Nevşehir Hacı Bektaş Veli University Course Catalogue

Information Of Programmes

INSTITUTE OF SCIENCE / NONOBİLİM VE NANOTEKNOLOJİ ANABİLİM DALI

History

At the Higher Education General Assembly meeting dated 12/02/2021, with the 4th article of the Organization and Operation Regulation of Graduate Education Institutes, the Department of Nanoscience and Nanotechnology was established to provide interdisciplinary education within the Institute of Science and the opening of the Nanoscience and Nanotechnology Thesis Master's Program affiliated to this department. He was approved and started his postgraduate education. The language of education is Turkish.


Qualification Awarded

Graduates who successfully complete the program are awarded a Master's degree in Nanoscience and Nanotechnology Engineering.


Level of Qualification

Second Cycle Degree


Specific Admission Requirements

For admission to MsC program: - 1) Bachelor's Degree in acceptable fields 2) Sufficient score from the National Academic Staff & Graduate Education Exam (ALES) 3) English proficiency.


Specific Arrangement For Recognition of Prior Learning

Recognition of prior learning in Turkish higher education institutions are still in progress. Therefore, recognition of prior learning in Nevşehir University has not been fully accomplished. However, exemption exams from such lessons as Computer Sciences and English are held at the beginning of every academic year. Students who consider themselves capable of meeting the learning outcomes of such lessons are welcome to take the exemption test. Those who have passed the exemption test are exempt from the relevant lesson.


Qualification Requirements and Regulations

To obtain a master's degree in Nanoscience and Nanotechnology, students must complete their coursework, deliver a seminar on their thesis topic, and successfully present and defend a compilation or original work as a thesis.


Profile of The Programme

Our program consists of academics who are experts in their fields and the necessary studies are carried out together with the courses. Our department aims to train Nanoscience and Nanotechnology Engineers at an international level who are well-equipped, able to assume responsibility and have high problem-solving skills, open to development, respectful to national, moral and ethical values.


Key Learning Outcomes of the Programme

PO-1 Students will get information by doing research in the field of Engineering, evaluate the information, interpret and apply.
PO-2 Students complete information and apply the scientific method; It integrates the knowledge of different disciplines.
PO-3 Students fictions engineering problems, develop methods to solve and apply innovative methods in solution.
PO-4 Student leadership in multi-disciplinary teams, develops solutions to complex situations and take responsibility.
PO-5 Students are aware of new and emerging practice of the profession, examine them and learn when necessary.
PO-6 Students develop methods to solve a defined problem and apply innovative methods in technology solutions.
PO-7 Students will share their work process and the results in writing or verbally.
PO-8 Students will observe the social, scientific and ethical values.

NQF-HETR Program Outcomes Matrices
TYYC PÇ-1 PÇ-2 PÇ-3 PÇ-4 PÇ-5 PÇ-6 PÇ-7 PÇ-8
1- Develop and deepen knowledge in the same or in a different field to the proficiency level based on Bachelor level qualifications. X X
2- Conceive the interdisciplinary interaction which the field is related with. X
1- Use of theoretical and practical knowledge within the field at a proficiency level. X
2- Interpret the knowledge about the field by integrating the information gathered from different disciplines and formulate new knowledge. X
3- Solve the problem faced related to the field by using research methods. X
1- Independently conduct studies that require proficiency in the field. X
2-Take responsibility and develop new strategic solutions as a team member in order to solve unexpected complex problems faced within the applications in the field. X
3- Demonstrate leadership in contexts that require solving problems related to the field. X
1- Evaluate knowledge and skills acquired at proficiency level in the field with a critical approach and direct the learning. X
1- Communicate current developments and studies within the field to both professional and non-professional groups systematically using written, oral and visual techniques by supporting with quantitative and qualitative data. X
2- Investigate, improve social connections and their conducting norms with a critical view and act to change them when necessary. X
3- Communicate with peers by using a foreign language at least at a level of European Language Portfolio B2 General Level. X
4- Use advanced informatics and communication technology skills with software knowledge required by the field. X
1- Audit the data gathering, interpretation, implementation and announcement stages by taking into consideration the cultural, scientific, and ethic values and teach these values. X X
2- Develop strategy, policy and implementation plans on the issues related to the field and assess the findings within the frame of quality processes. X X
3- Use the knowledge, problem solving and/or implementation skills in interdisciplinary studies. X X

