Materials & aerospace
Quantum Simulations for Molecular DesignMaturity: concept
Electronic-structure and molecular-interaction simulation for candidate design and screening.
concept — An idea we find credible. Nothing has been built or measured.
What this is
The problem
Predicting how a molecule behaves — its electronic structure, how it binds, how it reacts — is the foundation under drug discovery, catalysis and materials. Accuracy and cost trade against each other steeply.
Where the current approach strains
Density functional theory is the workhorse and is remarkably good, but it has known blind spots: strongly correlated systems, transition-metal chemistry, excited states. Those blind spots overlap uncomfortably with the interesting problems.
What we are exploring
Simulation of electronic structure and molecular interaction for small, strongly-correlated systems where classical approximation is weakest — the narrow band where quantum methods have the clearest theoretical case.
What would have to be true
Agreement with high-accuracy classical results on systems small enough that both can be run. That is the only honest starting point: match the known answer before claiming the unknown one.
Where it applies
Related
High-Entropy Alloys for Aerospace
Simulation of alloy composition, phase stability, defects and aerospace material performance.
Programmable Matter & Smart Polymers
Molecular self-assembly, phase transitions and stimuli-responsive polymer design.
Quantum-Encrypted Materials Databases
Consortium members want to pool materials data without exposing their own pipeline, and trust-plus-a-contract does not scale across parties who are collaborators and competitors at once. We are looking at quantum-resistant schemes for confidentiality that has to outlast current cryptography. Stated plainly: most of this is a governance problem wearing a cryptography costume, and we would want to argue the answer is boring standard cryptography before agreeing that it is not.