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Incomplete Multi-view Clustering via Diffusion Contrastive Generation

AAAI 2025 · Learning theory and algorithms › Clustering · approach: Incomplete multi-view clustering · 16 citations (OpenAlex)

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Proposes Diffusion Contrastive Generation (DCG), an end-to-end incomplete multi-view clustering method that uses intra-view diffusion plus contrastive alignment on few paired samples to recover missing views, with instance- and category-level interactive learning.

Problem

Incomplete multi-view clustering suffers when recovering missing views relies heavily on paired data (impractical at high missing rates) and generated views lack diversity and discriminability.

Approach

Applies forward diffusion and reverse denoising to intra-view latent representations, then uses contrastive learning on a small set of paired samples to align generated views with real views; exploits the observation that denoising pulls samples toward cluster centers, so extrapolating the diffusion step at inference improves clustering.

Key results

Measured effects reported in the paper

What was changedWhereMeasuredEffect
use DCG instead of the strongest listed baselineClustering methods · Synthetic3d, missing rate 0.3ACC: 87.50 -> 88.00Helped
use DCG instead of the strongest listed baselineClustering methods · CUB, missing rate 0.3ARI: 56.84 -> 59.85Helped
use DCG instead of the strongest listed baselineClustering methods · HandWritten, missing rate 0.3ACC: 82.27 -> 82.70Helped
use DCG instead of the strongest listed baselineClustering methods · LandUse-21, missing rate 0.3NMI: 30.18 -> 32.09Helped
use DCG instead of the strongest listed baselineClustering methods · Fashion, missing rate 0.3ACC: 74.11 -> 93.13Helped
add diffusion loss (ablation)DCG · CUB, missing rate 0.3ACC: 70.96 -> 77.17Helped
add generation contrastive loss (ablation)DCG · CUB, missing rate 0.3ACC: 71.46 -> 77.17Helped
add diffusion and generation contrastive losses (ablation)DCG · CUB, missing rate 0.3ACC: 60.73 -> 77.17Helped
add maximum mutual information loss (ablation)DCG · CUB, missing rate 0.3ACC: 72.83 -> 77.17Helped
add category-level contrastive loss (ablation)DCG · CUB, missing rate 0.3ACC: 71.23 -> 77.17Helped
add KL divergence loss (ablation)DCG · CUB, missing rate 0.3ACC: 73.63 -> 77.17Helped
add category-level contrastive and KL divergence losses (ablation)DCG · CUB, missing rate 0.3ACC: 68.89 -> 77.17Helped

Surprising findings

Limitations

Experimental setup

Datasets: Synthetic3D CUB HandWritten LandUse-21 Fashion

Benchmarks: Synthetic3D CUB HandWritten LandUse-21 Fashion

Metrics: ACC NMI ARI

Baselines: DCP DSIMVC GCFAgg CPSPAN APADC ProImp DVIMVC ICMVC

Builds on: denoising diffusion probabilistic models contrastive learning maximum mutual information multi-view clustering category-level contrastive clustering

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