Machine Learning Scientist at Synlico Boise, Idaho

Md Shamim Hussain, Ph.D.

At Synlico, I work on deep reinforcement learning methods for causal discovery in single-cell genomics, with a focus on inferring gene regulatory networks as directed causal graphs.

My broader research focuses on deep neural architectures for graph-structured data, including graph transformers, geometric deep learning, molecular representation learning, and efficient global attention.

Md Shamim Hussain

Current research Synlico

Causal Structure Learning in Genomics

At Synlico, I research deep reinforcement learning-based causal discovery methods for inferring gene regulatory networks as directed causal graphs from high-dimensional single-cell genomics data.

This work includes GPU-accelerated training and evaluation workflows for causal structure learning and collaboration across machine learning and bioinformatics.

Selected research

Research Contributions

My prior research through the Rensselaer-IBM AI Research Collaboration focused on graph transformer architectures for structural graph representations, molecular geometry, and efficient attention.

KDD 2022 Graph transformers

Edge-augmented Graph Transformer (EGT)

EGT is an early graph transformer architecture that introduced evolving structural edge channels for joint node and pair representations across graph-level prediction, edge classification, and link prediction.

Author and maintainer of the PyTorch and TensorFlow implementations.

KDD 2023 Efficient attention

Stochastically Subsampled Self-Attention (SSA)

SSA subsamples transformer self-attention during training and formulates the Information Pathways Hypothesis, reducing attention memory and computation by 4–8× across graph, vision, and language tasks.

ICML 2024 Molecular geometry

Triplet Graph Transformer (TGT)

TGT extends EGT with third-order interactions among groups of three atoms and a 2D-to-3D framework that predicts interatomic distances from 2D molecular graphs for property prediction.

Author and maintainer of the official PyTorch implementation.

TGT has remained the top-ranked non-ensemble submission on PCQM4Mv2 for more than two years and records the highest EwT among direct methods on the Open Catalyst 2020 (OC20) IS2RE leaderboard.

Contact

I am based in Boise, Idaho. For research and professional correspondence, email snirjhar@gmail.com.