Disaster Science and Engineering Doctor of Philosophy Program


The information and program qualifications related to the Disaster Science and Engineering Doctor of Philosophy Program, under the Department of Disaster and Emergency Management of the Graduate School, are summarized below.

Information About The Program

In our country, the most common meteorological natural disasters are floods, floods, hail, frost, forest fires, drought, heavy rainfall, heavy wind, lightning, avalanches, snow and storms. Due to its geological and topographical characteristics, the geography of Turkey has been a place where many earthquake origin disasters of different magnitudes have occurred. Historically, it is known that there have been very important earthquakes in and around the Marmara Sea. Exposure to such earthquakes is due to the fact that Anatolian geography has a tectonic structure where earthquake-producing live faults are located and important earthquake zones produce destructive earthquakes. Today, human impacts such as industrialisation, unplanned construction and destruction of nature may increase the effects of disasters or cause new ones to occur. While 200 natural disasters occurred 200 years ago, it is stated that this figure has reached 800 in the last century.
Disasters that are caused by human beings and have consequences that disrupt the flow of life can be defined as man-made disasters. Human-induced disasters can be encountered anywhere in the world and the effects of these disasters can be of unexpected magnitude. The magnitude of the disaster varies according to the level of precautions taken. Air pollution, ozone depletion, acid rains, nuclear, biological and chemical accidents, terrorist attacks, migrations etc. can be counted as man-made disasters. Technological disasters or, in other words, industrial disasters can be examined under human-induced disasters or they can be considered as a separate class of disasters. Although the cause of technological disasters may seem to be technological errors and deficiencies, the root cause is essentially human-induced. Technological disasters may occur as a result of accidents or intentions due to reasons such as lack of training, carelessness, failure to take adequate precautions. In this context, disaster risk management and risk assessment can be carried out more comprehensively for such disasters and better results can be obtained to reduce the severity of the risk. Technological disasters can lead to different natural disasters and natural disasters can trigger technological disasters. Accordingly, many technological disasters (explosions in industrial areas, gas leaks, radiation leaks, etc.) also occur as a result of a major earthquake.
Disaster management studies, which require a multidisciplinary approach, are appropriate to be carried out with both technical, technological and engineering and social sciences perspective. Disaster management is defined as a multifaceted and multi-actor management process that involves all segments of the society with their institutions and organisations in the activities in order to plan, direct, coordinate, support and effectively implement the measures to be taken and activities to be carried out before, during and after disasters in order to prevent disasters and reduce their damages, and ensures the use of resources in line with the determined strategic objectives and priorities. Within this process, activities which can be divided into main stages such as prevention, preparation, response and improvement require continuity. The success of the activities carried out in the previous stage of the disaster management process affects the success of the activities to be carried out in the next stage. These processes are intertwined activities and form a cycle.
Before, during and after disasters and emergencies, technical teams, especially geological, civil and environmental engineers, urban planners, are interested in minimising the possible physical destruction of the disaster and reorganising the environment after the disaster, rebuilding it safely in the same place or in another place. Reduction of disaster damages and prevention of disasters can only be possible through disaster risk management to be implemented with a multidisciplinary approach. Determination of hazards and risks, field studies, preparation of hazard and risk maps, construction of early warning systems for disasters of different origins, determination of prevention techniques and prevention structures mostly require engineering studies.
No matter how good the necessary infrastructure and resources are in order to reduce the damages caused by disasters and to make improvements, it is the qualified human resourcesthat will make these resources functional . It is important for our country to trainengineering-based scientistswho can be included in the Integrated Disaster Management system both in pre-disaster preparations and in intervention and improvement activities during and after disasters . It is important for our country to have engineering-based approach to disasters by strengthened and expanded administrations with new perspectives that can reduce the impact of natural disasters and help prevent or reduce the effects of technological / human-induced disasters and to train engineers in this field.

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Registration Requirements

Application Term : Previous Term / 2024-2025 Spring Semester

Application Requirements (For T.C Nationality)
ALES Numerical must be minimum 75 (old system GRE Quantitative minimum 700, new system GRE minimum 155 ). Graduate GPA must be minimum 3.25/4 (82.5/100). Minimum GPA from undergraduate to doctorate must be 3.00/4 (76.66/100). Graduation must be All Engineering, Disaster Management.
Quota (For T.C Nationality): 5

Application Requirements (For International Students)
ALES Numerical must be minimum 75 (old system GRE Quantitative minimum 700, new system GRE minimum 155 ). Graduate GPA must be minimum 3.25/4 (82.5/100). Minimum GPA from undergraduate to doctorate must be 3.00/4 (76.66/100). Graduation must be All Engineering, Disaster Management.
Quota (For International Students): 5

Transfer Quota : 1

Application Page
Graduate Education and Training Regulation Senate Principles

Application requirements, application dates, and quotas are updated in real-time from the Application System.
 

