PULTRUSION MODELING.

G. L. Batch; C. W. Macosko

PULTRUSION MODELING.

G. L. Batch, C. W. Macosko

Chemical Engineering and Materials Science

Research output: Chapter in Book/Report/Conference proceeding › Conference contribution

3 Scopus citations

Abstract

A pultrusion analysis is formulated from frist principles to understand temperature, conversion, pressure, and pulling force. A mechanistic kinetic model is described which has accuracy over a wide range of temperatures. The heat transfer model is developed using these kinetics, and process data is in good agreement with the predictions. Pultrusion pressure is analyzed using special coordinates for deformable bodies, and predictions are in qualitative and quantitative agreement with data, thought the latter may only be coincidental. Finally, a pulling force model is suggested without verification in which contributions from friction was the major component.

Original language	English (US)
Title of host publication	Unknown Host Publication Title
Editors	George Chryssolouris, R. Komanduri, R. Jaikumar, B. Von Turkovich, P. Francis, T.G. Gutowiski
Publisher	ASME
State	Published - Jan 1 1988

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title = "PULTRUSION MODELING.",

abstract = "A pultrusion analysis is formulated from frist principles to understand temperature, conversion, pressure, and pulling force. A mechanistic kinetic model is described which has accuracy over a wide range of temperatures. The heat transfer model is developed using these kinetics, and process data is in good agreement with the predictions. Pultrusion pressure is analyzed using special coordinates for deformable bodies, and predictions are in qualitative and quantitative agreement with data, thought the latter may only be coincidental. Finally, a pulling force model is suggested without verification in which contributions from friction was the major component.",

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AU - Macosko, C. W.

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N2 - A pultrusion analysis is formulated from frist principles to understand temperature, conversion, pressure, and pulling force. A mechanistic kinetic model is described which has accuracy over a wide range of temperatures. The heat transfer model is developed using these kinetics, and process data is in good agreement with the predictions. Pultrusion pressure is analyzed using special coordinates for deformable bodies, and predictions are in qualitative and quantitative agreement with data, thought the latter may only be coincidental. Finally, a pulling force model is suggested without verification in which contributions from friction was the major component.

AB - A pultrusion analysis is formulated from frist principles to understand temperature, conversion, pressure, and pulling force. A mechanistic kinetic model is described which has accuracy over a wide range of temperatures. The heat transfer model is developed using these kinetics, and process data is in good agreement with the predictions. Pultrusion pressure is analyzed using special coordinates for deformable bodies, and predictions are in qualitative and quantitative agreement with data, thought the latter may only be coincidental. Finally, a pulling force model is suggested without verification in which contributions from friction was the major component.

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M3 - Conference contribution

AN - SCOPUS:0023833985

BT - Unknown Host Publication Title

A2 - Chryssolouris, George

A2 - Komanduri, R.

A2 - Jaikumar, R.

A2 - Von Turkovich, B.

A2 - Francis, P.

A2 - Gutowiski, T.G.

PB - ASME

ER -

PULTRUSION MODELING.

Abstract

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