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GeCC: Generalized Contrastive Clustering with Domain Shifts Modeling
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Proposes GeCC, a contrastive deep clustering framework that synthesizes a cluster-guided reference view via domain shift modeling and reweights instance and cluster contrastive losses with attention weights to reduce augmentation-specific features.
Problem
Contrastive clustering relies on predefined data augmentations, so representations get stuck in domain-specific information, degrading clustering quality and generalization.
Approach
Extends DSU-style feature-statistic perturbation with cluster-guided per-cluster statistics to create a reference view, and adds domain (instance-level) and distribution (cluster-level) attention weights to the contrastive losses so the model learns from more diverse domains and disentangles from augmentation-specific features.
Key results
- On ImageNet-Dogs, GeCC improves over the second-best DivClust by up to 3.35% NMI, 7.38% ACC and 4.53% ARI.
- On ImageNet-10, GeCC reaches 0.9615 ACC and 0.9167 ARI, versus 0.9360 ACC for DivClust.
- On CIFAR-10, GeCC achieves 0.7559 NMI and 0.8440 ACC, outperforming CC (0.7050 NMI, 0.7900 ACC); on CIFAR-100 DeepCluE remains best, with GeCC comparable.
Measured effects reported in the paper
| What was changed | Where | Measured | Effect |
|---|---|---|---|
| use cluster-guided domain shifts rather than random augmentation (ablation) | GeCC · CIFAR-10 | NMI: 0.6858 -> 0.7559 | Helped |
| use cluster-guided domain shifts rather than random augmentation (ablation) | GeCC · CIFAR-100 | NMI: 0.4349 -> 0.4419 | Helped |
| use cluster-guided domain shifts rather than random augmentation (ablation) | GeCC · ImageNet-10 | NMI: 0.8475 -> 0.9092 | Helped |
| use cluster-guided domain shifts rather than random augmentation (ablation) | GeCC · ImageNet-Dogs | NMI: 0.4600 -> 0.5495 | Helped |
| use cluster-guided domain shifts rather than DSU (ablation) | GeCC · CIFAR-10 | NMI: 0.6943 -> 0.7559 | Helped |
| use cluster-guided domain shifts rather than DSU (ablation) | GeCC · CIFAR-100 | NMI: 0.4230 -> 0.4419 | Helped |
| use cluster-guided domain shifts rather than DSU (ablation) | GeCC · ImageNet-10 | NMI: 0.8521 -> 0.9092 | Helped |
| use cluster-guided domain shifts rather than DSU (ablation) | GeCC · ImageNet-Dogs | NMI: 0.5158 -> 0.5495 | Helped |
| add attention weighting (ablation) | GeCC · CIFAR-10 | NMI: 0.6255 -> 0.7559 | Helped |
| add attention weighting (ablation) | GeCC · CIFAR-100 | NMI: 0.4330 -> 0.4419 | Helped |
| add attention weighting (ablation) | GeCC · ImageNet-10 | NMI: 0.8543 -> 0.9092 | Helped |
| add attention weighting (ablation) | GeCC · ImageNet-Dogs | NMI: 0.4369 -> 0.5495 | Helped |
Surprising findings
- Replacing the cluster-guided reference view with plain DSU slightly degrades CIFAR-10 and CIFAR-100 clustering relative to the CC baseline, which the authors attribute to DSU ignoring cluster assignments.
- Applying the cluster distribution attention weight alone (w Wc) deteriorates results substantially, below the CC baseline on most datasets.
Limitations
- On CIFAR-100, the method is not best; DeepCluE achieves higher results.
- Gains on ImageNet datasets from the domain shift module are limited according to ablations.
- Relies on pseudo-labels from the cluster assignment, which are less accurate early in training, requiring a heuristic probability schedule.
Experimental setup
Datasets: CIFAR-10 CIFAR-100 ImageNet-10 ImageNet-Dogs
Benchmarks: CIFAR-10 CIFAR-100 ImageNet-10 ImageNet-Dogs
Metrics: NMI ACC ARI
Baselines: K-means SC AC NMF AE DAE GAN DeCNN VAE JULE DEC DAC
Builds on: Contrastive Clustering (CC) Domain Shifts with Uncertainty (DSU) NT-Xent contrastive loss SimCLR
Closest papers by meaning
- Cross-Domain Contrastive Learning for Time Series Clustering (AAAI 2024 · similarity 0.88)
- Contrastive Mean-Shift Learning for Generalized Category Discovery (CVPR 2024 · similarity 0.87)
- Generalized Category Discovery under Domain Shift: A Frequency Domain Perspective (NeurIPS 2025 · similarity 0.86)
- THESAURUS: Contrastive Graph Clustering by Swapping Fused Gromov-Wasserstein Couplings (AAAI 2025 · similarity 0.86)
- Contrastive Multi-view Subspace Clustering via Tensor Transformers Autoencoder (AAAI 2025 · similarity 0.86)
- Deep Contrastive Graph Learning with Clustering-Oriented Guidance (AAAI 2024 · similarity 0.85)
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