Finite element analysis of thermal fields and structural behavior of pulsed solenoids

Šnirpūnas, Vincas; Stupak, Eugeniuš; Kačianauskas, Rimantas; Kačeniauskas, Arnas; Novickij, Jurij

Use this url to cite publication: https://hdl.handle.net/20.500.14911/138676

Finite element analysis of thermal fields and structural behavior of pulsed solenoids

Details

Publication Type (CRIS)

Konferencijų tezės nerecenzuojamame leidinyje / Conference theses in non-peer-reviewed publication (T2)

Publication Type (eLABa)

Konferencijos pranešimo tezės / Conference presentation abstract (T2)

Author(s)

Author	Affiliation
Šnirpūnas, Vincas	Aeronautikos inžinerijos katedra / Department of Aeronautical Engineering (0842)
Stupak, Eugeniuš	Taikomosios mechanikos katedra / Department of Applied Mechanics (0260)
Kačianauskas, Rimantas	Taikomosios mechanikos katedra / Department of Applied Mechanics (0260)
Kačeniauskas, Arnas	Aplinkos apsaugos ir vandens inžinerijos katedra / Department of Environment Protection and Water Engineering (0356)
Novickij, Jurij	Elektros inžinerijos katedra / Department of Electrical Engineering (0558)

Title

Finite element analysis of thermal fields and structural behavior of pulsed solenoids

[en]

Vincas Šnirpūnas ... [et al.]

Is part of

16th international conference on computer methods in mechanics CMM-2005 : June 21-24, 2005, Czestochowa, Poland : short papers

Published In

Year	Start Page	End Page
2005	203	204

Publisher

Czestochowa : Czestochowa University of Technology, 2005

Extent

p. 203-204

URI

URI
https://hdl.handle.net/20.500.14911/138676

Science / Art Area

Technologijos mokslai / Technological sciences (T)

Field of Science / Art

Informatikos inžinerija / Informatics engineering (T007)

Keywords (en)

Abstract (en)

Behavior of solenoids used for the generation of pulsed magnetic fields is considered. The pulsed solenoid is the most important component of a laboratory system generating half-period sinus-shaped magnetic fields up to 45T. Numerical analysis performed simulates transient behavior of magnetic fluxes, induced thermal stress fields and structural behavior of solenoid under the action of thermal and magnetic forces. Simulation results are applied to construction of a solenoid structure.