Biyomedikal Mühendisliği (İngilizce) Lisans Diploması

ISCO 08 : 2149.07

ISCO 08 : 2149.07

It is a higher education program based on secondary education qualifications, comprising eight semesters, and designed to provide specialized education in a specific field of study or profession.

Program Objective:
The Biomedical Engineering undergraduate program aims to integrate engineering principles with life sciences and medical knowledge in order to develop and apply innovative healthcare technologies. The program trains graduates to specialize in biomedical device design, medical imaging, biomaterials, biosensors, rehabilitation technologies, artificial intelligence-based diagnostic systems, and clinical engineering applications.

Program Outcomes:
Graduates of the program will be able to:

• Apply fundamental knowledge of mathematics, physics, chemistry, and biology to healthcare-related problems,
• Design, develop, test, and validate biomedical devices and systems,
• Understand the principles of biomaterials and tissue engineering to develop novel biomedical products,
• Analyze medical imaging systems and apply signal and image processing techniques,
• Develop biomedical signal processing and AI-based diagnostic/decision support systems,
• Identify clinical needs and propose appropriate engineering solutions,
• Work in compliance with ethics, patient safety, quality standards, and medical regulations,
• Collaborate effectively in multidisciplinary teams and demonstrate strong communication skills,
• Develop innovative thinking and entrepreneurial skills to contribute to healthcare technology advancements.

Employment Opportunities:
Graduates can pursue careers in:

• Medical device design and manufacturing companies,
• Health technology R&D centers,
• Hospital and clinical engineering departments,
• Medical imaging and healthcare software companies,
• Biomaterials, prosthetics, and implant development industries,
• Academic and research institutions,
• Regulatory and governmental healthcare technology organizations.

Program Structure:

• Basic Sciences: Mathematics, physics, chemistry, biology, anatomy, physiology.
• Engineering Fundamentals: Electronics, circuits, programming, mechanics.
• Core Courses: Biomaterials, biomechanics, biomedical instrumentation, medical imaging, biosignal processing, clinical engineering, healthcare software development.

Practical Components: Laboratory work, internships, senior design projects, and research-oriented applications.

Education and training are conducted through formal, open, or distance learning methods. Additionally, practical training is provided through internships or workplace-based education in laboratories within higher education institutions, in the industry, or at workplaces.

Program Outcomes of the Department of Biomedical Engineering (P.O.):

P.O.1: Possessing sufficient knowledge in mathematics, natural sciences, and discipline-specific subjects of Biomedical Engineering; the ability to apply theoretical and practical knowledge to solve complex engineering problems.

P.O.2: The ability to identify, define, formulate, and solve complex engineering problems; the ability to select and apply appropriate analysis and modeling methods for this purpose.

P.O.3: The ability to design a complex system, process, device, or product to meet specific requirements under realistic constraints and conditions; the ability to apply modern design methodologies for this purpose.

P.O.4: The ability to develop, select, and utilize modern techniques and tools necessary for analyzing and solving complex problems encountered in Biomedical engineering applications; the ability to effectively use information technologies.

P.O.5: The ability to design experiments, conduct tests, collect data, analyze, and interpret results for the investigation of complex engineering problems or research topics specific to Biomedical Engineering.

P.O.6: The ability to work effectively in intra-disciplinary and multidisciplinary teams; the ability to work independently.

P.O.7: The ability to communicate effectively in written and oral forms in Turkish; knowledge of at least one foreign language; proficiency in writing and understanding reports, preparing design and production reports, delivering effective presentations, and providing clear and understandable instructions.

P.O.8: Awareness of the necessity of lifelong learning; the ability to access information, follow developments in science and technology, and continuously renew oneself.

P.O.9: Acting in accordance with ethical principles, possessing professional and ethical responsibility, and having knowledge about standards used in Biomedical engineering applications.

P.O.10: Knowledge of business practices such as project management, risk management, and change management; awareness of entrepreneurship and innovation; knowledge about sustainable development.

P.O.11: Awareness of the health, environmental, and safety impacts of Biomedical engineering applications on a universal and societal scale; knowledge of current issues reflected in the field of engineering and awareness of the legal implications of engineering solutions.

Possesses advanced proficiency in the following key competences:

• Literacy Competence
• Multilingual Competence
• Mathematical Competence and Competence in Science, Technology, and Engineering
• Digital Competence
• Personal, Social, and Learning-to-Learn Competence
• Citizenship Competence
• Entrepreneurship Competence
• Cultural Awareness and Expression Competence

Assessment of Success

In order to be awarded the Bachelor’s Degree in Geomatics Engineering, students must successfully complete a total of 240 ECTS credits defined in the program. Students are required to pass all courses and achieve a minimum Cumulative Grade Point Average (CGPA) of 2.00 out of 4.00. In addition, the internship(s) and the graduation project specified in the curriculum must be successfully completed. Furthermore, students must fulfill any other academic and administrative requirements determined by the department.

In assessing a student’s performance in a course, both the grade obtained from semester work (out of 100) and the grade obtained in the final exam (out of 100) are considered.

In measuring success, the weight of the semester work is 40%, and the weight of the final exam is 60%. (These percentages may be modified by the decision of the Faculty Senate for certain courses.)

The relative evaluation system is used in determining achievement grades.

