physics instrumentation

Machine Learning for Complex Instrument Design and Optimization

arXiv:2607.14619 · doi:10.1142/9789811265679_0007

summary

The paper discusses how machine learning can be used to analyze large operational datasets and speed up physics simulations to improve the design and performance of complex experimental instruments such as particle accelerators and gravitational‑wave observatories.

Abstract

In modern experimental physics, particle accelerators and gravitational-wave observatories enable a wide-range of research at the frontiers of science. These instruments are highly complex consisting of many interacting systems which can face significant operational challenges. Apart from the experiment's main data product, a lot of data about the experimental apparatus and its environment is recorded. Machine learning techniques can analyze this big data at scale and find useful insights into operational faults potentially improving the instrument's performance and achieving the design goals. Speaking of design, machine learning can also accelerate/augment the expensive physics simulations used during the design phase of such large-scale instruments.

28 pages, 8 figures

Topics & keywords

#machine learning#instrument design#optimization#particle accelerators#gravitational-wave observatories#simulation accelerationmachine learningbig datafault detectionphysics simulationdesign optimizationinstrumentation
Machine Learning for Complex Instrument Design and Optimization · wovepaper