Abstract
Semi-active control is based on the use of the emerging concept of active control and passive control. The developed accumulator semi-active hydraulic damper (ASHD) is converted to interaction element (IE) of active interaction control (AIC). Systemic equations of motion, control law and control rulers of this proposed new AIC are studied in this research. A full-scale multiple degrees of freedom shaking table is tested to verify the energy dissipation of this proposed AIC, including test building without control, with passive control added involving various stiffness ratios and also with synchronic control added involving various stiffness ratios. Shock absorption of displacement can be up to 74–81% of that of the test structure with stiffness ratio = 2.3387 and 1.790 at 1st and 2nd floor under control of synchronous switch of this proposed AIC, respectively. No matter what the test structure added with various stiffeners at 1st and 2nd floor under synchronous control, test results of shock absorption ratio of acceleration show good seismic proof capability. In addition, base shear control effects of this proposed AIC method are higher than those of the test structure with various stiffeners added under passive control. These results show that AIC with stiffeners for structural control provides the characteristics of a stabilized structure under excitation of near-fault earthquake with velocity impulse action.
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Acknowledgements
The authors would like to acknowledge the support of Taiwan Ministry of Science and Technology through Grant Nos. MOST-103-2625-M-260-001 and MOST-103-2625-M-167-001.
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Shih, MH., Sung, WP. Shaking table test and verification of development of an accumulated semi-active hydraulic damper as an active interaction control device. Sādhanā 41, 1425–1442 (2016). https://doi.org/10.1007/s12046-016-0570-z
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DOI: https://doi.org/10.1007/s12046-016-0570-z