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Domain Prompt Learning with Quaternion Networks

CVPR 2024 · Vision-language and multimodal › CLIP and zero-shot · approach: Prompt learning for CLIP · 14 citations (OpenAlex)

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Proposes domain prompt learning for CLIP-style VLMs using quaternion networks that fuse domain-specific vision features from remote-sensing (ViT/ViTAE) and medical (MedSAM) foundation models into both language and vision prompts.

Problem

Adapting vision-language models via prompt learning to specialized domains (remote sensing, medical imaging) is underexplored, since natural-image prompt methods misinterpret domain images and domain-specific foundation models are vision-only and cannot prompt vision-language pairs.

Approach

Use quaternion networks to model orthogonal cross-modal relations between domain-specific vision features (from a domain foundation model) and language context embeddings, projecting generic language prompts into a specialized space, then hierarchically derive vision prompts from the language prompts and domain vision features; Gaussian noise is injected only in the language branch.

Key results

Measured effects reported in the paper

What was changedWhereMeasuredEffect
Use domain-specific prompting with the ViT backbone instead of MaPLeDomain prompt learning · Remote sensing, average over 8 datasetsHM: 80.42 -> 83.50Helped
Use domain prompt learning instead of MaPLeViT-B/16 CLIP on medical datasets · Medical, average over datasetsHM: 49.01 -> 53.36Helped
Use domain prompt learning instead of MaPLeViT-B/16 CLIP · Cross-dataset generalization, average targetaccuracy: 72.42 -> 73.83Helped
Use domain prompt learning instead of MaPLeViT-B/16 CLIP · Single-source multi-target domain generalization, averageaccuracy: 72.15 -> 73.60Helped
Add the quaternion network (ablation)Domain prompt learning on RSICD · RSICDHM: 75.87 -> 77.29Helped
Prompt both vision and language branches instead of only the language branch (ablation)Domain prompt learning on RSICD · RSICDHM: 76.36 -> 77.29Helped
Prompt both vision and language branches instead of only the vision branch (ablation)Domain prompt learning on RSICD · RSICDHM: 76.84 -> 77.29Helped
Vary prompting depth from 3 through 12; depth 9 performs best (ablation)Domain prompt learning on RSICD · RSICDHM: 73.99; 75.10; 77.29; 77.14Mixed
Add noise in the language branch rather than omit noise or add it in the vision branch (ablation)Domain prompt learning on RSICD · RSICDHM: 75.92; 75.84 -> 77.29Helped

Surprising findings

Limitations

Experimental setup

Datasets: MLRSNet PatternNet RSSCN7 AID RSICD UCM WHURS19 NWPU BTMRI CCBTM CHMNIST

Benchmarks: MLRSNet PatternNet RSSCN7 AID RSICD UCM WHURS19 NWPU BTMRI CCBTM CHMNIST

Metrics: accuracy harmonic mean

Baselines: CLIP CoOp CoCoOp MaPLe ProGrad

Builds on: CoOp CoCoOp MaPLe quaternion neural networks

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