Experimental and Numerical Investigation of Vibration-Suppression Efficacy in Spring Pendulum Pounding-Tuned Mass Damper

Originally proposed by the authors, the spring pendulum pounding-tuned mass damper (SPPTMD)—a novel nonlinear damping system comprising a spring pendulum (SP) and motion limiter that dissipates energy through spring resonance amplification and controlled mass-limiter impacts—was theoretically validated for structural vibration control. To experimentally verify its efficacy, a two-story, lightly damped steel frame was subjected to sinusoidal excitation and historical earthquake excitations under both uncontrolled and SPPTMD-controlled conditions. The results demonstrated (1) significant vibration attenuation through SPPTMD implementation and (2) enhanced control effectiveness in soft soil environments compared to stiff soil conditions. Additionally, a numerical model of the SPPTMD–structure system was developed, with computational results showing excellent correlation to experimental data, thereby confirming modeling accuracy.

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Publication Details

Journal
Applied Sciences
Published
2025-04-13
DOI
https://doi.org/10.3390/app15084297
Citations
1
Primary Topic
Vibration Control and Rheological Fluids
Type
article
Field-Weighted Citation Impact
0.95

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article

Experimental and Numerical Investigation of Vibration-Suppression Efficacy in Spring Pendulum Pounding-Tuned Mass Damper

Xin Guo, Lipeng Zhang, Qi Wang, Hong‐Nan Li
1 citations
Applied Sciences
Vibration Control and Rheological Fluids
0.95
article

Experimental and Numerical Investigation of Vibration-Suppression Efficacy in Spring Pendulum Pounding-Tuned Mass Damper

Xin Guo, Lipeng Zhang, Qi Wang, Hong‐Nan Li
article en
1 citations

Abstract

Originally proposed by the authors, the spring pendulum pounding-tuned mass damper (SPPTMD)—a novel nonlinear damping system comprising a spring pendulum (SP) and motion limiter that dissipates energy through spring resonance amplification and controlled mass-limiter impacts—was theoretically validated for structural vibration control. To experimentally verify its efficacy, a two-story, lightly damped steel frame was subjected to sinusoidal excitation and historical earthquake excitations under both uncontrolled and SPPTMD-controlled conditions. The results demonstrated (1) significant vibration attenuation through SPPTMD implementation and (2) enhanced control effectiveness in soft soil environments compared to stiff soil conditions. Additionally, a numerical model of the SPPTMD–structure system was developed, with computational results showing excellent correlation to experimental data, thereby confirming modeling accuracy.

Applied SciencesVol. 15(8)
Dalian University of Technology (CN), Liaoning Planning and Design Institute of Post and Telecommunication (CN), Shenyang Jianzhu University (CN)
National Natural Science Foundation of China
Openalex Percentile: Top 27%
Vibration Control and Rheological Fluids
0.95
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