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Risk Aware Benchmarking of Large Language Models

ICML 2024 · Learning theory and algorithms › Prediction and decision losses · approach: Distributionally robust optimization · 0 citations (OpenAlex)

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Proposes a distributional, risk-aware framework for benchmarking LLMs using relative first- and second-order stochastic dominance tests on copula-aggregated metric portfolios, with CLT-based and bootstrap significance testing.

Problem

Standard LLM leaderboards rank models by mean win rate, which ignores tail risk and lacks statistical significance guarantees when aggregating multiple socio-technical metrics.

Approach

Model each LLM's multi-metric evaluation as a copula-aggregated portfolio, then rank models with relative (threshold-free) first- and second-order stochastic dominance tests backed by CLTs and bootstrap variance, linking second-order dominance to risk-averse mean-risk models.

Key results

Measured effects reported in the paper

What was changedWhereMeasuredEffect
Use independent-copula portfolio stochastic dominance instead of rank aggregation over all metrics (ablation)Mix-Instruct model ranking · Mix-Instructexecution time: 254.99 ± 16.76 s -> 32.01 ± 4.51 sHelped
Use independent-copula portfolio R-SSD instead of per-metric R-SSD with rank aggregation (ablation)Mix-Instruct model ranking · Mix-InstructKendall-Tau similarity: Kendall Tau(R-SSD@P(IC), RA(R-SSD@M)) = 0.848No clear effect
Use empirical copula instead of independent copula for R-SSD portfolio aggregation (ablation)Mix-Instruct model ranking · Mix-InstructKendall-Tau similarity to R-SSD rank aggregation: Kendall Tau(R-SSD@P(EC), RA(R-SSD@M)) = 0.848No clear effect
Use empirical copula instead of independent copula for R-SSD portfolio aggregation (ablation)Mix-Instruct model ranking · Mix-Instructrank similarity to ChatGPT ranking: between 0.7 and 0.75Helped
Use R-SSD instead of Mean Win RateMix-Instruct model ranking · Mix-Instructrank similarity to ChatGPT rankingHelped
Use R-SSD instead of R-FSDToxicity model ranking · Toxicity, combined toxic and non-toxic promptsrankNo clear effect
Use Generation Only instead of Prompt + Gen evaluation (ablation)toxicity rankings · Toxicity, combined toxic and non-toxic promptsrankMixed

Surprising findings

Limitations

Experimental setup

Datasets: Mix-Instruct RealToxicityPrompts

Benchmarks: Mix-Instruct RealToxicityPrompts

Metrics: Kendall-Tau rank agreement with ChatGPT ranking false discovery / type I error via significance tests

Baselines: Mean Win Rate (MWR) epsilon-FSD (ASO) mean-variance mean-risk model ChatGPT evaluation ranking

Builds on: almost stochastic dominance ASO framework Deep-Significance Borda count rank aggregation

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