If you are a pharmaceutical giant dealing with a 10-15 year timeline for a successful drug, this project developed a quantum-agnostic platform that provides faster, accurate ranking of ligands. This reduces the reliance on wet-lab experiments and helps lower the €2.5bn average cost of drug development.
Quantum-Powered Software to Speed Up Drug Discovery and Reduce Lab Testing Costs
Imagine trying to find a key for a lock, but the lock is invisible and changes shape. Current computers guess the shape, but often get it wrong, leading to expensive failures in the lab. This software uses quantum physics to create a perfect digital map of the lock, so scientists know exactly which key works before they ever touch a test tube.
What needed solving
Drug discovery is currently too slow and expensive, with success rates as low as 10-12% and costs reaching €2.5bn per drug. This is largely due to inaccurate molecular simulations that lead to failures in the wet-lab stage.
What was built
Kvaser, a hardware-agnostic software platform that combines quantum computing and high-performance computing, featuring a novel unbinding-kinetics algorithm for ligand ranking.
Who needs this
Who can put this to work
If you are a biotech firm dealing with inaccurate simulations of biochemical systems, this project developed Kvaser, a user-friendly tool that combines quantum and high-performance computing. It allows non-coding experts to run high-precision calculations to identify viable drug candidates faster.
If you are a Computer-Aided Drug Design provider dealing with slow simulation routines, this project developed an unbinding-kinetics algorithm. This provides a way to offer customers unmatched speed and accuracy in molecular simulations regardless of the quantum hardware used.
Quick answers
How does this reduce the cost of drug development?
By providing more accurate simulations and ligand ranking, the platform aims to reduce the number of failed trials and the need for expensive wet-lab and animal testing. This targets the 42-50% of development costs currently spent on discovery and preclinical stages.
Can this be used with any quantum computer?
Yes, the project specifically developed a quantum-hardware-agnostic software tool, meaning it is designed to work across different types of quantum hardware.
What is the industrial scale of this solution?
The platform is designed for the chemistry and pharma industry to handle complex computational problems that are currently beyond the scope of the world's largest supercomputers.
What is the IP or licensing model?
Based on available project data, the specific licensing terms are not disclosed, but the project focuses on developing a proprietary software platform called Kvaser.
What is the expected timeline for impact?
The project period runs from 2023-08-01 to 2025-07-31, aiming to move quantum computing closer to commercial utility for pharma R&D.
Who built it
The project is led by a single SME, Kvantify APS from Denmark, which holds 100% of the industry ratio. This lean structure suggests a highly focused development cycle where the coordinator maintains full control over the intellectual property and the software's direction.
Contact KVANTIFY APS in Denmark regarding the Kvaser platform
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Contact us to explore licensing or partnership opportunities with Kvantify APS.