Department of Applied Physics
Teachers Count
16
Department of Applied Physics
The Department of Applied Physics at the Faculty of Science, Tafila Technical University, was established with the founding of the University in the academic year 2005/2006, forming a fundamental pillar in the academic structure of the Faculty. Since its inception, the Department has aimed to supply society with qualified professionals in the fields of education, engineering, and industry. In response to scientific advancements and labor market demands, the Department has expanded its academic offerings by introducing a Bachelor’s program in Medical Physics starting from the academic year 2024/2025. The Department comprises a distinguished group of sixteen faculty members and experts specializing in various areas of theoretical and experimental physics.
Vision
To achieve leadership and excellence in academic and research fields in Applied Physics and Medical Physics, and to prepare scientifically and professionally qualified graduates who meet the needs of the local and global job market, contributing effectively to sustainable development and technological and healthcare advancement.
Mission
To provide a comprehensive educational and research environment that fosters intellectual growth and scientific exploration through advanced academic programs integrating theoretical knowledge with practical applications in Applied and Medical Physics. The Department is committed to preparing specialized graduates equipped with the skills required to work in educational, industrial, engineering, and medical sectors, while emphasizing scientific research, community service, and adherence to quality standards and academic integrity.
Strategic Objectives
- Academic Excellence: To provide students with a deep and comprehensive understanding of the principles of physics and their applications in engineering, medicine, and technology.
- Professional Qualification: To prepare graduates who are competitive in the job market in areas such as teaching, industry, radiation physics, medical imaging, and medical instrumentation.
- Skills Development: To enhance critical thinking, problem-solving abilities, and interdisciplinary approaches to address contemporary challenges.
- Research and Innovation: To promote scientific research and knowledge exchange, and to provide a supportive environment for lifelong learning and continuous professional development.
Core Values
Our values are centered around excellence, innovation, integrity, collaboration, diversity, and social responsibility. We strive to achieve a meaningful positive impact through the application of physical sciences in service of humanity.
Laboratories and Infrastructure
The Department is proud of its advanced infrastructure, which includes a wide range of laboratories serving both Applied Physics and Medical Physics, meeting accreditation standards and providing students with training in measurement, analysis, and technology transfer.
Our laboratories include:
- Basic Physics Laboratories: General Physics 1, 2, and 3, and Intermediate Practical Physics Laboratory.
- Advanced Applied Physics Laboratories: Waves and Vibrations, Geometrical Optics, Solid State Physics, Atomic and Nuclear Physics, and Computer Applications in Physics.
- Electronics Laboratories: Analog Electronics and Digital Electronics.
- Specialized Medical Physics Laboratories: Medical Physics 1, 2, and 3, covering radiation physics, dosimetry, radiation protection, medical instrumentation physics, and medical image analysis.
Department Majors
1
Credit Hour
Bachelor Degree
The Bachelor’s Degree in Medical Physics focuses on the application of physics principles and techniques in the field of medicine and healthcare. The program is designed to provide students with a strong foundation in both physics and medical sciences, enabling them to work with advanced medical technologies used in diagnosis, treatment, and imaging. It aims to prepare qualified graduates capable of contributing to the development and safe use of medical equipment and radiation technologies in healthcare settings.
Key Learning Outcomes
Upon completion of the program, graduates will be able to:
- Apply physics principles to medical and biological systems.
- Operate and evaluate medical imaging systems such as X-ray, CT, and MRI.
- Understand radiation physics, dosimetry, and radiation protection principles.
- Ensure safety standards in the use of ionizing and non-ionizing radiation.
- Analyze medical images and interpret related data.
- Assist in quality assurance and calibration of medical equipment.
- Work effectively in multidisciplinary healthcare teams.
Study Plan (Summary)
The study plan includes the following components:
- Basic Requirements: Mathematics, General Physics, Biology, and Computer Skills.
- Major Requirements: Medical Physics, Radiation Physics, Dosimetry, Radiobiology, Medical Imaging Physics, Health Physics, and Biomedical Instrumentation.
- Applied Courses: Electronics, Signal Processing, Imaging Techniques, and Data Analysis.
