#9 · ML / AI methods
Contrastive and graph encoders for biomolecular interaction and expression prediction
The dominant thread is the use of pretrained or external biological structure to shape learned representations for prediction tasks. AbAgKer draws on pre-trained representations and epitope pseudo-structure priors, DynaTCR uses dynamic hard-negative graph ensembles for TCR-epitope binding, and DFCE-KanT applies contrastive learning to predict spatial gene expression from histology images. LFFA reuses frozen foundation-model features for few-shot pathology biomarker prediction, while MRGBMDAT and HMA-GCA apply graph encoding, bilinear fusion, and gated cross-attention to miRNA-disease and circRNA-miRNA associations. Not all items share this emphasis: TRACE reports near-chance results under an audited protocol, and a knowledge graph benchmark shows that train-test redundancy and degree bias inflate link prediction performance. The notable addition across this set is closer attention to evaluation rigor alongside architectural design.
Published papers
EECFS: Efficient Ensemble Causal Feature Selection for High-Dimensional Molecular Data.
EECFS, an efficient ensemble causal feature selection algorithm with faster spouse discovery for molecular data, plus CFDPSM for synonymous variant effect…
Systematic detection of predictive gene sets by semantics-based selection.
Proposes using Gene Ontology semantic structure to select predictive gene subsets for clinical ML, benchmarked on 16 medical datasets, outperforming full-gene…
A benchmarking study of feature screening approaches across type 1 diabetes omics studies classification settings.
Benchmarks model-free sure independence screening feature-selection methods on type 1 diabetes omics datasets for ML classification; BcorSIS is most effective…
Preprints
Uncovering High-Order Epistatic Interactions in GWAS via a Machine Learning-Based Feature Engineering Framework
Proposes a CART-based feature engineering framework that encodes high-order epistatic decision paths as dummy variables to improve GWAS interaction detection,…
Topic history
| Date | Rank |
|---|---|
| #9 | |
| #11 | |
| #2 | |
| #12 | |
| #9 | |
| #13 | |
| #11 | |
| #8 | |
| #23 | |
| #13 | |
| #24 | |
| #23 | |
| #27 | |
| #37 | |
| #10 | |
| #13 | |
| #2 | |
| #5 | |
| #1 | |
| #18 | |
| #7 | |
| #11 | |
| #5 | |
| #17 | |
| #31 | |
| #29 | |
| #26 | |
| #35 |