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RoFt-Mol: Benchmarking Robust Fine-tuning with Molecular Graph Foundation Models

NeurIPS 2025 · Label-efficient and robust learning › Recognition and long-tail · approach: Dense features and foundation priors · 0 citations (OpenAlex)

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Benchmarks eight robust fine-tuning methods (full-FT, LP, surgical FT, LP-FT, WiSE-FT, L2-SP, feature-map, BSS) on molecular graph foundation models across classification/regression, few-shot and OOD splits, and proposes DWiSE-FT, a layer-wise weight-interpolation variant.

Problem

Fine-tuning molecular graph foundation models is hard due to small pre-training datasets, scarce labeled downstream data, and mixed regression/classification objectives; it is unclear which robust fine-tuning method works best under these conditions.

Approach

Organizes eight fine-tuning methods into weight-based, representation-based, and partial fine-tuning mechanisms and benchmarks them across pre-training paradigms, task types, label sizes and splits; then extends WiSE-FT to layer-wise mixing coefficients (DWiSE-FT) optimized via validation-loss gradients, inspired by L2-SP's implicit per-weight mixing.

Key results

Measured effects reported in the paper

What was changedWhereMeasuredEffect
Use layer-wise rather than a single fixed weight-interpolation coefficientMole-BERT fine-tuning · Fewshot regression, random and size splitsRMSE: 1.384 ± 0.047 -> 1.378 ± 0.055; 2.615 ± 0.072 -> 1.488 ± 0.101Helped
Use layer-wise rather than a single fixed weight-interpolation coefficientMole-BERT fine-tuning · Fewshot regression, scaffold splitRMSE: 1.842 ± 0.056 -> 1.616 ± 0.047; 1.177 ± 0.009 -> 1.110 ± 0.013; 1.162 ± 0.004 -> 1.173 ± 0.005; 2.454 ± 0.043 -> 2.306 ±Mixed
Train only the prediction head instead of fine-tuning the encoderSelf-supervised pre-trained models · Downstream molecular tasks, all splitsAUC or RMSEHurt
Use partial fine-tuning rather than full fine-tuningSelf-supervised pre-trained models · Fewshot molecular tasks, especially regressionAUC or RMSEHurt
Use weight-based fine-tuning rather than other strategiesSelf-supervised pre-trained models · Fewshot classificationAUCHelped
Use weight-based fine-tuning rather than other strategiesSelf-supervised pre-trained models · Fewshot regressionRMSEHelped
Preserve pre-trained representations through representation regularizationSupervised pre-trained models · Downstream molecular tasksAUC or RMSEHelped
Use supervised instead of self-supervised pre-trainingMolecular graph foundation models · Fewshot downstream tasksAUC or RMSEHelped
Use supervised instead of self-supervised pre-trainingMolecular graph foundation models · Non-fewshot tasks without pre-training task alignmentAUC or RMSEMixed

Surprising findings

Limitations

Experimental setup

Datasets: ClinTox BBBP BACE HIV MUV Sider Tox21 ToxCast ESOL Lipo Malaria CEP

Benchmarks: ClinTox BBBP BACE HIV MUV Sider Tox21 ToxCast ESOL Lipo Malaria CEP

Metrics: AUC RMSE average rank

Baselines: Full-FT Linear probing Surgical-FT LP-FT WiSE-FT L2-SP Feature-map BSS

Builds on: WiSE-FT L2-SP LP-FT Surgical fine-tuning BSS

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