Database trends and critical review of seismic performance tests on high strength steel reinforced concrete components

•A comprehensive cyclic test database for HSS concrete components is established.•The database includes columns, beams, beam-column joints, walls and coupling beams.•Data trends on seismic strength and ductility of HSS concrete components are discussed.•Literature body on cyclic tests of HSS concret...

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Veröffentlicht in:Engineering structures 2021-07, Vol.239, p.112092, Article 112092
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description •A comprehensive cyclic test database for HSS concrete components is established.•The database includes columns, beams, beam-column joints, walls and coupling beams.•Data trends on seismic strength and ductility of HSS concrete components are discussed.•Literature body on cyclic tests of HSS concrete components is critically reviewed.•A HSS reinforced flexural section parametric study is presented.•Effect of design parameters of HSS concrete is discussed based on literature and data trends. The use of High Strength Steel (HSS) reinforcement in concrete construction is emerging rapidly, especially in high performance concrete applications. The ACI 318–19 code has permitted the use of HSS reinforcement Grades 80 (550 MPa) and 100 (690 MPa) in earthquake-resistant concrete components. This change was motivated by recent experimental and analytical research to assess the benefits and drawbacks of using HSS reinforcement in seismic design of concrete. The use of HSS reduces bar congestion and provides more effective confinement to concrete, however, great attention must be paid to its drawbacks. Examples of such drawbacks are lower hysteretic energy, higher bond stresses, lower plasticity spread due to local strain concentrations, and potential for premature confined concrete crushing before full utilization of HSS full capacity. This study reviews past experimental research on cyclic performance of various concrete structural components reinforced with HSS, including columns, beams, beam-column joints, walls, and coupling beams. In addition, a comprehensive database of cyclic tests on HSS reinforced components is established, presented and evaluated. An HSS reinforced flexural section parametric study is performed to aid in interpreting database trends and literature results. The effect of HSS design parameters and cyclic response measures of these components such as load-deformation relationships, strength, curvature and strains, ductility and energy dissipation capacity are discussed and compared to their conventional steel reinforced concrete counterparts based on literature and the database trends observed. The database and the cyclic behavior observations presented may serve as basis for future experimental and analytical studies concerned with characterizing seismic response, modeling and design of HSS reinforced concrete components.
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The use of High Strength Steel (HSS) reinforcement in concrete construction is emerging rapidly, especially in high performance concrete applications. The ACI 318–19 code has permitted the use of HSS reinforcement Grades 80 (550 MPa) and 100 (690 MPa) in earthquake-resistant concrete components. This change was motivated by recent experimental and analytical research to assess the benefits and drawbacks of using HSS reinforcement in seismic design of concrete. The use of HSS reduces bar congestion and provides more effective confinement to concrete, however, great attention must be paid to its drawbacks. Examples of such drawbacks are lower hysteretic energy, higher bond stresses, lower plasticity spread due to local strain concentrations, and potential for premature confined concrete crushing before full utilization of HSS full capacity. This study reviews past experimental research on cyclic performance of various concrete structural components reinforced with HSS, including columns, beams, beam-column joints, walls, and coupling beams. In addition, a comprehensive database of cyclic tests on HSS reinforced components is established, presented and evaluated. An HSS reinforced flexural section parametric study is performed to aid in interpreting database trends and literature results. The effect of HSS design parameters and cyclic response measures of these components such as load-deformation relationships, strength, curvature and strains, ductility and energy dissipation capacity are discussed and compared to their conventional steel reinforced concrete counterparts based on literature and the database trends observed. 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The use of High Strength Steel (HSS) reinforcement in concrete construction is emerging rapidly, especially in high performance concrete applications. The ACI 318–19 code has permitted the use of HSS reinforcement Grades 80 (550 MPa) and 100 (690 MPa) in earthquake-resistant concrete components. This change was motivated by recent experimental and analytical research to assess the benefits and drawbacks of using HSS reinforcement in seismic design of concrete. The use of HSS reduces bar congestion and provides more effective confinement to concrete, however, great attention must be paid to its drawbacks. Examples of such drawbacks are lower hysteretic energy, higher bond stresses, lower plasticity spread due to local strain concentrations, and potential for premature confined concrete crushing before full utilization of HSS full capacity. 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subjects Beam-column joints
Beam-columns
Beams (structural)
Columns
Concrete construction
Confinement
Coupling beams
Cyclic
Cyclic loads
Cyclic testing
Design
Design parameters
Ductility
Earthquake engineering
Earthquake resistance
Earthquakes
Energy dissipation
Experimental research
High strength steel
High strength steel (HSS)
High strength steels
Performance tests
Reinforced concrete
Reinforcement
Reinforcing steels
Seismic activity
Seismic design
Seismic response
Steel
Structural engineering
Trends
Walls
title Database trends and critical review of seismic performance tests on high strength steel reinforced concrete components
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