Displacement-dependent products that dissipate seismic energy through controlled deformation of steel, friction, or composite mechanisms.

CSW combines load bearing and energy dissipation with corrugated steel plates, lightweight installation, and strong hysteretic performance.
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BRW uses restrained energy-dissipating steel plates to provide high lateral stiffness and stable performance in moderate and major earthquakes.
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HSSW combines external steel plates with infilled concrete to deliver high lateral stiffness, reliable load-bearing capacity, and resilient energy dissipation.
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MYD-V uses in-plane shear yielding of steel plates, with small yield displacement, compact layout, and easy replacement after major earthquakes.
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MYD-M dissipates seismic energy through bending plastic deformation of low-yield-strength steel, with wall-type and brace-type connections.
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BRB combines structural bracing and energy dissipation, restraining the core plate so it yields stably in both tension and compression.
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DBRB provides staged energy dissipation, with first-stage damping for small earthquakes and BRB yielding for stronger events.
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MYD-A dissipates energy through axial tension-compression yielding of low-yield-strength steel, with stable performance and simple maintenance.
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CBD replaces conventional coupling beams, improving ductility and energy dissipation while keeping yield capacity controllable.
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SFD dissipates energy through frictional sliding, providing additional service stiffness and strong damping under moderate and major earthquakes.
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MFD provides staged friction energy dissipation for multi-level seismic demands, improving adaptability under different earthquake intensities.
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FDC combines vertical load bearing with staged energy dissipation through rocking columns, mild-steel dampers, and rotational friction dampers.
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SMA dampers use Fe-SMA materials with high strength, ductility, and low-cycle fatigue resistance for reliable seismic energy dissipation.
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MYD-T uses uniform plastic deformation of triangular steel plates for bridge seismic protection and wind vibration control.
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MYD-U dissipates energy through plastic yielding of U-shaped steel, offering large deformation capacity and reliable low-cycle fatigue performance.
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MYD-E uses E-shaped steel elements to provide stable metal yielding and practical energy dissipation for structural seismic protection.
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DMSD combines friction and metal yielding mechanisms to deliver staged energy dissipation under different displacement demands.
Learn moreVelocity-dependent products that convert wind or seismic motion into damping force and heat energy for repeatable structural protection.

VFD converts wind or seismic vibration energy into heat as viscous fluid passes through the damping structure, with reliable sealing and long service life.
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VFW integrates viscous fluid between steel plates, adding damping without calculable stiffness or major influence on structural period.
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VED uses steel plates and high-damping rubber to dissipate energy through shear deformation, with no liquid leakage and low maintenance needs.
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VED-P embeds high-performance viscoelastic damping inside prefabricated wall panels for hidden, space-saving energy dissipation.
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VEW combines structural wall behavior with viscoelastic energy dissipation, helping control wind and seismic response while preserving usable space.
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HP-VFW improves viscous wall sealing and durability for repeatable damping under earthquake and wind loading.
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ECD uses electromagnetic induction to provide non-contact damping with no hydraulic oil, no mechanical wear, and adjustable damping parameters.
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MRD uses magnetorheological fluid for fast, semi-active damping force control with high reliability and low energy demand.
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TVMD combines tuned inertial action with viscous energy dissipation to improve vibration control efficiency in tall and long-span structures.
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ID combines inertial mass and damping characteristics to regulate and dissipate vibration energy efficiently across structural and equipment applications.
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DVFD provides two-stage viscous damping so weak, moderate, and strong excitations can be controlled with different damping participation levels.
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MR-STFD combines passive shear-thickening response with active magnetorheological control for adaptive and controllable structural damping.
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