COAST Predicts Gene Expression from Histology Images
Key takeaways
- COAST predicts spatial gene expression from H&E images, reducing costs.
- It uses context-aware differential learning for improved accuracy.
- The framework combines absolute and relative expression relationships.
- COAST shows consistent improvements across multiple datasets.
Who benefits
Summary
Researchers propose COAST, a context-aware differential learning framework that predicts spatial gene expression from H&E histopathology images. Unlike previous methods, COAST explicitly uses relative expression relationships between spots, combining absolute expression regression with signed differential regression to improve prediction accuracy across multiple datasets.
Why it matters
This research offers a cost-effective and high-throughput method for spatial gene expression profiling, accelerating drug discovery, disease understanding, and personalized medicine.
How to implement this in your domain
- 1Integrate COAST into bioinformatics pipelines for researchers studying tissue heterogeneity and disease mechanisms.
- 2Develop user-friendly software tools that allow pathologists to predict gene expression from H&E images in research settings.
- 3Collaborate with pharmaceutical companies to apply COAST in early drug discovery for target identification and validation.
- 4Explore the use of COAST in clinical research to identify spatial biomarkers for diagnosis and prognosis.
Original post by Keunho Byeon, Sunhong Park, Jeewoo Lim, Jin Tae Kwak
"arXiv:2607.09166v1 Announce Type: new Abstract: Spatial transcriptomics enables profiling of spatial gene expression but is limited by high cost and low throughput, motivating prediction from H&E histopathology images. Existing context-aware methods mainly supervise absolute expr…"
View on XOriginally posted by Keunho Byeon, Sunhong Park, Jeewoo Lim, Jin Tae Kwak on X · view source
Want to go deeper?
Turn these trends into skills with Learnijoy's hands-on AI & tech courses.
Explore coursesMore in AI Research
Resilient Decentralized Federated Learning for Wireless IoT Networks
This paper introduces QEF-GT-AdamW, a communication-efficient and outage-resilient algorithm for decentralized federated learning over wireless IoT networks. It combines gradient tracking, AdamW optimization, and dual-stream biased quantization with error feedback to improve robustness and convergence under heterogeneous data and unreliable communication.
FedQoS Predicts QoS Risk for Wireless Access Selection
This paper proposes FedQoS, a federated QoS-risk learning framework that predicts future QoS degradation for reliable access selection in heterogeneous indoor-outdoor wireless environments. It enables access nodes to locally learn from network logs and collaboratively train a global predictor without centralizing user data, significantly reducing QoS failure rates.
Parametric Knowledge Graphs Show Storage-Retrieval Gap
This paper explores compiling knowledge graphs into LoRA adapters for parametric memory, finding that while adapters effectively store factual knowledge, retrieving it via semantic similarity or weight-space geometry is ineffective. This highlights a "storage-retrieval gap" and the need for new query-conditioned composition mechanisms.