C3: Cross-instance guided Contrastive Clustering
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Abstract (arXiv)
Clustering is the task of gathering similar data samples into clusters without using any predefined labels. It has been widely studied in machine learning literature, and recent advancements in deep learning have revived interest in this field. Contrastive clustering (CC) models are a staple of deep clustering in which positive and negative pairs of each data instance are generated through data augmentation. CC models aim to learn a feature space where instance-level and cluster-level representations of positive pairs are grouped together. Despite improving the SOTA, these algorithms ignore the cross-instance patterns, which carry essential information for improving clustering performance. This increases the false-negative-pair rate of the model while decreasing its true-positive-pair rate. In this paper, we propose a novel contrastive clustering method, Cross-instance guided Contrastive Clustering (C3), that considers the cross-sample relationships to increase the number of positive pairs and mitigate the impact of false negative, noise, and anomaly sample on the learned representation of data. In particular, we define a new loss function that identifies similar instances using the instance-level representation and encourages them to aggregate together. Moreover, we propose a novel weighting method to select negative samples in a more efficient way. Extensive experimental evaluations show that our proposed method can outperform state-of-the-art algorithms on benchmark computer vision datasets: we improve the clustering accuracy by 6.6%, 3.3%, 5.0%, 1.3% and 0.3% on CIFAR-10, CIFAR-100, ImageNet-10, ImageNet-Dogs, and Tiny-ImageNet.
Key facts. Cited by 6 papers in the map (data through 7 Oct 2026). Builds on 22 of its 53 references that are in the map. First posted on arXiv 14 Nov 2022.
Builds on
22 of 53 references.
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10 more
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Built on by
Citing papers per year: 2023: 2; 2024: 3; 2025: 0; 2026: 1.
6 papers.
- 2023Image Clustering via the Principle of Rate Reduction in the Age of Pretrained Modelscited by 22
- 2023Deep Clustering of Tabular Data by Weighted Gaussian Distribution Learningcited by 12
- 2024Deep Clustering with Self-Supervision using Pairwise Similaritiescited by 3
- 2024Unveiling the Flaws: A Critical Analysis of Initialization Effect on Time Series Anomaly Detectioncited by 2
- 2024Forward-Backward Knowledge Distillation for Continual Clusteringcited by 1
- 2026Unsupervised Continual Clustering via Forward-Backward Knowledge Distillationcited by 0
- 2026Unsupervised Continual Clustering via Forward-Backward Knowledge Distillation5 Jun 2026
- 2024Unveiling the Flaws: A Critical Analysis of Initialization Effect on Time Series Anomaly Detection13 Aug 2024
- 2024Forward-Backward Knowledge Distillation for Continual Clustering29 May 2024
- 2024Deep Clustering with Self-Supervision using Pairwise Similarities6 May 2024
- 2023Image Clustering via the Principle of Rate Reduction in the Age of Pretrained Models8 Jun 2023
- 2023Deep Clustering of Tabular Data by Weighted Gaussian Distribution Learning2 Jan 2023