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Medusa: A Multi-Scale High-order Contrastive Dual-Diffusion Approach for Multi-View Clustering

CVPR 2025 · Graph learning › Graph self-supervised learning · approach: Multi-view graph clustering · 2 citations (OpenAlex)

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Proposes Medusa, a multi-scale deep multi-view clustering framework combining dual graph diffusion guided by a consensus graph, a hypergraph-based high-order contrastive loss, and sample-level adaptive fusion weights.

Problem

Deep multi-view clustering methods often fuse inter-view information simplistically, capture only low-order intra-view relations, and assign equal weights to all samples within a view during fusion.

Approach

Dual graph diffusion that propagates both graph structure and node features from a consensus graph into each view with a view-specific weighting coefficient, a hypergraph-derived contrastive loss that treats same-hyperedge samples as positives, and a self-attention plus gating module that learns sample-level fusion weights.

Key results

Measured effects reported in the paper

What was changedWhereMeasuredEffect
use dual graph diffusion convolution instead of concatenation for consensus-graph information (ablation)Medusa · CiteseerACC (%): 59.74 ± 1.01 -> 65.34 ± 1.24Helped
use dual graph diffusion convolution instead of single graph diffusion convolution (ablation)Medusa · CiteseerACC (%): 61.79 ± 0.96 -> 65.34 ± 1.24Helped
add adaptive weight coefficient b to graph diffusion (ablation)Medusa · CiteseerACC (%): 62.54 ± 0.88 -> 65.34 ± 1.24Helped
add contrastive learning to the HOCL module (ablation)Medusa · CiteseerACC (%): 58.34 ± 0.78 -> 65.34 ± 1.24Helped
add hypergraph sub-edge weights to contrastive learning (ablation)Medusa · CiteseerACC (%): 61.57 ± 1.45 -> 65.34 ± 1.24Helped
use fine-grained sample-level fusion instead of averaging (ablation)Medusa · CiteseerACC (%): 58.63 ± 0.87 -> 65.34 ± 1.24Helped
add gating mechanisms to sample-level fusion (ablation)Medusa · CiteseerACC (%): 61.84 ± 1.25 -> 65.34 ± 1.24Helped
use Medusa rather than GDMVCmulti-view clustering · CiteseerACC (%): 63.41 ± 1.52 -> 65.34 ± 1.24Helped
use Medusa rather than GDMVCmulti-view clustering · MSRC-v1ACC (%): 93.21 ± 0.46 -> 94.26 ± 0.64Helped
use Medusa rather than GDMVCmulti-view clustering · YaleACC (%): 76.45 ± 0.86 -> 78.84 ± 0.61Helped
use Medusa rather than GDMVCmulti-view clustering · YoutubeFaceACC (%): 37.96 ± 2.04 -> 39.25 ± 1.65Helped
use Medusa rather than GDMVCmulti-view clustering · AWAACC (%): 33.62 ± 1.65 -> 35.24 ± 1.54Helped

Limitations

Experimental setup

Datasets: Yale MSRC-v1 Citeseer SUNRGBD Caltech101 NUSWIDEOBJ YoutubeFace AWA

Benchmarks: Yale MSRC-v1 Citeseer YoutubeFace AWA NUSWIDEOBJ SUNRGBD Caltech101

Metrics: ACC NMI Purity

Baselines: DSMVC GCFAgg SCMVC MVD DFP-GNN AONGR GDMVC

Builds on: personalized PageRank graph diffusion graph convolutional network DEC self-trainable clustering layer contrastive learning

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