2019 Light and Matter II

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Academic unit or major
Graduate major in Physics
Instructor(s)
Kanamori Hideto 
Course component(s)
Lecture
Day/Period(Room No.)
Thr3-4(H115)  
Group
-
Course number
PHY.C447
Credits
1
Academic year
2019
Offered quarter
2Q
Syllabus updated
2019/4/10
Lecture notes updated
-
Language used
English
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Course description and aims

In this course the instructor will explain the quantum theory of angular momentum through molecular spectra which are easily measured by experiments.
1) From a perspective of angular momentum, students will gain a unified understanding of freedom of motion in a molecule which is a small multibody system composed of multiple nuclei and electrons.
2) We will deal with the angular momentum of orbital electron, vibration, rotation, electron spin, and nuclear spin, as well as their coupling scheme based on quantum theory.
3) After covering some basic topics of the electronic, vibrational, and rotational states and their eigenvalues of a diatomic molecule, we will cover the fine and hyperfine structures which are originated from the interactions including the electron spin and nuclear spin.
4) The instructor will show an example of some advanced experiments that can be established only through the interaction between a single quantum state specified up to the nuclear spin quantum number and coherent electromagnetic wave.

Student learning outcomes

At the end of this course, students will be able to:
1) master the quantum theory of angular momentum including orbital electron, rotation, electron spin and nuclear spin.
2) master the interaction among those angular momenta, and understand the eigenstate and eigenvalue of molecules.
3) explain the electronic, vibrational and rotational spectra with fine and hyperfine structure as the result of the interaction with UV, IR and MW radiation.
4) understand how a single quantum molecular state can be used for the verification experiments of fundamental physics.

Keywords

molecular bond, Born-Oppenheimer approximation, molecular orbital, electronic excited state, electron configuration, UV spectrum, IR spectrum, MW spectrum, fine structure, hyperfine structure, quantum stastistics, single quantum state.

Competencies that will be developed

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

Class flow

A lecture note with several blanks is provided during class. Instead of black board, explanations are directly written on screen by a pen tablet computer. Hearing the explanation, students fill in the blanks and complete the lecture note.

Course schedule/Required learning

  Course schedule Required learning
Class 1 Electronic, vibrational, and rotational state of a diatomic molecule with single electron system Explain the Hamiltonian and its Eigen state of H2 ion, Explain the origin of molecular bond
Class 2 Electronic states of a diatomic molecule with many electron system Describe the electron configuration and its spectral term of O2 molecule.
Class 3 Interaction of electromagnetic wave and a diatomic molecule Transition moment and selection rules of electronic, vibrational, rotational transitions
Class 4 Spectroscopy of diatomic molecules Explain the information obtained from UV, IR and MW spectra
Class 5 Theory of diatomic molecules with electron spin Interaction related to electron spins and fine structure as a result
Class 6 Theory of angular momentum for diatomic molecules with electronic spin Classify the coupling scheme of angular momentum vectors according to Hunt
Class 7 Interaction related to nuclear spin and quantum statistics Understand the origin of hyperfine structure and nuclear spin weight.
Class 8 Fundamental physics using high-precision spectroscopic measurement of molecules What can we do with a single quantum state specified up to the nuclear spin quantum number ?

Textbook(s)

Lecture note is prepared during class.

Reference books, course materials, etc.

Spectra of Atoms and Molecules; Bernath (Oxford)    Molecular Quantum Mechanics; Atkins and Friedman (Oxford) 

Assessment criteria and methods

short reports during class and final exams

Related courses

  • PHY.C446 : Light and Matter I
  • PHY.C448 : Light and Matter III
  • PHY.C449 : Laser Physics

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

unspecified

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