Evidence Receipt. Related Resources.
Local-Global Prompt Learning via Sparse Optimal Transport
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Canonical route: /signal-canvas/local-global-prompt-learning-via-sparse-optimal-transport
- Proof freshness
- stale
- Proof status
- unverified
- Display score
- 8/10
- Last proof check
- 2026-04-02
- Score updated
- 2026-04-02
- Score fresh until
- 2026-05-02
- References
- 0
- Source count
- 0
- Coverage
- 17%
This page is showing the last landed evidence receipt and score bundle because the latest proof data is outside the freshness window.
Agent Handoff
Local-Global Prompt Learning via Sparse Optimal Transport
Canonical ID local-global-prompt-learning-via-sparse-optimal-transport | Route /signal-canvas/local-global-prompt-learning-via-sparse-optimal-transport
REST example
curl https://sciencetostartup.com/api/v1/agent-handoff/signal-canvas/local-global-prompt-learning-via-sparse-optimal-transportMCP example
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"paper_ref": "local-global-prompt-learning-via-sparse-optimal-transport",
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}Preparing verified analysis
Dimensions overall score 8.0
GitHub Code Pulse
No public code linked for this paper yet.
Claim map
- Evidencepartial
On the standard 11-dataset benchmark with 16-shot ViT-B/16, SOT-GLP achieves 85.1% average accuracy, outperforming prior prompt-learning methods.
ImplicationpartialDirectly stated in abstract with specific numeric results
Verificationpartialpartial
- Evidencepartial
yielding state-of-the-art OOD detection performance (94.2% AUC) that surpasses fully adapted models.
ImplicationpartialDirectly stated in abstract with specific numeric results
Verificationpartialpartial
- Evidencepartial
We propose SOT-GLP, which introduces a shared sparse patch support and balanced optimal transport allocation to explicitly partition salient visual regions among class-specific local prompts while preserving global alignment.
ImplicationpartialDirectly stated in abstract as core methodological contribution
Verificationpartialpartial
- Evidencepartial
Our method learns shared global prompts and class-specific local prompts. The global branch maintains standard image-text matching for robust category-level alignment.
ImplicationpartialDirectly stated in abstract describing the method's architecture
Verificationpartialpartial
- Evidencepartial
The local branch constructs a class-conditioned sparse patch set using V-V attention and aligns it to multiple class-specific prompts via balanced entropic optimal transport, yielding a soft partition of patches that prevents prompt overlap and collapse.
ImplicationpartialDirectly stated in abstract describing technical implementation
Verificationpartialpartial
- Evidencepartial
We identify a distinct accuracy-robustness trade-off in prompt learning: while learnable projections optimize in-distribution fit, they alter the foundational feature space.
ImplicationpartialDirectly stated in abstract as an identified phenomenon
Verificationpartialpartial
- Evidencepartial
We demonstrate that a projection-free local alignment preserves the native geometry of the CLIP manifold, yielding state-of-the-art OOD detection performance
ImplicationpartialDirectly stated in abstract as a technical advantage
Verificationpartialpartial
- Evidencepartial
Recent works extend this paradigm by incorporating local image-text alignment to capture fine-grained visual cues, yet these approaches often select local regions independently for each prompt, leading to redundant local feature usage and prompt overlap.
ImplicationpartialDirectly stated in abstract as limitation of prior work
Verificationpartialpartial