Patricia Suriana
Patricia Suriana is a machine learning researcher who builds deep learning methods for 3D molecular structure, from protein models to small-molecule drug design. With Ron Dror, she coauthored the geometric vector perceptron paper presented at ICLR 2021 and ATOM3D, a benchmark collection that received a NeurIPS 2021 Datasets and Benchmarks Award. She wrote FlexVDW on protein flexibility in ligand docking in 2023 and completed a Stanford computer science PhD in 2024 with a dissertation on equivariant neural networks. Her papers in 2025 and 2026 covered electron-density inputs for 3D learning, language models for small-molecule drug design, and the SynLaD molecule generator. She works at Prescient Design, Genentech.
Timeline
-
2020–2021
Geometric vector perceptrons
With Bowen Jing, Stephan Eismann, Raphael Townshend and Ron Dror, she coauthors "Learning from Protein Structure with Geometric Vector Perceptrons", posted in 2020 and presented at ICLR 2021. The paper introduces geometric vector perceptrons, which extend standard dense layers to operate on collections of Euclidean vectors, and applies them to model quality assessment and computational protein design.
-
2021
A NeurIPS benchmarks award
She is one of 13 authors of ATOM3D, a collection of benchmark datasets for 3D molecular learning, first posted in 2020 with Raphael Townshend as first author. The paper appears in the NeurIPS 2021 Datasets and Benchmarks track and receives a Datasets and Benchmarks Award at NeurIPS 2021.
-
2023
FlexVDW for flexible docking
In 2023, she is first author of FlexVDW, written with Joseph Paggi and Ron Dror and published at the MLDD workshop at ICLR 2023. The deep learning model predicts van der Waals energy while accounting for receptor flexibility, and it improves ligand pose prediction when the protein deforms substantially.
-
2024
A Stanford computer science PhD
She completes a PhD in Stanford's Computer Science Department in 2024, with Ron Dror as her degree supervisor. Her dissertation, "Efficient learning from 3D molecular structures using equivariant neural networks", covers protein model quality assessment, a machine-learned scoring function for protein-ligand docking with protein flexibility, and pocket-aware 3D fragment-based ligand optimization.
-
November 2025
Electron density for 3D learning
In November 2025, she is first author of "Beyond Atoms: Evaluating Electron Density Representation for 3D Molecular Learning", written at Prescient Design, Genentech with Joshua Rackers, Ewa Nowara, Pedro Pinheiro and colleagues. The paper compares atom-type, raw electron-density and density-gradient voxel inputs for 3D convolutional networks on protein–ligand binding affinity and quantum property prediction.
-
April 2026
Language models for drug design
In April 2026, she coauthors "Evaluating the Progression of Large Language Model Capabilities for Small-Molecule Drug Design" with Shriram Chennakesavalu, Kangway Chuang and colleagues. The paper builds chemistry tasks as reinforcement learning environments and shows that RL post-training lets a smaller model compete with frontier models.
-
As of October 2026
Prescient Design at Genentech
She works at Prescient Design (AI for Drug Discovery), Genentech, in South San Francisco. In July 2026, she coauthors SynLaD, a latent diffusion model that generates synthesizable small molecules conditioned on 3D pharmacophore profiles, which appears in the proceedings of the 43rd International Conference on Machine Learning in 2026.
Career
- NowRoche
Education
- 2024Stanford UniversityPhD
Sources and credits
Photo: We have no published photo of Patricia Suriana yet. Send us a free-licensed photo.
- Learning from Protein Structure with Geometric Vector Perceptrons
- ATOM3D: Tasks On Molecules in Three Dimensions
- NeurIPS 2021 Awards
- FlexVDW: A machine learning approach to account for protein flexibility in ligand docking
- Efficient learning from 3D molecular structures using equivariant neural networks | Stanford Digital Repository
- Beyond Atoms: Evaluating Electron Density Representation for 3D Molecular Learning
- Evaluating the Progression of Large Language Model Capabilities for Small-Molecule Drug Design
- SynLaD: Latent Diffusion for Generating Synthesizable Molecules Conditioned on 3D Pharmacophore Profiles
- SynLaD: Latent Diffusion for Generating Synthesizable Molecules Conditioned on 3D Pharmacophore Profiles