Towards an Integrated Research Infrastructure for Laser Plasma Acceleration Experiments
POSTER
Abstract
To support more efficient fusion ignition, we are developing a
digital twin, driven by AI/ML capable of providing real-time opti-
mization guidance, learning from both experimental and simulation
data. We have developed a dashboard hosted on the container-based
platform SPIN that provides real-time guidance for running optimal
laser-plasma experiments. Within this dashboard, we have integrated
methods to automate running GPU simulations and training ML
models using both simulation and experimental data using the LBNL
NERSC (National Energy Research Scientific Computing) Superfacil-
ity API (Application Programming Interface). We use a databse to
store experimental and simulation data and the ML model. From this
database, we visualize the ML model predictions with both simulation
and experimental data.
digital twin, driven by AI/ML capable of providing real-time opti-
mization guidance, learning from both experimental and simulation
data. We have developed a dashboard hosted on the container-based
platform SPIN that provides real-time guidance for running optimal
laser-plasma experiments. Within this dashboard, we have integrated
methods to automate running GPU simulations and training ML
models using both simulation and experimental data using the LBNL
NERSC (National Energy Research Scientific Computing) Superfacil-
ity API (Application Programming Interface). We use a databse to
store experimental and simulation data and the ML model. From this
database, we visualize the ML model predictions with both simulation
and experimental data.
*This work was supported in part by the U.S. Department of Energy, Office of Science, Office of Workforce Development for Teachers and Scientists (WDTS) under the Science Undergraduate Laboratory Internship (SULI) program.
Presenters
-
Ethan Joseph Rodriguez
- St. Mary's University