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thesis/related-work

Chapter 2 of the BGU MSc thesis on ROLL. Background and prior work. Target: 1520 pages. Parent: thesis

Guidelines

  • Narrows from broad background toward the specific gap ROLL fills
  • Reader should feel ROLL is inevitable by the end of the chapter
  • NP section belongs at the END — it is the narrowest prior work and bridges directly to Ch. 3

Section Structure

# Title Label Placement Length Status
2.1 Imbalanced Classification and TPR/FPR Objective sec:imbalanced-tpr-fpr START ~34 pp Moved from Ch. 3; needs rewrite (see TODO comments in file)
2.2 ROC Curves and AUC Optimization TBD middle ~34 pp Not yet written; cover AUC surrogates, pairwise ranking
2.3 Partial AUC and TPR@FPR Methods TBD middle ~3 pp Not yet written; key point: no end-to-end backprop
2.4 Kernel Density Estimation sec:kde-background middle ~34 pp Not yet written; forward-pointer to sec:roll-kde (Ch. 3)
2.5 Learning with Noisy Labels sec:noisy-labels after KDE, before NP ~34 pp Outline in file; not yet written
2.6 Connection to Neyman-Pearson sec:neyman-pearson END ~23 pp Moved from Ch. 3; needs writing (currently a stub)

Gotchas

  • sec:imbalanced-tpr-fpr and sec:neyman-pearson are \Cref-referenced in Ch. 3 (sec:problem-formulation) — do not rename these labels
  • KDE section (sec:kde-background) must end with a forward pointer to sec:roll-kde in Ch. 3 — established convention from project brain root
  • Ch. 3 KDE section opens with a back-reference to sec:kde-background — keep this pairing consistent
  • sec:imbalanced-tpr-fpr arc (per TODO in file): accuracy gameable under imbalance → class weighting standard fix → no direct operating-point control → therefore need TPR@FPR directly
  • AUC section should distinguish whole-curve AUC from operating-point-specific TPR@FPR — this distinction motivates the partial AUC / TPR@FPR section
  • sec:noisy-labels added 2026-07-13; NP moved to 2.6 (was 2.5); sec:neyman-pearson label is UNCHANGED so Ch. 3 \Cref references still work without modification
  • sec:noisy-labels should be forward-referenced from Ch. 4 poisoning experiment; bridge: ROLL's robustness is a structural consequence of the distributional objective, not a design goal
  • Noisy labels bibtex entries staged in impl/research ** Noisy Labels Literature; move to thesis.bib when writing this section

Noisy Labels Literature (sec:noisy-labels)

wu2025preserving — AUC Fairness + Noisy Protected Groups (ICML 2025)

  • cite key: wu2025preserving — ADDED to thesis.bib
  • arxiv: 2505.18532
  • Fairness notion: gap between group-level AUC and overall AUC (both intra-group and inter-group AUC); constraint is that no group's AUC deviates far from aggregate
  • Groups: demographic/sensitive attributes (gender, race) — separate from class labels; noise = mislabeled demographics, not mislabeled predictions
  • Datasets: Adult (tabular, socioeconomic), FF++ (image, deepfake detection)
  • Baselines: MinimaxFairAUC (Yang et al. 2023), DAW-FDD (Ju et al. 2024), standard AUC fairness methods
  • What's novel: first empirical analysis of noisy protected-group label impact on AUC fairness; DRO framework bounding TV distance between clean/noisy distributions; CLIP-based noise detection (no extra training)
  • Thesis relevance: cite in sec:noisy-labels; connects to ROLL's robustness argument in Ch. 4

xie2024wsauc — Weakly Supervised AUC, Unified Partial AUC (IEEE TPAMI 2024)

  • cite key: xie2024wsauc — ADDED to thesis.bib
  • arxiv: 2305.14258 / doi: 10.1109/TPAMI.2024.3357814
  • Authors: Zheng Xie, Yu Liu, Hao-Yuan He, Ming Li, Zhi-Hua Zhou
  • Not group fairness — about robustness of AUC under weak/imperfect supervision
  • Covers four weak supervision regimes: noisy label learning, positive-unlabeled (PU) learning, multi-instance learning, semi-supervised learning
  • Key insight: all four regimes can be unified as "minimizing AUC risk on contaminated sets"
  • Novel metric: rpAUC (reversed partial AUC) — used as a robust surrogate training objective when labels are contaminated; theoretical consistency with true AUC proven
  • Framework: WSAUC — universal solution via empirical rpAUC maximization
  • Datasets/baselines: PDF is image-based (scanned), could not extract; likely standard benchmarks (CIFAR/MNIST class)
  • Thesis relevance: cite in sec:noisy-labels; rpAUC as a robust surrogate is conceptually adjacent to ROLL's KDE-based surrogate — both address the "how do you optimize AUC reliably" question

zhang2023doubly — Doubly Robust AUC vs Noisy + Adversarial Samples (KDD 2023)

  • cite key: zhang2023doublyNOT YET ADDED to thesis.bib; need unpaywalled copy first
  • doi: 10.1145/3580305.3599316 — ACM paywalled, no arXiv preprint found
  • Not about group fairness — robustness of AUC to (1) noisy class labels and (2) adversarial perturbations
  • Method (DRAUC): self-paced learning + adversarial training within AUC optimization; theoretical upper bound on adversarial AUC risk; alternating stochastic descent
  • Datasets/baselines: unknown — full text inaccessible
  • Thesis relevance: cite in sec:noisy-labels alongside wu2025preserving — brackets noisy-label problem from two sides (noisy demographics vs. noisy class labels)
  • ACTION NEEDED: obtain unpaywalled PDF to verify datasets/baselines and add bibtex entry