Electromagnetics and Advanced Manufacturing Simulation Development within the MOOSE Ecosystem

Casey T Icenhour; Stephanie A Pitts; Alexander D Lindsay

Electromagnetics and Advanced Manufacturing Simulation Development within the MOOSE Ecosystem

Casey T Icenhour, Stephanie A Pitts, Alexander D Lindsay

Research output: Contribution to conference › Poster › peer-review

Abstract

The MOOSE electromagnetics module (EMM) was developed to provide a general simulation tool for modeling a wide range of problems encountered in computational electromagnetics and enable MOOSE and MOOSE-based application coupling to Maxwell's equations to solve a wide class of new problems. Development of the electromagnetics module has also enabled development of new advanced manufacturing models in the MOOSE ecosystem, including that of the electric field-assisted sintering (EFAS) process. Recent results from this effort show good agreement with experimental results, and these two capabilities will be used in future projects to develop models for novel materials development and manufacturing for extreme environments.

Original language	English
State	Published - Aug 25 2022
Event	3rd Computational Physics School for Fusion Research - Cambridge, United States Duration: Aug 22 2022 → Aug 27 2022

Conference

Conference	3rd Computational Physics School for Fusion Research
Country/Territory	United States
City	Cambridge
Period	08/22/22 → 08/27/22

Access to Document

https://www.osti.gov/biblio/1882589

Cite this

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title = "Electromagnetics and Advanced Manufacturing Simulation Development within the MOOSE Ecosystem",

abstract = "The MOOSE electromagnetics module (EMM) was developed to provide a general simulation tool for modeling a wide range of problems encountered in computational electromagnetics and enable MOOSE and MOOSE-based application coupling to Maxwell's equations to solve a wide class of new problems. Development of the electromagnetics module has also enabled development of new advanced manufacturing models in the MOOSE ecosystem, including that of the electric field-assisted sintering (EFAS) process. Recent results from this effort show good agreement with experimental results, and these two capabilities will be used in future projects to develop models for novel materials development and manufacturing for extreme environments.",

author = "Icenhour, {Casey T} and Pitts, {Stephanie A} and Lindsay, {Alexander D}",

year = "2022",

month = aug,

day = "25",

language = "English",

note = "3rd Computational Physics School for Fusion Research ; Conference date: 22-08-2022 Through 27-08-2022",

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TY - CONF

T1 - Electromagnetics and Advanced Manufacturing Simulation Development within the MOOSE Ecosystem

AU - Icenhour, Casey T

AU - Pitts, Stephanie A

AU - Lindsay, Alexander D

PY - 2022/8/25

Y1 - 2022/8/25

N2 - The MOOSE electromagnetics module (EMM) was developed to provide a general simulation tool for modeling a wide range of problems encountered in computational electromagnetics and enable MOOSE and MOOSE-based application coupling to Maxwell's equations to solve a wide class of new problems. Development of the electromagnetics module has also enabled development of new advanced manufacturing models in the MOOSE ecosystem, including that of the electric field-assisted sintering (EFAS) process. Recent results from this effort show good agreement with experimental results, and these two capabilities will be used in future projects to develop models for novel materials development and manufacturing for extreme environments.

AB - The MOOSE electromagnetics module (EMM) was developed to provide a general simulation tool for modeling a wide range of problems encountered in computational electromagnetics and enable MOOSE and MOOSE-based application coupling to Maxwell's equations to solve a wide class of new problems. Development of the electromagnetics module has also enabled development of new advanced manufacturing models in the MOOSE ecosystem, including that of the electric field-assisted sintering (EFAS) process. Recent results from this effort show good agreement with experimental results, and these two capabilities will be used in future projects to develop models for novel materials development and manufacturing for extreme environments.

M3 - Poster

T2 - 3rd Computational Physics School for Fusion Research

Y2 - 22 August 2022 through 27 August 2022

ER -