TRENDING
الورشة الإقليمية المتوسطية والعربية لتعليم الفلك (MARAsE)زيارة وفد من الجامعة المحمدية بدولة إندونيسيازيارة وفد السفارة الدنماركية بالقاهرةرئيس البحوث الفلكية: ذروة العاصفة الشمسية غدًا.. وهي من النوع المتوسط ومصر بعيدة عنهابيان حدوث زلزال 14 مايو 2025​تقرير عن سقوط مسبار فضائى2025 بيان اعلامي الخاص بخسوف كلي للقمر -الجمعة 14 مارس" رواد الرؤية المستقبلية " (FVP) Future Vision Pioneers Initiativeمعهد البحوث الفلكية يستضيف مُتدربي الدورة السادسة عشرة "لبرنامج الأملالأستاذ الدكتور/ طه رابح، رئيس المعهد القومي للبحوث الفلكية والجيوفيزيقية يستقبل وفدًا من جامعة حلوانInteractive Subsurface 3D Modeling using Potential Fields and Geological Constraintsبيان هلال شهر ذو الحجة لعام 1445هـهلال شهر رمضان بين الرؤية العلمية والرؤية البصريةSCIENCE AND TECHNOLOGY FOR EGYPTIAN ARCHAEOLOGY​The Arab Conference on Astronomy and Geophysics – ACAG 8​Smart Green Projects InitiativeSpace Technology and its ApplicationsThe Third Advanced ArAS School for Astrophysics.يوم المرأة العالمى فى الفلكهلال شهر رمضان بين الرؤية العلمية والرؤية البصرية

The role of the Seismology Department in serving the community

The Seismology Department is considered one of the scientific and strategic pillars in the system of monitoring and forecasting natural disasters in Egypt.
Through the National Seismic Network, which operates around the clock, seismic activity is monitored locally and regionally with high precision.
This allows early detection of any unusual changes or seismic activity that may affect the safety of citizens and infrastructure.

Active Fault Monitoring System

• Implementing integrated programs to monitor active faults and geological structures in vital and strategic areas. • Determining safe construction distances near these faults to reduce potential seismic risks.

Artificial Intelligence System for Earthquake

• Developing smart models based on historical and geological data to predict seismic hazard levels. • Studying the probability of tsunami occurrence along the Egyptian coasts and analyzing the impact on coastal areas.

Seismic Site Characterization System

1. Measuring soil response to near and distant seismic waves. 2. Linking soil response to the safe structural design of high-rise and mid-rise buildings. 3. Assessing soil liquefaction risks in soft or water-saturated areas. 4. Studying the stability of slopes and embankments and their resistance to seismic vibrations.

Detailed Seismological and Geomechanical Studies

• Conducting detailed seismic studies at mining and quarry sites to ensure safe working environments. • Analyzing rock fractures and cracks and their effect on the safety of tunnels, caves, and underground structures. • Performing S-wave velocity measurements inside boreholes down to depths of 80 meters to support geotechnical studies for major national projects.

Seismic Hazard Studies for Critical Facilities

• Assessing seismic effects on infrastructure and heritage structures such as museums, towers, bridges, roads, and power stations. • Studying and testing new construction sites in cities to determine their suitability from a seismic safety perspective before execution.

Seismic Reflection and Refraction Surveys

• Identifying subsurface geological structures and weak zones. • Determining the depth and direction of faults and fractures, which is essential for engineering planning of tunnels, dams, and energy facilities.

Ground Vibration and Dominant Frequency Measurements

• Measuring the natural soil frequency (Site Frequency) and seismic wave amplification factor. • Linking these measurements to the design of earthquake-resistant foundations and buildings.

Monitoring of Mine and Quarry Blasting

• Monthly monitoring of blasting activities in mines and quarries (cement, phosphates, gold, etc.). • Providing technical consultation to companies to minimize vibration impact on nearby cities and structures.

Rapid Response and Automatic Shutdown System

• Developing systems that connect seismic monitoring stations directly to control units in critical and strategic facilities. • Implementing safe automatic shutdown actions (such as closing gas valves, halting fuel flow, stopping trains, or disconnecting sensitive equipment) when hazardous seismic activity is detected—reducing secondary damage following an earthquake.