Eine Plattform für die Wissenschaft: Bauingenieurwesen, Architektur und Urbanistik
Direct load transmission in hybrid FRP and lightweight concrete sandwich bridge deck
Direct load transmission experiments on hybrid short-span beam specimens for a novel bridge deck were performed. The sandwich construction consists of three layers: a fiber-reinforced polymer composite (FRP) sheet with T-upstands for the bottom skin, lightweight concrete (LC) for the core and a thin layer of ultra high performance reinforced concrete as a top skin. Specimens with adhesively bonded FRP-LC interfaces showed significantly higher ultimate loads than corresponding unbonded specimens with composite action due to pure mechanical interlocking. The degree of composite action between FRP and LC in the unbonded interfaces depended on the LC compressive strength. A correlation of the specimen ultimate loads and the LC splitting tensile strengths was found. Combining the LC splitting tensile strength and the LC characteristic length led to a good correlation with the specimen cracking loads.
Direct load transmission in hybrid FRP and lightweight concrete sandwich bridge deck
Direct load transmission experiments on hybrid short-span beam specimens for a novel bridge deck were performed. The sandwich construction consists of three layers: a fiber-reinforced polymer composite (FRP) sheet with T-upstands for the bottom skin, lightweight concrete (LC) for the core and a thin layer of ultra high performance reinforced concrete as a top skin. Specimens with adhesively bonded FRP-LC interfaces showed significantly higher ultimate loads than corresponding unbonded specimens with composite action due to pure mechanical interlocking. The degree of composite action between FRP and LC in the unbonded interfaces depended on the LC compressive strength. A correlation of the specimen ultimate loads and the LC splitting tensile strengths was found. Combining the LC splitting tensile strength and the LC characteristic length led to a good correlation with the specimen cracking loads.
Direct load transmission in hybrid FRP and lightweight concrete sandwich bridge deck
Schaumann, E. (Autor:in) / Vallee, T. (Autor:in) / Keller, T. (Autor:in)
Composites, Part A: Applied Science and Manufacturing ; 39 ; 478-487
2008
10 Seiten, 16 Bilder, 4 Tabellen, 9 Quellen
Aufsatz (Zeitschrift)
Englisch
Belastungsgrenze , Biegefestigkeit , Biegeprüfung , bruchmechanische Prüfung , Brückenbau , Dauerhaftigkeit , Dehnungsmessstreifen , Dehnungsmessung , Druckfestigkeit , faserverstärkter Kunststoff , glasfaserverstärkter Kunststoff , Hochleistungsbeton , Isophthalsäure , Leichtbeton , mechanische Spannungsverteilung , organisch-anorganischer Hybridwerkstoff , Polyesterharz , Pultrudieren , Richtungsabhängigkeit , Sandwich-Bauweise , schichtweise Vermischung , Schichtwerkstoff , Träger (Bauwesen) , Verformungsmessung
Direct load transmission in hybrid FRP and lightweight concrete sandwich bridge deck
British Library Online Contents | 2008
|Flexural behavior of a hybrid-FRP lightweight concrete sandwich bridge deck
British Library Conference Proceedings | 2007
|Flexural behavior of a hybrid FRP and lightweight concrete sandwich bridge deck
British Library Online Contents | 2007
|Flexural behavior of a hybrid FRP and lightweight concrete sandwich bridge deck
Tema Archiv | 2007
|Modeling of Direct Load Transmission in Lightweight-Concrete-Core Sandwich Beams
Online Contents | 2009
|