Numerical Modelling of Heat Transfer using the 3D-ADI-DG Method - with Application for Pultrusion.

Technical report

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Abstract

The objective of the present report is to give a thorough description on how to implement a 3-Dimensional heat transfer solver applicable for the pultrusion process. The solver will use the Alternate Direction Implicit method modified by Douglass & Gunn (3D-ADI-DG) [1]. A similar solver was introduced for the first time in this specific field of application by Baran et al. [2]. The current report does however serve as a thorough introduction for the reader to create theirown solver with the associated benefits, e.g. understanding and control of all aspects of the solver. The solver was developed, verified and validated following previous work by the authors [4] and used to investigate the effect of varying fiber volume fraction distribution on the cure behaviour during the pultrusion process [5].
Original languageEnglish
Place of PublicationKgs. Lyngby
PublisherTechnical University of Denmark
Number of pages10
Publication statusPublished - 2019

Cite this

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title = "Numerical Modelling of Heat Transfer using the 3D-ADI-DG Method - with Application for Pultrusion.: Technical report",
abstract = "The objective of the present report is to give a thorough description on how to implement a 3-Dimensional heat transfer solver applicable for the pultrusion process. The solver will use the Alternate Direction Implicit method modified by Douglass & Gunn (3D-ADI-DG) [1]. A similar solver was introduced for the first time in this specific field of application by Baran et al. [2]. The current report does however serve as a thorough introduction for the reader to create theirown solver with the associated benefits, e.g. understanding and control of all aspects of the solver. The solver was developed, verified and validated following previous work by the authors [4] and used to investigate the effect of varying fiber volume fraction distribution on the cure behaviour during the pultrusion process [5].",
author = "Rasmussen, {Filip Salling} and Klingaa, {Christopher G.} and Sonne, {Mads R.} and Hattel, {Jesper H.}",
year = "2019",
language = "English",
publisher = "Technical University of Denmark",

}

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T1 - Numerical Modelling of Heat Transfer using the 3D-ADI-DG Method - with Application for Pultrusion.

T2 - Technical report

AU - Rasmussen, Filip Salling

AU - Klingaa, Christopher G.

AU - Sonne, Mads R.

AU - Hattel, Jesper H.

PY - 2019

Y1 - 2019

N2 - The objective of the present report is to give a thorough description on how to implement a 3-Dimensional heat transfer solver applicable for the pultrusion process. The solver will use the Alternate Direction Implicit method modified by Douglass & Gunn (3D-ADI-DG) [1]. A similar solver was introduced for the first time in this specific field of application by Baran et al. [2]. The current report does however serve as a thorough introduction for the reader to create theirown solver with the associated benefits, e.g. understanding and control of all aspects of the solver. The solver was developed, verified and validated following previous work by the authors [4] and used to investigate the effect of varying fiber volume fraction distribution on the cure behaviour during the pultrusion process [5].

AB - The objective of the present report is to give a thorough description on how to implement a 3-Dimensional heat transfer solver applicable for the pultrusion process. The solver will use the Alternate Direction Implicit method modified by Douglass & Gunn (3D-ADI-DG) [1]. A similar solver was introduced for the first time in this specific field of application by Baran et al. [2]. The current report does however serve as a thorough introduction for the reader to create theirown solver with the associated benefits, e.g. understanding and control of all aspects of the solver. The solver was developed, verified and validated following previous work by the authors [4] and used to investigate the effect of varying fiber volume fraction distribution on the cure behaviour during the pultrusion process [5].

M3 - Report

BT - Numerical Modelling of Heat Transfer using the 3D-ADI-DG Method - with Application for Pultrusion.

PB - Technical University of Denmark

CY - Kgs. Lyngby

ER -