Uploaded March 2026 | Updated September 2026, 2 weeks ago
Designing new catalysts is one of the most important and complex challenges in chemistry. Catalysts are essential for creating new materials, producing chemicals efficiently, and enabling cleaner industrial processes.
In this video, Jia-Min Chu, a postdoctoral researcher on the catalyst simulation team at SandboxAQ, explains how AI and quantum chemistry are transforming the way scientists design catalysts.
Traditionally, researchers rely on density functional theory (DFT) calculations to study catalytic reactions. While highly accurate, these methods can be computationally expensive and slow, especially when working with large, flexible molecular structures with many possible configurations.
To address this challenge, researchers are developing computational workflows that combine quantum chemistry with advanced AI techniques to make catalyst design both predictive and scalable.
Key topics in this video include:
-Why catalyst design is computationally challenging
-How quantum chemistry simulations help scientists understand reactions
-The importance of conformational sampling in catalytic performance
-Using AI to accelerate chemical discovery while preserving quantum-level accuracy
-Why AI is a tool for scientists, not a replacement for them
By teaching computers the rules of chemistry, researchers can dramatically accelerate catalyst discovery. Processes that once took years or decades can be reduced to hours or days.
These advances could impact everything from materials science and sustainable chemistry to drug discovery and industrial manufacturing.
Subscribe to learn more about AI, quantum science, and the future of scientific discovery.
#sandboxaq #lqms #aqchemsim
Designing new catalysts is one of the most important and complex challenges in chemistry. Catalysts are essential for creating new materials, producing chemicals efficiently, and enabling cleaner industrial processes.
In this video, Jia-Min Chu, a postdoctoral researcher on the catalyst simulation team at SandboxAQ, explains how AI and quantum chemistry are transforming the way scientists design catalysts.
Traditionally, researchers rely on density functional theory (DFT) calculations to study catalytic reactions. While highly accurate, these methods can be computationally expensive and slow, especially when working with large, flexible molecular structures with many possible configurations.
To address this challenge, researchers are developing computational workflows that combine quantum chemistry with advanced AI techniques to make catalyst design both predictive and scalable.
Key topics in this video include:
-Why catalyst design is computationally challenging
-How quantum chemistry simulations help scientists understand reactions
-The importance of conformational sampling in catalytic performance
-Using AI to accelerate chemical discovery while preserving quantum-level accuracy
-Why AI is a tool for scientists, not a replacement for them
By teaching computers the rules of chemistry, researchers can dramatically accelerate catalyst discovery. Processes that once took years or decades can be reduced to hours or days.
These advances could impact everything from materials science and sustainable chemistry to drug discovery and industrial manufacturing.
Subscribe to learn more about AI, quantum science, and the future of scientific discovery.
#sandboxaq #lqms #aqchemsim
