CALM Aligns Brain Imaging and Genetics for Biomarker Discovery.
▶ The 2-minute explainer
Key takeaways
- CALM enables interpretable cross-modal alignment of unpaired brain imaging and genetic data.
- It helps discover biomarkers and understand neuropsychiatric disorders like autism.
- The framework aligns modalities in a shared latent space via interpretable linear projections.
- CALM outperforms state-of-the-art methods and reveals biologically consistent associations.
Who benefits
Summary
CALM is a framework that learns interpretable associations between brain regions and genetic pathways from separate neuroimaging and genetics datasets. It aligns these modalities in a shared latent space, outperforming state-of-the-art methods in biomarker discovery for neuropsychiatric disorders like autism.
Why it matters
Professionals in healthcare, pharmaceuticals, and AI for medicine can use this framework to accelerate biomarker discovery, improve understanding of complex diseases, and potentially develop more targeted treatments.
How to implement this in your domain
- 1Explore applying CALM to existing unimodal datasets in neuroscience or other biological domains to uncover novel cross-modal relationships.
- 2Collaborate with research institutions to validate CALM's findings on specific neuropsychiatric disorders.
- 3Develop tools or platforms that integrate CALM's methodology for automated biomarker discovery from disparate data sources.
- 4Investigate the interpretability features of CALM to gain deeper biological insights into disease mechanisms.
Original post by Jueqi Wang, Zachary Jacokes, John Darrell Van Horn, Kevin A. Pelphrey, Michael C. Schatz, Archana Venkataraman
"arXiv:2607.01656v1 Announce Type: new Abstract: The interaction between brain structure and genetic influences is key to understanding neuropsychiatric disorders. However, most large-scale datasets are unimodal, providing either neuroimaging or genetics data. We propose CALM, a f…"
View on XOriginally posted by Jueqi Wang, Zachary Jacokes, John Darrell Van Horn, Kevin A. Pelphrey, Michael C. Schatz, Archana Venkataraman 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
Vast Underground Hydrogen Reserves Discovered Globally
Geochemists have found ancient water containing hydrogen deep underground, suggesting the existence of significant natural hydrogen reserves worldwide. This discovery opens new possibilities for a clean energy source.
Stochastic Weight Averaging Boosts Data Augmentation Performance
This research shows that Stochastic Weight Averaging (SWA) significantly enhances the equivariance boost from data augmentation in deep neural networks, especially in the infinite-width limit. It offers a cost-effective alternative to training large ensembles for improved symmetry.
Imposter: Self-Supervised Learning for Physical Coherence in Scientific Data
Imposter is a new self-supervised learning method that trains encoders to detect physically inconsistent feature swaps between entities, enabling models to learn cross-feature physical dependencies. It improves representations for land-surface modeling and complements existing SSL objectives.