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# Selective Prediction and Abstention

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  1. arXiv

    95% intervals calibrated on random splits fail outside the training envelope: hard-shift coverage falls to 0.40–0.75 across seven engineering datasets

    Prediction intervals for engineering regression are usually calibrated on random splits, while deployment happens outside training conditions. A benchmark splits seven public engineering datasets into in-distribution, soft-shift and hard-shift rungs along physically meaningful shift variables, and compares 12 uncertainty quantification methods from five families tuned on source data only. In distribution, conformal methods cover at least 0.946 on every dataset; under hard shift, mean coverage falls to 0.40–0.75 for the 11 methods that always return an interval, and no systematic difference in method ranks is detected.

  2. Entanglement diagnosis stops guessing one label: finite-shot Pauli records yield calibrated verdicts up to 20 qubits

    Multipartite-entanglement diagnosis now takes finite-shot Pauli records directly as input instead of starting from full tomography. Earlier learning-based methods tended to return a single label even when the evidence was thin. This protocol combines binomial Pauli estimators, task-informed observable designs, class-conditional conformal prediction and out-of-distribution abstention to output a single label, a prediction set or an abstention; on synthetic benchmarks, phase-aware global probes reached 0.968 balanced accuracy for perturbed-GHZ discrimination at 20 qubits.

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