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Teacher name : HASHIMOTO Hideki
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Academic year
2025Year
Term
Second Semester
Course title
Physical Properties of Inorganic Solids
Class type
Lecture
Course title (ENG)
Physical Properties of Inorganic Solids
Class code・Class name・Teaching forms
Z1300009 Physical Properties of Inorganic Solids
Instructor
HASHIMOTO Hideki
Credits
2.0Credits
Day and Time
Thu.3Period
Campus
Hachioji Campus
Location
1N-401講義室
Relationship between diploma policies and this course
A) A high degree of specialized expertise 100%
B) The skills to use science and technology 0% C) The ability to conduct research independently, knowledge pertaining to society and occupations, and sense of ethics required of engineers and researchers 0% D) Creative skills in specific areas of specialization 0% Goals and objectives
Inorganic solid materials are used in various fields such as energy, environment, electronics, information, medical care. For creating inorganic solid materials, it is necessary to understand the mechanism of their physical properties. The course provides the knowledge about the physical properties (thermal conduction, electric conduction, optical property, and magnetic property, etc.) of inorganic solids from the viewpoint of crystal structure and behavior of atoms and electrons.
Prerequisites
Having an interest in physical properties of inorganic solids
Method Using AL・ICT
Not used
Class schedule
1. Crystal structure
Lattice, unit cell, crystal structure, amorphous and liquids 2. Reciprocal space k-space, reciprocal lattice, coordinate of reciprocal lattice, X-ray diffractometry 3. Quantum mechanics Basic of quantum mechanics, harmonic oscillator, angular momentum, spin, electronic state of atom 4. Bonds in solids Molecular bond, ionic bond, covalent bond, metallic bond, van der Waals bond, hydrogen bond 5. Lattice vibration 1D lattice vibration, 3D lattice vibration, phonon 6. Lattice specific heat, thermal conduction Formulation of lattice specific heat, specific heat at high temperature, definition and mechanism of thermal conduction 7. Free electron theory Free electron model, electronic state in box, Fermi statistics, density of state and Fermi distribution, electronic heat specific 8. Energy band General, band of empty lattice, band of free electron, pseudopotential method 9. Band theory Classification of metal and insulator, electron motion in k-space, hole, crystal momentum, Fermi surface 10. Electrical conduction Classical electrical conduction, Hall effect, temperature dependence of electrical resistance, electrical conduction in k-space 11. Optical property Electromagnetism, optical properties of metal and insulator, band absorption in semiconductors 12. Magnetic property Magnetic moment, paramagnetism, diamagnetism, ferromagnetism 13. Semiconductors Band structure, energy distribution of electrons and holes, extrinsic semiconductors, effective mass theory, p-n junction 14. Final report 15. Reviewing of the course Evaluation
Attendance and quizzes using the learning management system: 50%
Term paper: 50% Feedback for students
Feedback on e-mail or KU-LMS
Textbooks
Electronic materials will be uploaded using the learning management system
Reference materials
固体物理学 岡崎誠著 裳華房,キッテル固体物理学入門 上・下 丸善,ウエスト固体化学 基礎と応用 講談社
Office hours and How to contact teachers for questions
Second period on Wednesday
Room: 17-251 E-mail: st13523@ns.kogakuin.ac.jp Message for students
Students can attend from any department.
Although the knowledge of difficult mathematics and physics can be needed in understanding mechanism of physical properties of inorganic solids, the main aim of this course is to understand it in a qualitative manner from the viewpoint of materials chemists. Please contact before the lecture, if you absent from the class due to conference and so on. Course by professor with work experience
Not applicable
Work experience and relevance to the course content if applicable
Teaching profession course
Applied Chemistry and Chemical Engineering Program
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