English Proficiency



Regulations and Guidelines

Regulations and Guidelines


Academic Calendar

Academic Calendar


Course Plans



Course Schedules



Course Adjustment and Exemption Procedures

Course adjustment and exemption procedures are carried out in accordance with the Exemption and Adjustment Procedures Regulation of Istanbul Technical University.
Exemption and Adjustment Procedures Regulation


Program Educational Objectives

With this PhD programme proposed to be opened, expert engineers with disaster knowledge will be trained and the deficiencies in this field will be eliminated and important results will be obtained in increasing human resources, which is one of the most important targets in this field. Students studying in the proposed doctoral programme;
Ø To be able to develop solution methods for problems in the field of Disaster Science and Engineering by using scientific research methods and to bring an innovation to science,
Ø Designing and performing experiments and developing a scientific method by analysing the results,
Ø To develop new applications in Disaster Science and Engineering by using information and communication technologies and modern measurement tools necessary for research in the field,
Ø To establish interdisciplinary and interdisciplinary communication, to gain the ability to be a scientist by working with multidisciplinary teams,
It is expected to have the characteristics.


Measurement and Evaluation

Evaluating Student Success
The student success is evaluated considering Articles 56, 57, 58, and 59 of the Istanbul Technical University Graduate Education and Training Regulation Senate Principles.

ARTICLE 56 - Before the enrollment for the courses begins, the faculty member who offers the course informs the Program Executive Committee about the types, number and contribution percentage to the final grade of the studies within the semester, as well as requirements for a right to take the semester final exam. These requirements shall be finalized by approval of the Program Executive Committee and approval of the chair of the department, who declares them to the student and informs the Graduate School.

ARTICLE 57 - A student may appeal the final grade of a course within one week following the announcement of the grades. Appeals must be submitted to the Graduate School in writing. The relevant faculty member shall re-evaluate the student's success status and submit the result to the Graduate School within one week. Appeals not submitted within the prescribed time frame shall not be considered by the Graduate School.

ARTICLE 58 - Courses in graduate programs shall be evaluated according to the following grading system.
Grade Description Grade Scale
Excellent AA 4.00
Very good plus BA+ 3.75
Very good BA 3.50
Good plus BB+ 3.25
Good BB 3.00
Conditional Pass CB+ 2.75
Conditional Pass CB 2.50
Conditional Pass CC+ 2.25
Conditional Pass CC 2.00
Fail FF 0.00
Fail(No Exam) VF 0.00

ARTICLE 59 - Students who wish to improve their cumulative grade point average may retake courses during the course-taking period. The most recent grade will be counted for the repeated courses.


Internship

There is no internship in this program.


Graduation Requirements

Considering the ‘ITU Graduate Education and Training Regulations - Criteria for Opening a PhD Programme’, the proposed PhD programme requires at least 8 courses (ABM coded courses and ABM 696 courses from the doctoral programmes planned to be collaborated with ABM coded courses), qualifying exam (ABM YET), thesis proposal and thesis study (ABM THESIS) success, provided that it is not less than 24 credits in total for students with a master's degree. Therefore, a total of at least 24 credits of courses are recommended to be taken in the PhD Programme in Disaster Science and Engineering and the courses are 3 credits each.


The Awarded Degree and Title

Degree : Doctor of Philosophy    Title : Doctor of Philosophy


Program Employment Opportunities

The PhD Programme inDisaster Science and Engineering is an engineering-based programme covering the fields of Earthquake Engineering, Civil Engineering, Chemical Engineering, Environmental Engineering, Nuclear Engineering, Materials Engineering, Mechanical Engineering, Atmospheric Sciences, Geomatics Engineering, Artificial Intelligence, Mining Engineering.
It is envisaged that the PhD programme will train engineers who can help prevent or mitigate technological / human-induced disasters and reduce the impact of natural disasters with new and innovative engineering approaches. Thanks to the education planned to be given in this direction, it is expected to meet the shortage of engineers who have the ability to work in interdisciplinary and interdisciplinary projects to meet the needs in the field of disaster.


Number of Graduates

There are no graduates.


Program Outcomes

P.O.1 To be able to reach information broadly and deeply by conducting scientific research in the field, to be able to evaluate, interpret and apply the information
P.O.2 Has a comprehensive knowledge of current techniques and methods applied in engineering and their limitations.
P.O.3 Using uncertain, limited or incomplete data, completes and applies information with scientific methods; can use information from different disciplines together.
P.O.4 To be aware of new and developing applications of his/her profession, to examine and learn them when needed.
P.O.5 Defines and formulates problems related to the field, develops methods to solve them and applies innovative methods in solutions.
P.O.6 Develops new and/or original ideas and methods; designs complex systems or processes and develops innovative/alternative solutions in their designs.
P.O.7 Design and apply theoretical, experimental and modelling based research; examine and solve complex problems encountered in this process.
P.O.8 To be able to work effectively in disciplinary and multidisciplinary teams, to lead such teams and to develop solution approaches in complex situations; to be able to work independently and take responsibility.
P.O.9 To be able to communicate orally and in writing in a foreign language at least at the B2 level of the European Language Portfolio.
P.O.10 To be able to communicate the process and results of his/her studies systematically and clearly in written or verbally in national and international environments within or outside the field.
P.O.11 To be aware of the social, environmental, health, safety and legal aspects of engineering applications, project management and business life practices and to be aware of the constraints these impose on engineering applications.
P.O.12 Observes social, scientific and ethical values in the stages of data collection, interpretation, announcement and in all professional activities.


Program Coordinator

Dr. Öğr. Üyesi Ömer Ekmekcioğlu
E-mail: ekmekcioglu17@itu.edu.tr
Web: https://research.itu.edu.tr/tr/persons/ekmekcioglu17


Head of the Department

Doç. Dr. Didem Saloğlu Dertli
E-mail: saloglu@itu.edu.tr
Web: https://research.itu.edu.tr/tr/persons/saloglu