ERA Individual Leadership - Charles E. Hembree
Abstract not provided.
Publications
The radlib code architecture for the SCEPTRE project
Abstract not provided.
Radiation Science and Nuclear Engineering Research at Sandia National Laboratories (SNL)
Abstract not provided.
Parallel Discrete Ordinates Methods in the CEPTRE Project
Abstract not provided.
An analysis of the extended-transport correction with application to electron-beam transport
Proposed for publication in Nuclear Science and Engineering.
Abstract not provided.
The integrated Tiger series. Version 5.0
Abstract not provided.
Delta-function down scatter and extended first collision source for electron beam transport
Abstract not provided.
Coupled Electron-Photon Transport with the Ceptre Code
Abstract not provided.
An overview of geometry representation in Monte Carlo codes
Abstract not provided.
Overview of geometry representation in Monte Carlo codes
Abstract not provided.
Application of the Ceptre Code to Cable SGEMP Problems
Abstract not provided.
Application of the CEPTRE Code to Cable SGEMP Problems
Abstract not provided.
A Generalized Boltzmann Fokker-Planck (GBFP) Electron Transport Method
Abstract not provided.
ITS Radiation Transprot L2 V&V Milestone
Abstract not provided.
Overview of CEPTRE and applications to cable SGEMP simulations (U)
Abstract not provided.
Overview of CEPTRE and applications to cable SGEMP simulations
Abstract not provided.
ITS strategic test plan : revision 1.0
This test plan describes the testing strategy for the ITS (Integrated-TIGER-Series) suite of codes. The processes and procedures for performing both verification and validation tests are described. ITS Version 5.0 was developed under the NNSA's ASC program and supports Sandia's stockpile stewardship mission.
ITS version 5.0 : the integrated TIGER series of coupled electron/photon Monte Carlo transport codes
ITS is a powerful and user-friendly software package permitting state of the art Monte Carlo solution of linear time-independent couple electron/photon radiation transport problems, with or without the presence of macroscopic electric and magnetic fields of arbitrary spatial dependence. Our goal has been to simultaneously maximize operational simplicity and physical accuracy. Through a set of preprocessor directives, the user selects one of the many ITS codes. The ease with which the makefile system is applied combines with an input scheme based on order-independent descriptive keywords that makes maximum use of defaults and internal error checking to provide experimentalists and theorists alike with a method for the routine but rigorous solution of sophisticated radiation transport problems. Physical rigor is provided by employing accurate cross sections, sampling distributions, and physical models for describing the production and transport of the electron/photon cascade from 1.0 GeV down to 1.0 keV. The availability of source code permits the more sophisticated user to tailor the codes to specific applications and to extend the capabilities of the codes to more complex applications. Version 5.0, the latest version of ITS, contains (1) improvements to the ITS 3.0 continuous-energy codes, (2)multigroup codes with adjoint transport capabilities, and (3) parallel implementations of all ITS codes. Moreover the general user friendliness of the software has been enhanced through increased internal error checking and improved code portability.
Experience with Unstructured-Mesh Electron Transport with Massively Parallel Computing
Abstract not provided.
Nested Acceleration Algorithm for Self-Adjoint Angular Flux Boltxmann-CSD Equation
Abstract not provided.
20 Results