Chemify Receives an Additional Grant to Accelerate Digital Chemistry Small-Molecule Discovery for Tuberculosis

Follow-on grant from Gates Foundation uses Chemify’s digital chemistry technology and Lgenia’s drug discovery expertise to accelerate the discovery of small molecules for high-priority infectious disease targets

GLASGOW, Scotland–(BUSINESS WIRE)–#ChemifarmChemify, the deep-tech pioneer fusing chemistry, robotics, computation, and Chemputation—Chemify’s purpose-built AI to digitize molecule creation—has received additional grant funding of $1.6 million from the Gates Foundation to continue the discovery of small molecules for tuberculosis (TB). Building on a successful collaboration with Lgenia, the expanded project will leverage Chemify’s automated platform to design and synthesize new drug leads addressing one of the world’s most urgent infectious diseases.


This next phase builds on Chemify’s earlier Gates Foundation-funded collaboration, bringing the total funding to $3.2 million and successfully demonstrating the application of digital chemistry to accelerate small-molecule discovery. Insights from that initiative helped refine Chemify’s Chemputation workflows for compound design, chemical reaction planning and validation, strengthening the company’s ability to deliver high-quality candidates efficiently and at scale for therapeutic and disease applications.

“We’re honored that yet another collaborator has decided to renew their partnership with Chemify. Continued support from the Gates Foundation enables us to build on our work with Lgenia and push the boundaries of digital chemistry for global health to address tuberculosis,” said Lee Cronin, CEO and Founder, Chemify. “Chemputation lets us design small molecules directly from code which our AI-enabled digital chemistry platform ensures is makeable, turning chemistry into a programmable science where Chemify’s systems can create new therapeutics rapidly and reproducibly.”

Chemify’s Chemputation platform merges extensible programming language, advanced robotics and the world’s largest curated library of validated reactions, which empowers partners to move seamlessly from concept to compound. Chemify’s platform combines structure-activity relationship (SAR) exploration with data-driven molecular design, allowing collaborators to rapidly generate optimized compounds with strong potency and drug-like properties. The closed-loop workflow accelerates iteration and enhances design confidence to achieve high-quality hits and leads with exceptional speed and precision.

Under the expanded collaboration, Lgenia and Chemify will collaboratively define strategies for the design and optimization of new molecules. Chemify will then design and synthesize potential hits and leads through its Chemputation full digital chemistry workflow. Lgenia will orchestrate compound testing in enzyme and whole-cell assays. Together, the teams will identify and validate compounds against high-priority TB targets, advancing the most promising candidates toward hit-to-lead development.

About Chemify

Chemify is reimagining the discovery and synthesis of novel molecules for medicines and advanced materials by turning digital code into physical compounds through Chemputation—its fusion of robotics and AI. Headquartered in Glasgow, Scotland, the company was founded by Lee Cronin to digitalize chemistry at global scale for the benefit of humanity. Learn more at Chemify.io and follow @ChemifyX on X/Twitter.

Contacts

Media

Tim Ingersoll

Linnden Communications

[email protected]

Subscribe on LinkedIn

Get the free newsletter

Subscribe to MedicaEx for top news, trends & analysis

Businesswire is solely responsible for the content of the above news submissions. If there are any violations of laws, violations of the membership terms of this website, or the risk of infringing on the rights of third parties, businesswire will be solely responsible for legal and damage compensation. Responsibility has nothing to do with MedicaEx.

Are you in?

Stay up-to-date with the latest Newsletters, free of charge.