Earthquakes, natural phenomena that occur as a result of shifting tectonic plates, continue to be an important topic in scientific and social analysis. In a global context, earthquake patterns reflect varying seismic activity in different parts of the world. The geological location, depth, and strength of an earthquake have a significant impact on the affected area. Earthquake patterns around the world are often divided into three main categories: shallow (0-70 km), intermediate (70-300 km), and deep (more than 300 km) earthquakes. Shallow earthquakes tend to cause the greatest damage to infrastructure, given their depth close to the surface. In contrast, deep earthquakes often have a more limited impact on the surface but can affect a wider area. One way to analyze earthquake patterns is to use data from the global seismograph network. This data provides information about the location, depth and magnitude of the earthquake. Through statistical modeling, researchers can identify areas of high seismic activity, such as the Pacific Ring of Fire, which is a major pathway for earthquakes and volcanic eruptions. The strength of an earthquake, which is measured using the Richter scale or Moment Magnitude Scale (Mw), plays a crucial role in determining the physical and social impacts. Earthquakes with a magnitude of 6.0 and above can cause major damage, especially in densely populated cities. For example, the earthquake that struck Haiti in 2010 with a magnitude of 7.0 left severe social and economic impacts, increasing global attention to the need for more effective disaster mitigation systems. Apart from seismic factors, the impact of an earthquake is also influenced by geographical characteristics. Mountainous and rocky areas may experience different effects compared to lowland areas. Earthquakes that occur in areas with soft ground can cause liquefaction and worsen damage. Research shows that poor construction planning and a lack of building regulations in developing countries exacerbate disaster outcomes. Communication and rapid response are key elements in mitigating the impact of earthquakes. New technology, such as early warning systems, can provide notification minutes before shaking is felt, giving residents the opportunity to seek shelter. In addition, public education efforts about earthquake safety are important to reduce risks. Climate change also plays a role in influencing earthquake patterns. Although there is no direct link between climate change and earthquakes, geological conditions triggered by melting ice and rising sea levels can change the pressure within the Earth’s layers. Therefore, a better understanding of environmental impacts is becoming increasingly important. Using precise data and analysis, researchers continue to strive to improve earthquake prediction models and understand this phenomenon more deeply. International collaboration in seismic data sharing is urgently needed to increase global disaster response capacity and provide protection for communities around the world. These efforts become very relevant in facing the challenges of change and dynamics that continue to develop.