Theoretical Physics is a subfield that focuses on the theoretical and mathematical aspects of physical phenomena, covering important areas such as quantum mechanics, relativity theory, particle physics, cosmology, and field theory. The goal is to understand and explain the fundamental principles that govern the universe, and to build accurate mathematical models to represent these phenomena. In this group, researchers study the mathematical theories that underlie physics. They explore abstract concepts such as space-time, subatomic particles, and fundamental interactions. Mathematics becomes the primary language used to model and understand the behavior of physical systems at a very fundamental level. The importance of mathematics in theoretical physics is inescapable, as it is the main tool used to formulate new theories, develop complex mathematical models, and make predictions that can be tested in experiments. Researchers in this group often undertake in-depth mathematical explorations to answer critical questions that arise in the physical sciences.

Materials Physics is a subfield that focuses its study on the physical properties of various materials, encompassing conventional materials such as metals and ceramics, as well as modern materials such as semiconductors and nanomaterials. Experts in this group study various aspects of materials, including crystal structure, mechanical, electrical, and thermal properties, as well as the interaction of materials with their surrounding environment. One of the main goals of this group is to understand the complex relationship between the structure and properties of materials. Researchers are concerned with how the internal structure and arrangement of atoms at the microscopic level affect the behavior and properties of materials at the macroscopic level. By understanding this relationship, they can plan strategies to manipulate the properties of materials to improve their performance and performance in various applications. Materials applications studied include information technology, energy, healthcare, and more. Researchers are focusing on developing new materials technologies, such as functional materials and smart materials. Functional materials have special properties that enable innovative applications, for example, in sensors, electronic devices, or energy storage. Meanwhile, smart materials can respond to their surrounding environment in a manageable way, opening up new potential for adaptive technologies.

Instrumentation Physics is a discipline that focuses its attention on the development, design, and utilization of instruments or tools to make accurate and precise physics measurements. The main focus of this group is to understand the basic principles, and develop, and improve instrument technology for applications in various disciplines such as materials science, chemistry, biology, and engineering. In this group, researchers study important aspects such as instrument design, development of new tools, and instrument programming to ensure measurement accuracy and reliability. They also focus their attention on developing more efficient and accurate measurement methods and techniques, with the aim of obtaining precise and informative data. The measurement methods and techniques developed by this group vary widely, covering mechanical, optical, electrical, magnetic, thermal, and other measurements. The goal is to create instruments that can be used to measure various physical phenomena with high accuracy so that the measurement results can be relied upon for further analysis and interpretation. In addition to the development of existing instruments, the group also researches and develops new instruments with more advanced technology. This includes exploring the latest technologies such as advanced sensors, fast data processing devices, and the integration of artificial intelligence technology to improve instrument performance.