English
Chairman: Assoc. Prof. Dr. Adam Badra Cahaya
The Quantum, Magnetic, and Ionic Physics Research Group (QuMI-Phys Group) was established in accordance with Universitas Indonesia Rector’s Regulation No. 6 of 2025 concerning Research Groups/Laboratories at Universitas Indonesia. This initiative aims to optimize research, which is a fundamental pillar in advancing science and technology. This research group represents a collaboration of faculty members actively engaged in the field of Condensed Matter and Materials Physics, combining experimental, theoretical, and computational approaches. The group focuses on exploring the rich interplay between quantum phenomena, magnetic interactions, and ionic transport mechanisms in solid-state materials.
Quantum, magnetic, and ionic physics all play crucial roles in solid-state devices, impacting their functionality and design. Quantum mechanics is fundamental for understanding the behavior of electrons and their interactions within materials, while magnetism influences materials’ magnetic properties and their interaction with magnetic fields. Ionic physics, lastly, governs the motion and behavior of ions within materials, particularly in devices like batteries and sensors.
is recommended to have good grade in the following compulsory course:
- Introduction to Solid State Physics (Pendahuluan Fisika Zat Padat)
- Introduction to Materials Science (Pendahuluan Ilmu Material)
- Characterization Methods of Material (Metode Karakterisasi Material)
- Thermodynamics of Materials (Termodinamika Material)
- Capita Selecta on Advanced Material (Kapita Selekta Material Maju)
- Magnetism (Kemagnetan)
- Spectroscopy A & B (Spektroskopi A & B)
- Solid State Ionics (Fisika Zat Padat Ionik)
- Computation of Materials (Komputasi Material)
- Nonrelativistic Quantum Field Theory (Teori Medan Kuantum Nonrelativistik)
may pursue appropriate programs, based on their background and career options (each program also has “by research path” option focusing on research)
Compulsory courses in by course path of Master Program in Materials Science includes:
- Structure Material
- Material Properties and Performance
- Thermodynamics and Material Kinetics
- Characterization and Material Analysis
Compulsory courses in by course path of Master Program in Physics, includes:
- Computational Methods and Mathematics
- Physics Methodology
- Integrated Science and Mathematics
Compulsory courses in by course path of Doctoral Program in Material Science includes:
- Scientific Literacy
- Advanced Material Structure
- Philosophy of Science
- Advanced Material Properties and Performance
- Integrated Science and Mathematics
- Advance Material Characterization and Analysis
- Advanced Thermodynamics and Kinetics of Materials
Compulsory courses in by course path of Doctoral Program in Physics includes:
- Integrated Science and Mathematics
- Research Methodology
- Capita Selecta Physics A & B
- Philosophy of Science and Literature Review
- Scientific Writing
Quantum mechanics explains how electrons move and interact within solid materials, including phenomena like electron transport, band structure, and the formation of quantum wells and dots. Quantum mechanics is essential for designing and understanding quantum devices like quantum dots, which can be used for quantum computing, sensing, and optical applications. Our research interest focuses on developing theoretical explanations of transport, magnetic, and optical properties of strongly correlated electron systems. (Former Theoretical/Computational Condensed Matter Physics lab)
Understanding magnetism is crucial for designing magnetic materials like ferromagnets, which are used in magnetic storage devices, sensors, and actuators. Quantum magnetism plays a role in understanding the interactions between magnetic moments in materials, which can lead to novel magnetic phenomena and functionalities. (former micromagnetic, magnetic materials and characterization labs)
Ionic physics governs the movement of ions through solid electrolytes, including materials such as perovskite oxides and halides, which are essential for energy storage and transduction applications. Understanding ionic conductivity is crucial for designing and optimizing devices like batteries, fuel cells, and ionic sensors.
