Building earthquake resistance is a critical technology, particularly in areas prone to earthquakes. Earthquakes can cause severe damage to buildings and result in human casualties. Therefore, researching and implementing earthquake-resistant building technology is of paramount importance.

The primary culprit for building damage during an earthquake is seismic force, which is an inertial force. In layman's terms, it is similar to the force experienced by passengers in a car when the vehicle brakes suddenly, causing them to fall forward.

During an earthquake, seismic waves cause the ground to vibrate, and the resulting seismic force affects buildings. If a building cannot withstand the seismic force, it will suffer damage, ranging from light damage to complete collapse, depending on the strength of the earthquake.

The degree of damage to a building during an earthquake is influenced by several factors. Firstly, it is related to the earthquake itself. The larger the earthquake, the closer the epicenter, the shallower the focal depth, and the more severe the damage.

Secondly, the quality of the building structure itself, including its construction quality and overall design, is critical. Thirdly, site conditions, such as the hardness of the soil and the depth of the covering layer, also affect the building's ability to withstand an earthquake. Finally, local topography plays a crucial role in determining the extent of earthquake damage.

Building earthquake resistance involves taking engineering measures to reduce the impact of earthquakes on buildings and minimize disaster.

The primary purpose of earthquake-resistant fortification is to carry out seismic design and construction measures for buildings within a particular budget, limiting and mitigating the impact of an earthquake on engineering structures to reduce casualties and minimize economic losses.

Engineering structures are the primary cause of earthquake disasters, making it essential to reinforce the anti-seismic fortification of engineering structures and improve their anti-seismic capacity. The following measures are critical in mitigating earthquake disasters:

Seismic Design

Seismic design is the process of considering the impact of earthquakes when designing buildings and implementing appropriate design standards and anti-seismic technologies to ensure that buildings have adequate seismic performance. Seismic design involves the following:

1. Selecting the appropriate building structure, such as frame structure, shear wall structure, or bridge structure.

2.Choosing suitable building materials, such as concrete, steel, or wood.

3.Adopting appropriate structural design methods, such as elastic design, buckling design, etc.

Seismic Reinforcement

Seismic reinforcement is the process of improving a building's seismic performance by making changes to the existing building structure. Seismic reinforcement includes the following:

1. Increasing the strength and rigidity of the structure by reinforcing columns, beams, walls, etc.

2. Increasing the energy dissipation capacity of the structure by installing shock absorbers and anti-vibration supports in the structure.

3. Improving the structural form of the building by adding reinforcing rings.

Building earthquake resistance is a vital task, and with advancements in technology, research and implementation of building anti-seismic technology are continuously improving. Widespread use of anti-seismic technology is essential to protect people's lives and properties and prevent incalculable losses caused by earthquakes.