- Laboratory Training: Hands-on training in medical physics and radiation laboratories, including simulation and practical applications.
- Graduation Project: A research or applied project in a specialized area of medical physics.
Career Opportunities
Graduates of this program may pursue careers in:
- Hospitals and medical centers (radiation therapy and diagnostic imaging departments).
- Radiotherapy and nuclear medicine units.
- Medical equipment companies and biomedical industries.
- Radiation safety and protection agencies.
- Research and development centers.
- Healthcare regulatory and quality assurance bodies.
- Academic and teaching institutions.
1
Credit Hour
Master Degree
Program Overview
The Master’s Degree in Chemical Technology is designed to advance knowledge in applied chemistry and industrial processes, with a strong emphasis on scientific research and technological development in the chemical industries. The program aims to prepare highly qualified specialists capable of innovation, conducting advanced applied research, and improving industrial processes to achieve efficiency and sustainability while meeting the needs of industrial and research sectors.
Key Learning Outcomes
Upon completion of the program, graduates will be able to:
- Analyze and evaluate industrial chemical processes using advanced scientific methodologies.
- Design and optimize chemical processes and technologies in accordance with quality and efficiency standards.
- Conduct advanced applied research in various fields of chemical technology.
- Utilize modern techniques and advanced instrumentation for analysis and industrial development.
- Solve complex industrial problems using innovative and sustainable approaches.
- Prepare and publish scientific research in peer-reviewed journals and participate in scientific conferences.
- Adhere to research ethics and professional standards.
Study Plan (Summary)
The study plan includes the following components:
- Core Courses: Advanced Process Technology, Applied Thermodynamics, Advanced Analytical Techniques, and Advanced Chemical Reactor Engineering.
- Elective Courses: Advanced Polymer Technology, Petrochemical Technology, Water and Environmental Treatment, and Process Modeling and Simulation.
- Supporting Courses: Research Methodology, Applied Statistics, and Research Ethics.
- Thesis: Conducting original research in a specialized area of chemical technology under academic supervision.
Career Opportunities
Graduates of this program may pursue careers in:
- Scientific research and industrial R&D centers.
- Advanced chemical and petrochemical industries.
- Pharmaceutical and biotechnology companies.
- Industrial and environmental consulting firms.
- Universities and academic institutions.
- Governmental and regulatory bodies related to industry and environmental sectors.
1
Credit Hour
Bachelor Degree
The Bachelor’s Degree in Applied Physics focuses on the practical applications of physical principles in various scientific, technological, engineering, and industrial fields. The program aims to equip students with a strong theoretical foundation combined with advanced experimental and analytical skills, enabling them to understand, design, and develop modern technologies that contribute to industrial growth and scientific advancement.
Key Learning Outcomes
Upon completion of the program, graduates will be able to:
- Demonstrate a solid understanding of core physics principles and their real-world applications.
- Apply experimental and computational methods to analyze physical systems.
- Use modern laboratory equipment and advanced measurement techniques effectively.
- Analyze data and interpret experimental results using scientific and statistical approaches.
- Solve complex technical and engineering problems using physical principles.
- Utilize programming and simulation tools in solving physics-related problems.
- Work efficiently in multidisciplinary teams while adhering to professional ethics.
Study Plan (Summary)
The study plan includes the following components:
- Basic Requirements: Mathematics, General Physics, Computer Skills, and Scientific Writing.
- Major Requirements: Mechanics, Electromagnetism, Waves and Vibrations, Thermodynamics, Quantum Physics, Solid State Physics, Atomic and Nuclear Physics.
- Applied Courses: Electronics (Analog & Digital), Optical Systems, Instrumentation, Computational Physics, and Numerical Methods.
- Laboratory Training: Extensive hands-on training in fundamental and advanced physics laboratories.
- Graduation Project: A research or applied project addressing a scientific or technological problem.
Career Opportunities
Graduates of this program may pursue careers in:
- Engineering and industrial sectors.
- Electronics and instrumentation industries.
- Renewable energy and energy sectors.
- Research and development centers.
- Medical and radiation physics applications.
- Telecommunications and optical systems.
- Quality control and testing laboratories.
- Education (schools and universities).
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