Physics

Undergraduate Program (S-1)

Learn more about various concentrations, explore the Curriculum adjust your Course Schedule to fit your time, know the required Tuition Fees, and understand the expected learning outcomes All the information you need to start your academic journey is here.

Concentration

The following is a list of specializations contained in Undergraduate Program in Physics

Materials Physics

Materials Physics is a subfield of physics that focuses on the physical and chemical properties of different types of materials. This research group studies a wide range of materials, from conventional ones such as metals and ceramics to modern materials such as semiconductors and nanomaterials. Studies in Materials Physics cover a number of important topics. One of the main focuses is crystal structure analysis. This group studies the arrangement of atoms and molecules in materials, understanding the patterns that make up crystal structures, and how these structures affect the properties of materials. In addition, the mechanical, electrical, and thermal properties of materials are also of major interest. Research on mechanical properties includes strength, elasticity, hardness, and deformation of materials. Electrical and thermal properties involve the behavior of materials towards electric fields and temperature, which are important for various technological applications. The main goal of this group is to deeply understand the relationship between the structure and properties of materials. This understanding lays the foundation for efforts to manipulate the properties of materials with the aim of improving performance and performance in various applications.

Instrumentation Physics

Instrumentation Physics is a subfield of physics that focuses on the development, design, and application of instruments or tools to perform measurements and analysis in a variety of physics contexts. This research group studies a number of topics that include the design, development, and programming of instruments, measurement techniques and methods, and the analysis and interpretation of the resulting data. Instrument development involves the design and production of the physical hardware and software required to measure and record data. This includes the development of sensors, detectors, optical devices, electronics, and control systems required to make measurements precisely and efficiently. It is important to understand the basic principles of instrument technology and its applications in various fields, including materials science, chemistry, biology, and engineering. The proper use of instruments allows scientists to observe and analyze physical phenomena, obtain accurate data, and understand the material characteristics and behavior of the system being studied.

Theoretical Physics

Theoretical Physics is a subfield of physics that focuses on the theoretical and mathematical aspects of physical phenomena. This research group studies and analyzes the basic principles underlying various physical phenomena, such as quantum mechanics, relativity theory, particle physics, cosmology, and field theory. One of the main goals of this group is to understand the fundamentals of physical phenomena and be able to model, measure, and predict the behavior of these phenomena using the language of mathematics. Mathematics is a universal language that allows physicists to construct theories that can explain observations and experiments in physics. By understanding the underlying mathematics of physical phenomena, scientists can identify patterns, predict experimental results, and develop new theories. Theoretical physics has a significant impact on advancing science. The resulting theories help guide experiments and further research.

Curriculum

The following is a complete list of courses that will be taken in each semester.

Semester 1 add remove

USU1101 Islamic Education

Learning Outcomes
1	Able to apply logical and critical thinking in the development or implementation of physics, and effectively communicate the results of studies in physics both in written and oral forms. Also capable of building networks, leading, and collaborating at various levels of roles within society.
2	Able to design experiments or theoretical reviews in physics, identify physical problems based on observations, experiments, and theoretical studies, and apply the findings to technology and communicate them to the public in accordance with scientific principles.
3	Able to explain theoretical concepts and principles of classical and modern physics, and apply fundamental physics concepts and related mathematical methods to solve physical problems and their applications.
4	Able to formulate physical phenomena and problems through analysis based on observations and experiments.
5	Able to develop mathematical or physical models in line with hypotheses or predicted impacts of the phenomena under discussion.
6	Able to analyze various alternative solutions to physical problems and draw conclusions to support sound decision-making.
7	Able to disseminate the results of studies on physical issues and phenomena in the form of reports or papers in accordance with established scientific standards.
8	Able to implement the principles and applications of mathematical physics, computational physics, advanced materials physics, and instrumentation.
9	Able to assess knowledge of physics-based technology and its applications.