1. komponenta

Lecture type	Total
Lectures	30
Exercises	15
Seminar	15

* Load is given in academic hour (1 academic hour = 45 minutes)

OBJECTIVE OF THE COURSE:
1. Consolidation of knowledge and experience about the impacts and consequences of dynamic forces on engineering structures and the environment.
2. Analyzing the specific conditions of the microlocation and defining the interaction between the foundation soil and the structure.
3. Introduction of a seismic isolation system in order to improve the dynamic response of the structure and reduce the seismic hazard.
4. Acquisition of knowledge and skills for successful application in future professional and/or scientific work.

LEARNING OUTCOMES:
After passing the course, the student will be able to:
1. synthesize knowledge from the natural sciences and basic engineering disciplines when creating papers, studies and projects in earthquake engineering
2. recognize the basic features of seismic action and establish the parameters of vibration description
3. establish dynamic problems of structures
4. apply basic parameters for designing aseismic structures
5. apply concepts and standards that contribute to the resistance of buildings to vibrations and earthquakes

COURSE CONTENT:
Lectures: (30)
1. Effects and consequences of earthquakes. (2)
2. Characteristics of ground motion. Specific microlocation conditions. (2)
3. Methods for estimating parameters of ground motion and amplification. (2)
4. Seismic motion. Response spectrum of earthquake. Response of linear and nonlinear systems with one degree of freedom. (4)
5. Dynamic properties of buildings. Vibration modes. (4)
6. Dynamic interaction of the structure (building) and the underlying soil. (4)
7. Fundamentals of earthquake-resistant construction. Characteristics of earthquake-resistant structures/buildings. (2)
8. Ductility and bearing capacity (capacity) of structures. (2)
9. Elastic and design spectra according to EC8 (Eurocode 8). (2)
10. Fundamentals of constructing seismically resistant structures according to EC8. Designing structures with passive energy dissipation systems. Anti-earthquake foundation. (2)
11. Seismic risk assessment. Urban planning. Before and after the earthquake. (4)

Exercises: (15)
1. Earthquake response spectrum (5)
2. Measurement and calculation of dynamic properties of buildings. (5)
3. Dynamic interaction of structure (building) and foundation soil. (5)

Seminars - selection of topics in agreement with student: (15)

TEACHING METHODS:
Lectures, exercises, seminars.

MONITORING AND ASSESSMENT METHOD:
Regular attendance, independent assignments, seminars, oral exam.

SIGNATURE CONDITIONS:
Attendance (lectures, exercises), submitted independent assignments and held seminars. EXAM METHOD:
Oral exam.

1. Obavezna:
   Kramer, S.L. (1996): Geotechnical Earthquake Engineering, Prentice-Hall International Series inTheoretical and Applied Mechanics, New Jersey, USA.
   
   Dopunska:
   Elnashi, A.S., Di Sarno, L. (2008): Fundamentals of Earthquake Engineering, A John Wiley & Sons, Ltd, UK.

Enrollment :
Attended : Seismology III

Izborni predmeti - Regular study - Seismology and Physics of Solid Earth