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False Coverage Proportion Control for Conformal Prediction

ICML 2025 · Learning theory and algorithms › Prediction and decision losses · approach: Conformal prediction sets · 0 citations (OpenAlex)

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Proposes CoJER, a nonparametric conformal prediction method that controls the false coverage proportion (FCP) with high probability using JER calibration on a distribution-derived template, plus a harmonic-mean aggregation over multiple models.

Problem

Split conformal prediction controls only the expected proportion of non-covered points (FCR), not the FCP with high probability when many test points are predicted simultaneously.

Approach

Builds FCP upper bounds from Joint Error Rate control applied to conformal p-values, with a calibration template derived from the Monte Carlo distribution of conformal p-values (rather than a DKW-type bound), and calibrates after aggregating p-values from several models so that validity holds for any aggregation function.

Key results

Measured effects reported in the paper

What was changedWhereMeasuredEffect
Use CoJER instead of standard Split Conformal PredictionConformal prediction on OpenML datasets · 17 OpenML datasets, 30 splitsFCP event control: 35%Helped
Use CoJER instead of Gazin et al. (2024)Conformal prediction on OpenML datasets · 17 OpenML datasets, 30 splitsrelative interval length: ∼15% larger than standard SCP; ∼80% larger than SCP intervalsHelped
Use CoJER instead of standard Split Conformal PredictionConformal prediction on OpenML datasets · 17 OpenML datasets, 30 splitsFCP event controlHelped
Use harmonic-mean aggregation with CoJER instead of CV+Aggregated conformal prediction · 17 OpenML datasets, 30 splits; five regression modelsrelative interval length: ∼75% larger on average than those of CoJERHelped
Use harmonic-mean aggregation with CoJER instead of Bonferroni intersectionAggregated conformal prediction · 17 OpenML datasets, 30 splits; five regression modelsrelative interval length: ∼20% larger on average than those of CoJERHelped
Use CoJER harmonic-mean aggregation instead of CV+ or BonferroniAggregated conformal prediction · 17 OpenML datasets, 30 splits; five regression modelsFCP event control: 100%Mixed
Use harmonic-mean aggregation rather than arithmetic mean, geometric mean, or quantile aggregation (ablation)CoJER aggregation · Appendix C aggregation comparisoninterval lengthHelped

Surprising findings

Limitations

Experimental setup

Datasets: 17 OpenML regression datasets from Grinsztajn et al. 2022

Benchmarks: 17 OpenML regression datasets from Grinsztajn et al. 2022

Metrics: FCP event coverage (proportion of splits with FCP <= alpha) relative interval length

Baselines: Split Conformal Prediction Gazin et al. 2024 CV+ Bonferroni intersection (Lei et al. 2018)

Builds on: split conformal prediction Gazin et al. 2024 FCP control Blanchard et al. 2020 joint error rate Blain et al. 2023 knockoff JER calibration CV+

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