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Large-scale benchmark demonstrates lightweight models effectively distinguish matched from mismatched problem-solution pairs, indicating significant implications for STEM reasoning.
Verifying that a proposed solution truly resolves a scientific problem is central to trustworthy reasoning and retrieval. Using SCP-116K, we build 177,836 balanced problem-solution pairs (88,918 matched, 88,918 mismatched) spanning diverse STEM disciplines, and frame verification, following TRIZ/IDM, as distinguishing matched from mismatched pairs. Comparing lexical, retrieval-style, and lightweight neural models, our best model (RoBERTa + Slim ResNet, frozen sentence embeddings scored by a residual MLP) reaches an AUC of 0.966, an F1 of 0.905, and a LogLoss of 0.238. A CPU-friendly TF-IDF + Cosine + Elastic-Net baseline trails by 1.6-1.7 AUC points yet runs roughly 250× faster in about 1.5 GB of RAM, a strong efficiency-accuracy trade-off. The probabilities act as re-ranking scores over candidate solutions; we read the high ROC-AUC as pairwise discrimination and absolute accuracy as an upper bound given the synthetic negatives.
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Douard et al. (2026) studied this question.
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