Achievement Grades and Coefficients

AA: 4.00 (Excellent)

BA: 3.50 (Very Good)

BB: 3.00 (Good)

CB: 2.50 (Average)

CC: 2.00 (Satisfactory)

DC: 1.50 (Provisionally Successful)

DD: 1.00 (Fail)

FD: 0.50 (Fail)

FF / F0: 0.00 (Fail)

Additional Notes:

DC indicates that the student has been provisionally successful in a course. To graduate, a student must have a Cumulative Grade Point Average (CGPA) of at least 2.00. DC grades are included in the CGPA.

G (Pass): Indicates that the student has successfully completed a course; not included in CGPA.

K (Fail): Indicates failure in a non-credit course; not included in CGPA.

İ (Leave of Absence): Indicates that the course requirements could not be completed due to illness or valid excuse; if not completed in the following semester, it automatically converts into an FF.

M (Exemption): Indicates exemption from equivalent courses taken in previous programs; not included in CGPA.

Make-up, Single Course, and Graduation Exams

Make-up Exam: Students who fail or do not attend the final exam have the right to take a make-up exam for the relevant semester.

Single Course Exam: Students who are at the graduation stage and fail only one course are entitled to a single course exam under the relevant regulations.

Graduation Exam: Students who fail a maximum of two courses or whose CGPA remains below 2.00 are granted the right to a graduation exam within the period specified in the academic calendar. To be considered successful, a minimum grade of CC must be obtained.

Our department program was accredited by MÜDEK in 2025 for 2 years (01.05.2025-30.09.2027).

Apart from MÜDEK, the quality assurance of undergraduate programs in higher education is ensured according to the "Procedures and Principles for Ensuring the Quality Assurance of Higher Education Diploma Programs":

1. Development and Approval of Educational Programs:

1.1. The Council of Higher Education (YÖK) determines the minimum standards and criteria required for the establishment of undergraduate departments and programs in higher education institutions.

1.2. The curriculum of undergraduate programs and the learning outcomes that each program is expected to impart to students are determined by the university senate in accordance with the fundamental principles set by YÖK.

1.3. The curriculum of National Core Education Programs is implemented by higher education institutions after being accepted by the relevant Council of Deans and approved by YÖK.

2. Assessment and Evaluation:

The methods for assessing and evaluating the learning outcomes of each undergraduate program are carried out according to the education, training, and examination regulations prepared by the university senate, in line with the fundamental principles determined by YÖK.

3. Certification:

Students enrolled in undergraduate programs receive a bachelor's diploma upon successfully completing the required course credits and other obligations determined by the higher education institutions.

4. Self-Evaluation and External Evaluation:

In the context of continuous monitoring, higher education institutions submit their "Internal Evaluation Reports" for the previous year to the Higher Education Quality Council (YÖKAK) at the beginning of each year via the Information System prepared by YÖKAK.

• YÖKAK publicly shares the "Institutional Feedback Report" prepared regarding the external evaluation of higher education institutions.
• Accreditation decisions granted by accreditation bodies authorized or recognized by YÖKAK also demonstrate that the program's qualifications are assured for quality.
• Regular reviews regarding the qualifications determined by YÖKAK regulations are conducted to ensure continuous improvement.

To be admitted to the undergraduate programs of higher education institutions, the following conditions must be met:

• Graduating from a secondary education institution or an equivalent foreign secondary education institution recognized by the Ministry of National Education and fulfilling the admission requirements of higher education institutions' undergraduate programs.
• Being placed in the relevant undergraduate program of a higher education institution based on the results of the central examination conducted by the Measurement, Selection, and Placement Center (ÖSYM), in accordance with the procedures and principles determined by the Council of Higher Education (YÖK).
• For programs that admit students through a special talent examination, obtaining a sufficient score from the central examination conducted by ÖSYM and successfully passing the special talent examination, as per the procedures and principles set by YÖK.
• For associate degree graduates, being placed in an undergraduate program that is a continuation of their completed field of study, based on the results of the Vertical Transfer Examination (DGS) conducted by ÖSYM, in accordance with YÖK's established procedures and principles.

Graduates of a Biomedical Engineering undergraduate program can work in areas such as design, production, marketing, and R&D in the healthcare sector. Biomedical engineers have the opportunity to find employment in the private sector, particularly in hospitals and medical device and product manufacturers. They have a wide range of employment opportunities, from the pharmaceutical industry to prosthesis manufacturers. As one of the two most rapidly developing technological fields in the world, the need for qualified, specialized biomedical engineers in the healthcare sector is increasing significantly. In our country, in addition to manufacturers and suppliers serving the healthcare sector, biomedical engineers must employ at least one biomedical engineer in hospitals affiliated with the Ministry of Health with a capacity of 200 beds and in private hospitals with a capacity of 100 beds or more (Official Gazette dated July 27, 2011, numbered 24472; Official Gazette dated March 22, 2002, numbered 24708). Considering the employment opportunities available to biomedical engineers in the healthcare sector, they will find it easier and more highly paid than recent graduates in other engineering fields.

1.Higher Education Law No. 2547

1.1. Regulation on the Principles of Transfer Between Associate and Undergraduate Programs, Double Major, Minor, and Credit Transfer Between Institutions in Higher Education Institutions.

1.2. Regulation on the Continuation of Associate Degree Graduates from Vocational Schools and Open Education Programs to Undergraduate Education.

2.Higher Education Law No. 2547 (Additional Article-35)

2.1. Regulation on Quality Assurance in Higher Education and the Higher Education Quality Council.

The qualification is permanently valid.