Nanoscience and Nanotechnology engineering, whose fields of study are extremely wide, are in the public and private sectors; they can work in the business areas of metallic, ceramic and polymeric materials, which are three main material groups, and in addition to these, in the business areas of nanocomposite materials, electronic materials and biomaterials, which are additional material groups.


Access to Further Studies

Candidates who have successfully completed their M.Sc. studying can take a doctorate program provided they have enough grades from ALES examination and they have enough knowledge of English language.


Course Structure Diagram with Credits

1. Semester Course Plan

Course Code Course Title Theoretical Practice Year Semester of Study Type of Course ECTS
NBT501 SCIENTIFIC RESEARCH AND ETHICS 3 Hour(s) 0 Hour(s) 1 Fall Semester Compulsory 6
SEÇ I ELECTIVE COURSES I - Hour(s) - Hour(s) 1 Fall Semester Optional 24
Total:
30

2. Semester Course Plan

Course Code Course Title Theoretical Practice Year Semester of Study Type of Course ECTS
NBT502 SEMİNAR 2 Hour(s) 1 Hour(s) 1 Spring Semester Compulsory 18
SEÇ II ELECTIVE COURSES II - Hour(s) - Hour(s) 1 Spring Semester Optional 12
Total:
30

3. Semester Course Plan

Course Code Course Title Theoretical Practice Year Semester of Study Type of Course ECTS
NBT603 THESIS STUDIES 0 Hour(s) 0 Hour(s) 2 Fall Semester Compulsory 22
NBT601 SPECIAL AREA COURSE 4 Hour(s) 0 Hour(s) 2 Fall Semester Compulsory 8
Total:
30

4. Semester Course Plan

Course Code Course Title Theoretical Practice Year Semester of Study Type of Course ECTS
NBT604 THESIS STUDIES 0 Hour(s) 0 Hour(s) 2 Spring Semester Compulsory 22
NBT602 SPECIAL AREA COURSE 4 Hour(s) 0 Hour(s) 2 Spring Semester Compulsory 8
Total:
30

ELECTIVE COURSES I

Course Code Course Title Theoretical Practice Year Semester of Study Type of Course ECTS
NBT511 MOLECULAR STRUCTURE OF BIOLOGICAL MATERIALS 3 Hour(s) 0 Hour(s) 1 Fall Semester Optional 0
NBT509 ENVIRONMENTAL NANOTECHNOLOGY 3 Hour(s) 0 Hour(s) 1 Fall Semester Optional
NBT529 PHASE TRANSFORMATION DIAGRAMS 3 Hour(s) 0 Hour(s) 1 Fall Semester Optional
NBT533 ENTREPRENEURSHIP AND TECHNOLOGY MANAGEMENT 3 Hour(s) 0 Hour(s) 1 Fall Semester Optional 6
NBT513 ADVANCED CHARACTERIZATION TECHNIQUES OF MATERIALS 3 Hour(s) 0 Hour(s) 1 Fall Semester Optional 6
NBT525 SOLID STATE PHYSICS 3 Hour(s) 0 Hour(s) 1 Fall Semester Optional
NBT523 QUANTUM MECHANICS I 3 Hour(s) 0 Hour(s) 1 Fall Semester Optional
NBT521 STRUCTURE AND CRYSTALLOGRAPHY OF MATERIALS 3 Hour(s) 0 Hour(s) 1 Fall Semester Optional
NBT527 MODELING AND SIMULATION 3 Hour(s) 0 Hour(s) 1 Fall Semester Optional
NBT507 NANO COATINGS 3 Hour(s) 0 Hour(s) 1 Fall Semester Optional
NBT503 INTRODUCTION TO NANO SCIENCE AND NANOTECHNOLOGY 3 Hour(s) 0 Hour(s) 1 Fall Semester Optional
NBT517 PROPERTIES OF NANOMATERIALS 3 Hour(s) 0 Hour(s) 1 Fall Semester Optional 6
NBT519 FABRICATION TECHNIQUES IN NANOTECHNOLOGY 3 Hour(s) 0 Hour(s) 1 Fall Semester Optional
NBT515 PHYSICS AND CHEMISTRY OF NANOSTRUCTURES 3 Hour(s) 0 Hour(s) 1 Fall Semester Optional
NBT505 POLYMERIC NANOSTRUCTURES AND NANOCOMPOSITES 3 Hour(s) 0 Hour(s) 1 Fall Semester Optional

