Decode
Design
Discover

Smarter, Not Harder

One-stop-shop platform to handle in-silico design process.

ProGene AI Platform

One-Stop-Shop AI Platform for protein design

  • A flexible and comprehensive generative AI framework covering all design steps in one place

Automate In-Silico Pipeline

  • Streamlined fully automated in-silico pipelines with zero coding knowledge.

Faster and cheaper protein design

  • Augments human expertise for accelerated design with reduced failure rates and rapid iteration for refinements

ProGene Purpose

Why we wake up every morning and what drives us forward

Mission

To automate the in-silico phase of protein design using AI, streamlining the process for greater efficiency.

"Making drug development faster and more accessible through powerful AI tools."

Vision

To transform drug development into a faster, more affordable, and widely accessible process through advanced AI tools.

"A world where AI accelerates scientific discovery to address humanity's greatest challenges."

Our Research

Prot2Token: A multi-task framework for protein language processing using autoregressive language modeling

Our Prot2Token is a task-agnostic protein language model that unifies diverse protein prediction tasks, such as protein-level, residue-level, and protein-protein interaction predictions, using a versatile tokenization method and next-token prediction in a single end-to-end framework.

Read full paper

Extending Prot2Token: Aligning Protein Language Models for Unified and Diverse Protein Prediction Tasks

Our Extending Prto2token approach enables next-token prediction across new applications of protein prediction tasks, including protein-protein structure similarity, 3D structure prediction, mutation stability, post-translational modifications (PTMs), substrate kinase phosphorylation sites, protein-protein affinity, and protein-ion binding sites.

Read full paper

Using Autoregressive-Transformer Model for Protein-Ligand Binding Site Prediction

Our unified model integrates a protein language model with an autoregressive transformer to predict protein-ligand binding sites from protein sequences alone, and we show its improved performance and broad ligand coverage with results for 41 ligands using specialized tokens and shared learning.

Read full paper

Predicting Kinase-Substrate Phosphorylation Site Using Autoregressive Transformer

Prot2token is narrowed down to predict kinase-specific phosphorylation sites by utilizing the full substrate sequence and kinase information.

Read full paper

Our Partners

NVIDIA logo
NVIDIA logo
University of Missouri logo