2019 Quantum Physics in Optical Response of Materials

Font size  SML

Register update notification mail Add to favorite lecture list
Academic unit or major
Graduate major in Materials Science and Engineering
Instructor(s)
Nakamura Kazutaka 
Course component(s)
Lecture
Day/Period(Room No.)
Mon1-2(G111)  Thr1-2(G111)  
Group
-
Course number
MAT.C402
Credits
2
Academic year
2019
Offered quarter
2Q
Syllabus updated
2019/3/18
Lecture notes updated
-
Language used
English
Access Index

Course description and aims

This course gives fundamentals of quantum mechanical description for interaction between light and matter. The students learn description of quantum state using state vectors, equation of motions with three pictures, harmonic oscillators, coherent states. In addition, recent research results of coherent control will be presented.

The aim of this course is to understand the light matter interaction using quantum mechanical description.

Student learning outcomes

By the end of this course, students will be able to:
1) describe photo induced process in materials by using quantum mechanics
2) solve typical problems on light-matter interaction.

Keywords

Quantum mechanics, light matter interaction, non-linear spectroscopy, LASER

Competencies that will be developed

Intercultural skills Communication skills Specialist skills Critical thinking skills Practical and/or problem-solving skills
- - - -

Class flow

After the lecture on topics, the exercise are sometimes presented. By solving problems in exercise terms, students can evaluate their understanding.

Course schedule/Required learning

  Course schedule Required learning
Class 1 Time evolution of quantum state Learn the equation of motion for a quantum system i.e. Shrodinger, Heisenberg, and Interaction pictures. Learn the equation of motion for a quantum system i.e. Shrodinger, Heisenberg, and Interaction pictures. A quantum system is described using a state vector.
Class 2 Density operator Learn how to describe the system with a density matrix; time evolution of density matrix and Feynman diagram.
Class 3 Exercise of time evolution of quantum state Learn the equation of motion for a quantum Exercise of time evolution of quantum state by solving problems.
Class 4 Exercise of density operator Exercise of density operator by solving problems.
Class 5 Harmonic oscillator Describe harmonic oscillator as quantum mechanics and learn on creation/annihilation operators and number states.
Class 6 Coherent state Learn the coherent states; definition and character.
Class 7 Squeezed state Learn the squeezed states; definition and character.
Class 8 Exercise of quantization of electromagnetic field Exercise of harmonic oscillator, coherent state, and squeezed state.
Class 9 One dimensional lattice vibration Learn the .lattice vibration in one dimensional chain
Class 10 Field quantization and phonon Learn the field quantization of one-dimensional lattice vibration and phonon.
Class 11 Coherent phonons: Experiment of ultrafast spectroscopy Learn the coherent phonons and experiment with ultrafast spectroscopy.
Class 12 Coherent phonons: Theory Learn how to treat coherent phonon with quantum mechanics
Class 13 Time evolution of coherent-phonon amplitude Learn the time evolution of coherent-phonon amplitude
Class 14 Nonlinear spectroscopy of optical phonons with the four level system Learn the nonlinear spectroscopy of optical phonons with the four-level system.
Class 15 Summary of lecture and check understanding Check each understanding on the quantum descriptin for the light matter interaction.

Textbook(s)

I am planning to lecture along the book "Quantum Phononics" by K. Nakamura (Springer, 2019).
However, students can study using the following reference books instead of the above book.

Reference books, course materials, etc.

"Modern Quantum Mechanics" by J.J. Sakurai and J.J. Napolitano (Pearson Education Limited 2014) ISBN 10:1-292-02410-0
"Introductory Quantum Optics" by C. C. Gerry and P. L. Knight (Cambridge University Press, 2005) ISBN 978-0-521-52735-4
"Quantum Field Theory of Solids" by H. Harken (North-Holland Publishing, 1976)
"Principles of Nonlinear optical spectroscopy" by S. Mukamel (Oxford University Press 1995) ISBN 0-190509278-3

Assessment criteria and methods

Students are evaluated whether they understand the quantum description of the light matter interaction based on the score of the test and exercises.

Related courses

  • MAT.A203 : Quantum Mechanics of Materials
  • PHY.Q435 : Quantum Information

Prerequisites (i.e., required knowledge, skills, courses, etc.)

Students are required to take the credits on "Quantum Physics" or "Quantum Chemistry" or related subjects in undergraduate courses.

Page Top