Large MR (MR) dampers are popular due to their higher dam** force capabilities which
makes them suitable in the field of civil engineering, structural engineering, suspension …

A review of structural control focused on controllers is presented here. Several essential
considerations must be addressed while designing a controller for the semi-active control …

The application of structural control to offshore wind turbines (OWTs) using tuned mass
dampers (TMDs) has shown to be effective in reducing the system loads. The parameters of …

The neural network-based modeling method is one of the most effective methods for
handling the nonlinear characteristics of magnetorheological (MR) dampers. The modeling …

As magnetorheological (MR) control devices increase in scale for use in real-world civil
engineering applications, sophisticated modeling and control techniques may be needed to …

Magnetorheological (MR) dampers have the ability to mitigate natural hazards for structures
due to their high energy dissipation features with low power demand. This feature has made …

Civil infrastructures are vulnerable to catastrophic failures when exceeding the limit loading,
requiring a reliable structural control mechanism, such as bracing systems, to enhance the …

Real‐time hybrid simulation (RTHS) is increasingly being recognized as a powerful cyber‐
physical technique that offers the opportunity for system evaluation of civil structures subject …

Control devices can be used to dissipate the energy of a civil structure subjected to dynamic
loading, thus reducing structural damage and preventing failure. Semiactive control devices …

Magneto‐rheological (MR) dampers are a promising device for seismic hazard mitigation
because their dam** characteristics can be varied adaptively using an appropriate control …