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April 10, 2026The Structural Design of Tall and Special Buildings0 citations

Shaking Table Test Study on Equivalent Model of Large Stadium Structure Incorporating Supplemental Viscous Damping Walls

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YWYehong WuCJCong JiangBZBing Zhao

Key Points

  • The aim is to evaluate the seismic performance and effectiveness of viscous damping walls in a large stadium structure.
  • Developed a theoretical equivalent model with the same damping ratio as the prototype.
  • Fabricated a shaking table test model based on the theoretical design.
  • Conducted shaking table tests comparing models with different VDW configurations.
  • The model with the same damping ratio successfully replicated the dynamic characteristics of the prototype.
  • Seismic responses on floors with VDWs were significantly reduced: peak acceleration down by 20%, inter-story drift by over 35%, and shear force by up to 40%.
  • Upper stories without VDWs showed slight amplification in seismic responses due to load redistribution.

Abstract

ABSTRACT Viscous damping walls (VDWs) are increasingly employed in structural vibration control due to their high energy dissipation efficiency, low maintenance costs, and exceptional reliability. To evaluate the seismic performance and damping effectiveness of a large stadium equipped with VDWs, an equivalent test model was established to match the additional damping ratio of the prototype structure. First, a theoretical equivalent model with the same additional damping ratio as the prototype was developed based on structural dynamics principles. A shaking table test model was then fabricated and validated for consistency with the theoretical model. Subsequently, shaking table tests were conducted on the equivalent model and the comparative models with different VDW configurations. Results showed that the model designed with the same additional damping ratio successfully reproduced the prototype's dynamic characteristics. On the floors equipped with VDWs, seismic responses were significantly reduced, with peak acceleration reduced by about 20%, inter‐story drift by over 35%, and inter‐story shear force by up to 40%. In contrast, unequipped upper stories exhibited slight amplifications in these responses due to load redistribution. The tests also revealed that potential out‐of‐plane rotation of the VDWs alters their mechanical behavior, resulting in a significant decline in energy dissipation capacity under minor seismic excitation.

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Cite This Study

Wu et al. (2026) studied this question.

synapsesocial.com/papers/69d895ea6c1944d70ce07141https://doi.org/10.1002/tal.70140
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