sampler, or stochastic optimizer. The controller limits each temperature change according to the measured energy variance and Fisher information, preventing uncontrolled changes in the sampled energy distribution while allowing larger steps in insensitive regions.
Replace the standard Gaussian affine reverse step with a conditional transport kernel learned from the forward transition. Given a noisy state x_{k+1}, the model predicts a full conditional distribution for x_k using a monotone conditional CDF or an autoregressive normalizing flow. This represents multimodal and state-dependent reverse transitions that cannot be captured by a single Gaussian mean and variance.
Generate discrete configurations globally with an autoregressive model and then refine them using a continuous-time Markov chain of local single-site replacement moves. Use importance weights and the paper's normalized ESS to adapt the CTMC refinement budget and to reject training batches in which the proposal has collapsed onto a few modes.
Replace many independently equilibrated SGLD runs at different hyperparameters with one controlled sweep in which an auxiliary drift transports particles through the stationary distributions indexed by the swept parameter. Estimate the response of loss, predictions, uncertainty, or weight observables using covariance with the stationary generalized-potential derivative instead of finite differences between separate runs.
Wrap a stochastic neural predictor with a robust multimodal aggregation procedure: sample the predictor at perturbed inputs, cluster the resulting outputs, trim an alpha-fraction of outliers separately inside every cluster, and return a weighted mixture rather than one global average. This should preserve distinct plausible modes while suppressing adversarial or heavy-tailed samples that would otherwise distort the prediction.
Add the paper's local Sine_beta fusion law as an analytic score prior for diffusion models that generate unordered point configurations. The model is trained to match both the usual diffusion score and an explicit short-range repulsion score, including the second-order correction that describes finite-scale fused configurations.
Replace MAP scoring of discrete latent configurations by comparison of the total energy-model mass assigned to each candidate class. Estimate each class partition function with annealed importance sampling driven by identical random seeds, then return a prediction only when a paired bootstrap confidence interval certifies that its log-partition score exceeds every competitor.