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Award details
- Awarding agency
- Department of Energy
- Branch
- Not reported
- Recipient company
- RADIASOFT LLC
- Proposal award date
- 2022-06-27
- Contract end date
- 2023-06-26
- UEI
- LKPJVNM8BMS5
- Solicitation number
- Not reported
- Topic code
- C54-32b
Research abstract
Superconducting magnet technology is one of the cornerstones of high energy accelerators. When
small portions of these magnets cease to be superconducting, due to beam loss for example, the
whole magnet can become normal conducting. This process referred to as a quench can be
catastrophic. The ability to predict the onset of a quench and classify dierent quench events is
highly valuable to the safe and reliable operation of superconducting accelerators.
GENERAL STATEMENT OF HOW THE PROBLEM IS BEING ADDRESSED
Our proposal will use machine learning to classify dierent types of quench events, identify
quench precursors, and predict the onset of a quench. We will explore a range of unsupervised
learning techniques and evaluate their ability to be deployed as part of real time systems using
eld programmable gate arrays.
WHAT IS TO BE DONE IN PHASE I?
During Phaser I we will work with an accelerator laboratory to collect data necessary for building
a machine learning application. We will then design classiers to identify dierent types of quench
events. Following this we will work with high-speed data to both identify quench precursors and
forecast the onset of a quench. We will integrate uncertainty quantication in to our software as
well, in order to provide a condence interval for the predictions. Finally we will evaluate our
ability to deploy these algorithms on a eld programmable gate array using specialized tools and
compilers.
COMMERCIAL APPLICATIONS AND OTHER BENEFITS
The development of machine learning tools for quench prediction will fundamentally improve the
performance and reliability of particle accelerators, while greatly reducing costs, both for the US
high energy physics community and for many scientic facilities around the world. The methods
developed here could also be applied to superconducting radio frequency cavities and other
complex accelerator systems that have a tendency to fail. Moreover, machine learning for failure
prediction is a highly valuable tool that has applications outside of accelerators.
Technology keywords
Not reported
Other awards by this recipient
Verified by the same UEI. These are other public SBIR/STTR award pages, not a merged company record.
Awards with the same topic code
Verified by an exact topic code match. This is not a text-similarity match.
Research funding history
63 SBIR/STTR records share this UEI (2014–2025). Reported award amounts total $31,709,348. Reported amounts are not federal obligations.
Phases: Phase I, Phase II
Agencies: Department of Energy, Department of Health and Human Services, Department of Defense
Agency intelligence
Department of Energy
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