Numerical investigation of the cyclic performance of reinforced concrete frames equipped with a combination of a rubber core and a U-shaped metallic damper

•FE analysis of RC frame equipped with hybrid dampers were carried out.•Three experimental specimen including concrete frame, steel damper, and rubber were verified.•Cyclic static and time history analysis were used.•The results indicated that stiffness and energy dissipation capacities were improve...

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Veröffentlicht in:Engineering structures 2020-12, Vol.225, p.111307, Article 111307
Hauptverfasser: Rahnavard, Rohola, Rebelo, Carlos, Craveiro, Hélder D., Napolitano, Rebecca
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container_title Engineering structures
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creator Rahnavard, Rohola
Rebelo, Carlos
Craveiro, Hélder D.
Napolitano, Rebecca
description •FE analysis of RC frame equipped with hybrid dampers were carried out.•Three experimental specimen including concrete frame, steel damper, and rubber were verified.•Cyclic static and time history analysis were used.•The results indicated that stiffness and energy dissipation capacities were improved in the frames equipped with damper. This paper proposes a seismic resisting technique for reinforced concrete frame buildings that uses a combination of a rubber core and a U-shaped friction damping system. The U-shaped elements are made from steel and aluminum while the core is made of rubber. The elastoplastic model is used to define steel and aluminum; the hyper-elastic, Ogden model is used to define the rubber material. The system under consideration is a hybrid damper that works through a steel wall. To evaluate the effectiveness of the proposed damper system, a full-scale cyclic analysis on a reinforced concrete frame (RC was performed. The RC frame showed pinched behavior, whereas the hysteresis curves of the strengthened frames were more stable. This was because the activation of the friction damper which formed a larger loop area. The results showed that the pattern of tensile crack formation in the model with and without the damper system was not changed significantly, but the maximum shear strength, stiffness, and energy dissipation capacities were significantly improved.
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This paper proposes a seismic resisting technique for reinforced concrete frame buildings that uses a combination of a rubber core and a U-shaped friction damping system. The U-shaped elements are made from steel and aluminum while the core is made of rubber. The elastoplastic model is used to define steel and aluminum; the hyper-elastic, Ogden model is used to define the rubber material. The system under consideration is a hybrid damper that works through a steel wall. To evaluate the effectiveness of the proposed damper system, a full-scale cyclic analysis on a reinforced concrete frame (RC was performed. The RC frame showed pinched behavior, whereas the hysteresis curves of the strengthened frames were more stable. This was because the activation of the friction damper which formed a larger loop area. 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This paper proposes a seismic resisting technique for reinforced concrete frame buildings that uses a combination of a rubber core and a U-shaped friction damping system. The U-shaped elements are made from steel and aluminum while the core is made of rubber. The elastoplastic model is used to define steel and aluminum; the hyper-elastic, Ogden model is used to define the rubber material. The system under consideration is a hybrid damper that works through a steel wall. To evaluate the effectiveness of the proposed damper system, a full-scale cyclic analysis on a reinforced concrete frame (RC was performed. The RC frame showed pinched behavior, whereas the hysteresis curves of the strengthened frames were more stable. This was because the activation of the friction damper which formed a larger loop area. 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This paper proposes a seismic resisting technique for reinforced concrete frame buildings that uses a combination of a rubber core and a U-shaped friction damping system. The U-shaped elements are made from steel and aluminum while the core is made of rubber. The elastoplastic model is used to define steel and aluminum; the hyper-elastic, Ogden model is used to define the rubber material. The system under consideration is a hybrid damper that works through a steel wall. To evaluate the effectiveness of the proposed damper system, a full-scale cyclic analysis on a reinforced concrete frame (RC was performed. The RC frame showed pinched behavior, whereas the hysteresis curves of the strengthened frames were more stable. This was because the activation of the friction damper which formed a larger loop area. 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source Elsevier ScienceDirect Journals
subjects Aluminum
Concrete
Concrete construction
Concrete frame
Cyclic loading
Damping
Earthquake dampers
Earthquake resistance
Elastoplasticity
Energy dissipation
Frame structures
Friction
Reinforced concrete
Reinforcing steels
Rubber
Rubber core
Seismic performance
Shear strength
Steel
Steel structures
Stiffness
U-shaped damper
title Numerical investigation of the cyclic performance of reinforced concrete frames equipped with a combination of a rubber core and a U-shaped metallic damper
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