Inorganic Polymer Matrix Composite Strength Related to Interface Condition
Resin transfer molding of an inorganic polymer binder was successfully demonstrated in the preparation of ceramic fiber reinforced engine exhaust valves. Unfortunately, in the preliminary processing trials, the resulting composite valves were too brittle for in-engine evaluation. To address this lim...
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doaj-1f0a449b73544a9ebe5f5f6cb97a6ef52020-11-24T23:11:38ZengMDPI AGMaterials1996-19442009-12-01242216222710.3390/ma2042216Inorganic Polymer Matrix Composite Strength Related to Interface ConditionJohn BridgeDonald W. RadfordAndrew GrabherResin transfer molding of an inorganic polymer binder was successfully demonstrated in the preparation of ceramic fiber reinforced engine exhaust valves. Unfortunately, in the preliminary processing trials, the resulting composite valves were too brittle for in-engine evaluation. To address this limited toughness, the effectiveness of a modified fiber-matrix interface is investigated through the use of carbon as a model material fiber coating. After sequential heat treatments composites molded from uncoated and carbon coated fibers are compared using room temperature 3-point bend testing. Carbon coated Nextel fiber reinforced geopolymer composites demonstrated a 50% improvement in strength, versus that of the uncoated fiber reinforced composites, after the 250 °C postcure. http://www.mdpi.com/1996-1944/2/4/2216/geopolymerinorganic polymerceramic matrix compositeengine valve |
collection |
DOAJ |
language |
English |
format |
Article |
sources |
DOAJ |
author |
John Bridge Donald W. Radford Andrew Grabher |
spellingShingle |
John Bridge Donald W. Radford Andrew Grabher Inorganic Polymer Matrix Composite Strength Related to Interface Condition Materials geopolymer inorganic polymer ceramic matrix composite engine valve |
author_facet |
John Bridge Donald W. Radford Andrew Grabher |
author_sort |
John Bridge |
title |
Inorganic Polymer Matrix Composite Strength Related to Interface Condition |
title_short |
Inorganic Polymer Matrix Composite Strength Related to Interface Condition |
title_full |
Inorganic Polymer Matrix Composite Strength Related to Interface Condition |
title_fullStr |
Inorganic Polymer Matrix Composite Strength Related to Interface Condition |
title_full_unstemmed |
Inorganic Polymer Matrix Composite Strength Related to Interface Condition |
title_sort |
inorganic polymer matrix composite strength related to interface condition |
publisher |
MDPI AG |
series |
Materials |
issn |
1996-1944 |
publishDate |
2009-12-01 |
description |
Resin transfer molding of an inorganic polymer binder was successfully demonstrated in the preparation of ceramic fiber reinforced engine exhaust valves. Unfortunately, in the preliminary processing trials, the resulting composite valves were too brittle for in-engine evaluation. To address this limited toughness, the effectiveness of a modified fiber-matrix interface is investigated through the use of carbon as a model material fiber coating. After sequential heat treatments composites molded from uncoated and carbon coated fibers are compared using room temperature 3-point bend testing. Carbon coated Nextel fiber reinforced geopolymer composites demonstrated a 50% improvement in strength, versus that of the uncoated fiber reinforced composites, after the 250 °C postcure. |
topic |
geopolymer inorganic polymer ceramic matrix composite engine valve |
url |
http://www.mdpi.com/1996-1944/2/4/2216/ |
work_keys_str_mv |
AT johnbridge inorganicpolymermatrixcompositestrengthrelatedtointerfacecondition AT donaldwradford inorganicpolymermatrixcompositestrengthrelatedtointerfacecondition AT andrewgrabher inorganicpolymermatrixcompositestrengthrelatedtointerfacecondition |
_version_ |
1725603450995081216 |