14
Tau3P-Based
Interactive Design Automation Software--Simulation Technology & Applied
Research, 11520 North Port Washington Road, Suite 101B, Mequon, WI
53092-1195; 262-240-0291
Dr.
John F. DeFord, Principal Investigator, john.deford@staarinc.com
Dr.
John F. DeFord, Business Official, john.deford@staarinc.com
DOE
Grant No. DE-FG02-01ER83322
Amount:
$737,976
Tau3P,
a powerful electromagnetic analysis program recently developed by the
Stanford
Linear
Accelerator
Center
, enables unprecedented detail and accuracy of accelerator component design
calculations on massively parallel computers.
However, the complex process of problem setup, job management, and
post-processing of results requires the use of a variety of disjoint,
difficult-to-use tools that severely limit the utility of Tau3P to the broader
accelerator and microwave design communities.
This project will interface Tau3P to an existing analysis package, known
as Analyst, that provides comprehensive support for finite-element numerical
software, including embedded computer-aided design software, automated meshing,
sophisticated visual and numerical post-processing, and optimization
capabilities. In Phase I, a
prototype extension to Analyst was created that could write input files for
Tau3P and translate output files into an Analyst project database.
The Analyst post-processor was configured to display mesh and field data
generated by Tau3P. A web-based
client-server application was also created that could run Tau3P on a remote
machine, with support for upload and download of solver-files, and
return/display of solver console messages. In
Phase II, further enhancements will allow the model preparation process to be
vastly simplified, and its integration into the Analyst system will be improved.
Tau3P also will be augmented with a new solver for unconstrained
tetrahedral meshes and a powerful new capability for computing wake potentials
on arbitrary beam trajectories.
Commercial
Applications and Other Benefits as described by the awardee:
The analysis package should make robust and accurate time-domain analysis
capabilities available to engineers in the telecommunications and computer
industries, providing a powerful new way to design broadband hardware.
The Tau3P development also should further the science of numerical
analysis, possibly leading to advances in other related fields such as
computational fluid dynamics.