ELECTIVE COURSES II

Course Code Course Title Theoretical Practice Year Semester of Study Type of Course ECTS
NBT530 BIOMATERIALS AND TISSUE ENGINEERING 3 Hour(s) 0 Hour(s) 1 Spring Semester Optional 6
NBT508 HYDROGEN TECHNOLOGIES 3 Hour(s) 0 Hour(s) 1 Spring Semester Optional
NBT524 QUANTUM MECHANICS II 3 Hour(s) 0 Hour(s) 1 Spring Semester Optional
NBT528 MATERIAL SCIENCE AND ENGINEERING 3 Hour(s) 0 Hour(s) 1 Spring Semester Optional
NBT522 MODERN PHYSICS 3 Hour(s) 0 Hour(s) 1 Spring Semester Optional
NBT520 NANO GRINDING MECHANISMS 3 Hour(s) 0 Hour(s) 1 Spring Semester Optional
NBT512 NANO-OPTIC 3 Hour(s) 0 Hour(s) 1 Spring Semester Optional
NBT506 NANOSCIENCE, NANOTECHNOLOGY AND INDUSTRY APPLICATIONS 3 Hour(s) 0 Hour(s) 1 Spring Semester Optional
NBT514 NANOCHEMISTRY 2 Hour(s) 0 Hour(s) 1 Spring Semester Optional
NBT518 NANOSYSTEM DESIGN 3 Hour(s) 0 Hour(s) 1 Spring Semester Optional
NBT510 NANOTRIBOLOGY 3 Hour(s) 0 Hour(s) 1 Spring Semester Optional
NBT516 ORGANIC SEMI-CONDUCTORS 3 Hour(s) 0 Hour(s) 1 Spring Semester Optional
NBT526 NUMERIC METHODS AND NANOTECHNOLOGICAL APPLICATIONS 3 Hour(s) 0 Hour(s) 1 Spring Semester Optional
NBT504 SOL-GEL PROCESS 3 Hour(s) 0 Hour(s) 1 Spring Semester Optional

Examination Regulations, Assessment and Grading

Courses taken by a student have to be pre-approved by the student’s advisor every semester. At least 70% attendance for the theoretical classes and at least 80% attendance for the applied classes including workshop studies are obligatory to be able to attend the final exam. Students must attend at least one mid-term exam and a final exam for each course. 40% of the mid-term exam (homework, lab classes, quizzes, multiple choice tests) plus 60% of the final exam is accounted for evaluating the student’s performance in a course.


Graduation Requirements

In order to successfully complete the Nanoscience and Nanotechnology master's program, it is necessary to pass all the courses available in the program (equivalent to 120 ECTS), and to successfully complete the master's thesis.


Mode of Study

Full-time


Facilities

The academic activities of the department are carried out with for professor, two associate professors and two doctor modern classrooms with the latest technology courses are conducted.However, students have free access to the opportunities offered by the university during the day.


Programme Director or Equivalent

Nevşehir Hacı Bektaş Veli University, Eng.-Architect. fac. . 50300, NEVŞEHİR Web:http://https://nanoteknoloji.nevsehir.edu.tr //TEL: 0 384 228 10 00 FAX: 0 384 215 10 37 Head of Department: Associate Professor Cemal ÇARBOĞA