The primary objective of wind-resistant design is to ensure the safety and integrity of the structure, minimize damage to non-structural components, and provide a comfortable and safe environment for occupants.

Seismic activity is not typically considered in the design of wind-resistant structures, as it is a separate hazard that requires specific design considerations.

Moment-resisting frames are the most common type of wind-resistant structural system due to their ability to resist lateral forces and provide ductility.

Wind tunnel studies are conducted to measure wind forces, evaluate structural response, and optimize the design for wind resistance.

The natural frequency of a structure is important because it determines the resonant frequency, affects the structural response to wind loads, and influences the design of the structural damping system.

Torsion is not a common type of wind-induced vibration in structures, as it is typically associated with seismic loads.

Cladding systems serve multiple purposes, including providing a weather-resistant barrier, transferring wind loads to the structural frame, and controlling air infiltration and exfiltration.

Concrete panels are not commonly used as cladding systems in wind-resistant design due to their weight and susceptibility to cracking.

Detailing is crucial in wind-resistant design to ensure proper load transfer, prevent water infiltration, and enhance the overall structural performance under wind loads.

Expansion joints are not typically used in wind-resistant detailing practices, as they can create weak points in the structure and compromise its wind resistance.

Wind-resistant codes and standards serve multiple purposes, including providing minimum design requirements, ensuring consistency in design, and promoting the use of innovative technologies.

AISC 360 is not a wind-resistant code or standard, but rather a specification for the design of steel structures.

Wind-resistant design plays a crucial role in mitigating the effects of climate change by enhancing the resilience of structures to stronger winds, reducing the risk of damage and collapse, and promoting the use of sustainable and resilient building materials.

Base isolation systems are not commonly used in wind-resistant design for tall buildings, as they are primarily employed to mitigate seismic loads.

Wind-resistant retrofitting aims to upgrade the structural performance, mitigate the risk of damage and collapse, and enhance the overall resilience of existing structures to wind loads and extreme weather events.