Research on the Hysteresis Performance of Powder Dampers Based on Media Property Tests and PFC Simulation
DOI: 10.23977/jceup.2026.080120 | Downloads: 2 | Views: 67
Author(s)
Bocheng Teng 1, Yutong Zhang 1, Mengdie Zhang 1
Affiliation(s)
1 Key Laboratory of Engineering Seismic Protection and Structural, Diagnosis and Treatment, Beijing University of Technology, Beijing, 100124, China
Corresponding Author
Bocheng TengABSTRACT
This study investigates the influence of the mechanical properties of powder-damper filling media on the hysteretic response of powder dampers by combining material property tests with PFC-based discrete element simulations. Density, angle of repose, internal friction angle, particle gradation, and equivalent elastic modulus tests were carried out on five powder materials, namely silty soil, sand, magnetite, iron powder, and talc powder. Based on the test results, a PFC2D model of the powder damper was established, and the hysteretic curves under different filling media conditions were analyzed. The results show that all five powder materials can form closed hysteresis loops, although significant differences are observed in reaction force level, loop area, and stability. Materials with high density and high stiffness are more favorable for improving load-carrying capacity, whereas materials with high friction characteristics are more conducive to enhancing energy dissipation capacity. A parameter sensitivity analysis using iron powder as the reference material indicates that density, equivalent elastic modulus, friction coefficient, and particle gradation have significant effects on the hysteretic performance of the damper.
KEYWORDS
Powder damper; powder medium; PFC simulation; hysteresis curveCITE THIS PAPER
Bocheng Teng, Yutong Zhang, Mengdie Zhang. Research on the Hysteresis Performance of Powder Dampers Based on Media Property Tests and PFC Simulation. Journal of Civil Engineering and Urban Planning (2026). Vol. 8, No.1, 203-216. DOI: http://dx.doi.org/10.23977/jceup.2026.080120.
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