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Computational simulation of intermingled-fiber hybrid composite behaviorThree-dimensional finite-element analysis and a micromechanics based computer code ICAN (Integrated Composite Analyzer) are used to predict the composite properties and microstresses of a unidirectional graphite/epoxy primary composite with varying percentages of S-glass fibers used as hydridizing fibers at a total fiber volume of 0.54. The three-dimensional finite-element model used in the analyses consists of a group of nine fibers, all unidirectional, in a three-by-three unit cell array. There is generally good agreement between the composite properties and microstresses obtained from both methods. The results indicate that the finite-element methods and the micromechanics equations embedded in the ICAN computer code can be used to obtain the properties of intermingled fiber hybrid composites needed for the analysis/design of hybrid composite structures. However, the finite-element model should be big enough to be able to simulate the conditions assumed in the micromechanics equations.
Document ID
19920022262
Acquisition Source
Legacy CDMS
Document Type
Conference Paper
Authors
Mital, Subodh K.
(Toledo Univ. OH., United States)
Chamis, Christos C.
(NASA Lewis Research Center Cleveland, OH, United States)
Date Acquired
September 6, 2013
Publication Date
March 1, 1992
Subject Category
Composite Materials
Report/Patent Number
NAS 1.15:105666
E-7028
NASA-TM-105666
Report Number: NAS 1.15:105666
Report Number: E-7028
Report Number: NASA-TM-105666
Meeting Information
Meeting: International SAMPE Symposium and Exhibition
Location: Anaheim, CA
Country: United States
Start Date: March 9, 1992
End Date: March 12, 1992
Accession Number
92N31506
Funding Number(s)
PROJECT: RTOP 510-01-50
Distribution Limits
Public
Copyright
Work of the US Gov. Public Use Permitted.
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