Interpreting and Improving Deep-Learning Models with Reality Checks
Abstract
Domain fit: AI-adjacent · Paper appears method- or tooling-adjacent to AI workflows with partial ecosystem coverage.
Abstract Recent deep-learning models have achieved impressive predictive performance by learning complex functions of many variables, often at the cost of interpretability. This chapter covers recent work aiming to interpret models by attributing importance to features and feature groups for a single prediction. Importantly, the proposed attributions assign importance to interactions between features, in addition to features in isolation. These attributions are shown to yield insights across real-world domains, including bio-imaging, cosmology image and natural-language processing. We then show how these attributions can be used to directly improve the generalization of a neural network or to distill it into a simple model. Throughout the chapter, we emphasize the use of reality checks to scrutinize the proposed interpretation techniques. (Code for all methods in this chapter is available at "Image missing" github.com/csinva and "Image missing" github.com/Yu-Group , implemented in PyTorch [54]).
Results and benchmarks
Abstract Recent deep-learning models have achieved impressive predictive performance by learning complex functions of many variables, often at the cost of interpretability.
Benchmark evidence is limited
Evidence graph: 3 refs, 3 links.
Utility signals: depth 70/100, grounding 75/100, status medium.
Implementation
No direct implementation yet
Maintained implementation evidence is not confirmed for this paper yet.
Use the implementation status and reproduction sections for the current action plan.
No verified maintained repo yet
There is no verified maintained implementation yet. Use this baseline plan to decide whether to prototype now or defer.
- No maintained paper-verified implementation was found; start with the closest related repositories below.
- Compare repo methods against the paper equations/algorithm before trusting metrics.
- Create a minimal baseline implementation from the paper and use adjacent repos as references.
Time to first repro: a few days
mdozmorov/MachineLearning_notes is the closest maintained adjacent implementation (Matches contextual method/domain keyword: deep learning). It is not paper-verified; validate algorithm and evaluation setup against the paper before trusting reported metrics. Community adoption signal: 568 GitHub stars.
- Adjacent implementations are not paper-verified
- Recommended repository is adjacent and not paper-verified.
Reproduction readiness
No repo
No verified implementation available
- No maintained repository has been identified for this paper. Check adjacent implementations or HF artifacts below.
Hardware requirements
- Expect multi-day setup/compute for meaningful reproduction based on current guidance.
Validation caveat
Repositories and ecosystem
Closest related implementations
These are not paper-verified. Use them as reference points when no direct implementation is available.
- mdozmorov/MachineLearning_notes Adjacent · Confidence: Medium · 568 stars
Matches contextual method/domain keyword: deep learning
- mheriyanto/machine-learning-in-computer-vision Adjacent · Confidence: Low · 118 stars
Matches contextual method/domain keyword: deep learning
No additional verified repositories beyond the primary recommendation.
Hugging Face artifacts
No trustworthy direct or curated related Hugging Face artifacts were found yet. Use targeted searches to quickly locate candidate models, datasets, and demos.
Tip: start with models, then check datasets and spaces if you need evaluation data or demos.
Research context
1
Citations
100
References
Tasks
Interpretability, Computer science, Generalization, Deep learning, Artificial neural network, Code (set theory), Feature (linguistics)
Methods
None detected
Domains
Artificial intelligence, Image (mathematics), Machine learning
Related papers
- Empowering Interpretable, Explainable Machine Learning Using Bayesian Network ClassifiersSearch on Paper2Code
2023 · Semantic similarity
- Overcoming Interpretability in Deep Learning Cancer ClassificationSearch on Paper2Code
2021 · Semantic similarity
- Development of Interpretable Machine Learning Models to Detect Arrhythmia based on ECG DataSearch on Paper2Code
2022 · Semantic similarity
- An Introduction on Interpretable Machine LearningSearch on Paper2Code
2020 · Semantic similarity
- An Interpretable Machine Learning Model with Deep Learning-based Imaging Biomarkers for Diagnosis of Alzheimer's DiseaseSearch on Paper2Code
2023 · Semantic similarity
- Skin Disease Diagnostic techniques using deep learningSearch on Paper2Code
2022 · Semantic similarity
Open this paper in HFEPX to review benchmark signals, evaluation modes, and human-feedback protocol context.
Open in HFEPXJump to Paper2Code search queries derived from this paper's research context.