#4 · ML / AI methods
Inferring unmeasured spatial omics layers from histology, transcripts and host signals
The dominant thread is inferring an unmeasured spatial layer from a measured one. TSNR predicts spatial protein abundance from spatial transcriptomics using protein-specific center signals, compact broad molecular context and a Huber loss. A separate benchmark of cross-slice imputation in spatial single-cell proteomics reports that learning-based methods outperform alignment-based ones. PatHoST uses weak supervision to reconstruct pathogen spatial distributions from host spatial transcriptomes, benchmarked on M. abscessus. On the histology side, a multi-scale graph neural network predicts bulk, spatial and single-cell transcriptomics from whole-slide images. HistoTx instead early-fuses H&E patches with transcript tokens at arbitrary resolution under self-supervised training. These two are described mainly through architecture rather than recovery testing. A secondary strand targets cancer survival modeling: CMVAE learns contrastive single-omic latents, GOTSurv applies unbalanced optimal transport to TCGA cross-sectional data, and DMG-PoE handles missing modalities with product-of-experts fusion. What is new is the explicit evaluation of whether imputed spatial layers are faithfully recovered.
Published papers
Multi-omics survival prediction under modality incompleteness via dynamic modality graphs and product-of-experts fusion.
DMG-PoE, a learning framework using a dynamic modality graph and uncertainty-aware product-of-experts fusion, predicts cancer survival from multi-omics data…
Preprints
From WSIs to Bulk, Spatial and Single-Cell Transcriptomics via Multi-Scale Graph Neural Networks
Multi-scale graph neural network predicts bulk, spatial, and single-cell transcriptomics directly from whole-slide histopathology images using pathology…
HistoTx: Early fusion of H&E images and spatial transcriptomics at varying spatial transcriptomics resolution with self-supervised learning
HistoTx: an early-fusion vision transformer that merges transcript tokens at arbitrary resolution with H&E image patches, continuing self-supervised…
PatHoST: weakly supervised reconstruction of pathogen spatial distributions from host transcriptomes
PatHoST, a weakly supervised framework, reconstructs pathogen spatial distributions from host spatial transcriptomics, validated with M. abscessus benchmarking…
Interpretable Deep Learning of Endogenous Fluorophore Concentration and Entropy for Lung Tissue Classification
Interpretable GAMI-Net on fluorophore concentration and entropy maps classifies normal vs cancerous lung tissue (ROC AUC 98.4%).
Evaluation of Cross-slice Imputation for Spatial Proteomics
Benchmarks learning-based and alignment-based methods for cross-slice protein imputation in spatial single-cell proteomics; learning methods outperform…
TSNR: Protein-Specific Signals with Broad Molecular Context for Spatial Protein Prediction
TSNR predicts spatial protein abundance from spatial transcriptomics using protein-specific center signals, compact broad molecular context, and a robust Huber…
CMVAE: Contrastive Supervision Improves Single-Omic Latent Manifold for Breast Cancer Survival Prognosis
CMVAE, a self-supervised masked denoising variational autoencoder with contrastive survival alignment, learns single-omic latent spaces for breast cancer…
Discovering Prognostic Risk Strata and Heterogeneous Progression Routes from Cross-Sectional Survival Data
Unbalanced optimal transport method GOTSurv stratifies TCGA patients by survival risk and infers individual progression trajectories.
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