Quantum
End-to-end workflows transform problems to solutions with quantum chemistry execution. Use classical preprocessing, advanced circuit compression techniques, and chemistry-aware quantum algorithms built for scale.
Chemistry-aware algorithms use molecular structures to dramatically reduce circuit depth and quantum resource requirements.
For chemistry problems that require quantum computation, classical preprocessing generates the essential inputs for quantum chemistry algorithms.
An expandable framework supports tailored workflows, interoperability across platforms, and the integration of new methods to adapt to changing needs.
A rich collection of example problems—including real chemical systems and model Hamiltonians—simplifies chemistry applications on quantum computers.
QDK for chemistry is a robust toolkit that builds on the QDK foundation. It optimizes chemistry problems for quantum computers and offers interoperability across platforms.
A technical paper announcing QDK/Chemistry as a software toolkit for quantum chemistry workflows.
A technical paper that introduces a cloud native, GPU‑accelerated approach to density functional theory (DFT), enabling significantly faster electronic structure simulations without sacrificing accuracy.
A technical paper that demonstrates the first end-to-end integration of high-performance computing (HPC), reliable quantum computing, and AI in a case study on catalytic reactions producing chiral molecules.
A technical paper that introduces a new way to classify electronic structures and prepare quantum states for reaction chemistry, highlighting the challenges of modeling complex molecules.
Design, test, and deploy quantum error correction codes. Use the structured framework to explore, analyze, validate, and implement your ideas.
The VS Code extension, Python packages, and GitHub Copilot integration provide the powerful core functionalities of the QDK.