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Advanced Application user interfaces for time-dependent Recursive indeXing (tRecX) Code: from Design to Production Deployment
Published
Author(s)
Barry I. Schneider
Abstract
The study of strong field interaction of lasers with atoms and molecules leading to phenomena such as photoionization and higher harmonic generation requires a careful mathematical treatment of complex atomic physics in order to solve the time-dependent Schrodinger equation (TDSE). One efficient approach to address the solution of the TDSE for multielectron systems is to combine 'infinite range exterior complex scaling' (IrECS) with the timedependent surface-flux (tSURFF) method for computing photoelectron spectra from atoms and molecules. The tRecX software suite implements this combination via a parallelized C++ code, now available on the Atomic, Molecular, and Optical Sciences (AMOS) gateway, using resources hosted by the NSF ACCESS program. The tRecX application has a complex module hierarchy and can require numerous options to set up strong field interaction simulations. Both novices and experts can benefit from a well-organized input editing framework. This work describes a graphical user interface for tRecX software based on the SGCI/SciGaP sponsored design activity, implemented via a Django web application deployed by the AMOS Gateway.
Proceedings Title
Conference: PEARC '23: Practice and Experience in Advanced Research Computing
Schneider, B.
(2023),
Advanced Application user interfaces for time-dependent Recursive indeXing (tRecX) Code: from Design to Production Deployment, Conference: PEARC '23: Practice and Experience in Advanced Research Computing
, Portland, OR, US
(Accessed August 14, 2024)