OUR WORK

From scientific infrastructure to molecular discovery.

Our current strategy has two tightly connected parts: build the computational capabilities needed to explore chemistry at scale, and use those capabilities to investigate scientific problems that matter.

Capabilities that expand what science can explore.

Our primary technical focus is high-throughput molecular simulation. It provides the foundation for our current research programs and the open scientific infrastructure we share.

01

High-throughput simulation

Make molecular simulation massively scalable.

Molecular simulation is traditionally organized around individual calculations and bespoke workflows. AFH is building systems that allow large computational experiments to be defined, distributed, executed, analyzed, and reproduced systematically. This capability forms the foundation for everything else we do.

02

Reaction-network discovery

Explore how chemistry can unfold.

Chemical systems can contain vast networks of possible reactions and intermediates. AFH is developing computational approaches for discovering and navigating these networks automatically. Scalable reaction discovery can help transform chemical exploration from a process constrained by individual hypotheses into a more systematic search over possible chemistry.

03

Catalyst design

Design better pathways through chemical space.

Catalysts determine which reactions become practical, selective, and efficient. AFH uses molecular simulation and computational exploration to investigate catalyst behavior and develop approaches to more systematic catalyst design.

04

Sustainable polymers and materials

Design molecular systems with their consequences in mind.

Materials and polymers shape nearly every part of modern life. We are interested in molecular systems that can deliver useful performance while improving compatibility with human and environmental health.

Build against the hardest scientific problems.

Frontier research reveals where today's software, workflows, and computational systems break down. AFH turns those constraints into general infrastructure that can serve the broader scientific community.

  1. 01Scientific problem
  2. 02Infrastructure bottleneck
  3. 03Build general tools
  4. 04Run larger experiments
  5. 05Scientific discovery
  6. 06New scientific problem
AFH uses frontier research to expose the limitations of today's computational infrastructure, then turns solutions to those limitations into general tools for the broader scientific community.

Infrastructure should serve more than one laboratory.

AFH makes its scientific tools openly available and provides shared computation and ChemCloud access to external researchers where possible.

PROGRAM IN DEVELOPMENT

AFH Software Fellows

AFH is establishing a Software Fellows program to support people building and improving important open scientific software.

Public understanding matters too.

The consequences of molecular design extend far beyond chemistry laboratories. AFH works to improve public understanding of how modern chemistry affects human health and the environment and why advances in molecular science can help create better alternatives.

Explore the infrastructure behind the science.

View our technology