課程資訊
課程名稱
量子力學二
Quantum Mechanics (Ⅱ) 
開課學期
113-2 
授課對象
天文物理研究所  
授課教師
裴思達 
課號
Phys7015 
課程識別碼
222EM1420 
班次
02 
學分
4.0 
全/半年
半年 
必/選修
選修 
上課時間
星期二9,10(16:30~18:20)星期四9,10(16:30~18:20) 
上課地點
新物112新物112 
備註
本課程以英語授課。
限學號雙號
總人數上限:70人 
 
課程簡介影片
 
核心能力關聯
核心能力與課程規劃關聯圖
課程大綱
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課程概述

Introductory Course on General Relativity, aiming at advanced undergraduates and beginning graduate students. 

課程目標
Introduction to Differential Geometry, Riemannian Geometry, Einstein Equation and its various solutions, black holes and gravitational waves, applications to cosmology if possible. 
課程要求
Pre-requisites: Classical Mechanics, Electromagnetism, Special Relativity, Partial Differential Equations, knowledge about differential geometry and Lie groups is useful. 
預期每週課前或/與課後學習時數
 
Office Hours
 
指定閱讀
 
參考書目
待補 
評量方式
(僅供參考)
 
  1. 本校建議 A+ 比例上限為 20% ,非強制規定,授課教師可依課程要求調整,建議必修課程參考。
  2. 本校採用等第制評定成績,學生成績評量辦法中的百分制分數區間與單科成績對照表僅供參考,授課教師可依等第定義調整分數區間。詳見學習評量專區 (連結)。
 
針對學生困難提供學生調整方式
 
上課形式
以錄影輔助, 提供學生彈性出席課程方式
作業繳交方式
考試形式
其他
課程進度
週次
日期
單元主題
Week 1
Feb/17  - Summary of QM-I
- Approximation Methods: Time Independent Perturbation Theory, Non-Degenerate case. 
Week 2
Feb/24  - PT Problems and Solutions
- Approximation Methods: Time Independent Perturbation Theory, Degenerate case.
- Example1: The Linear Stark Effect 
Week 3
Mar/3  - Example2: Fine Structure Corrections:
1. Relativistic Correction
2. Spin Orbit Correction
3. Non-Local correction (attempt to introduce in a novel way) 
Week 4
Mar/10  - Examples: Zeeman effect, PT problems and solutions.
- Lamb shift (if time allows).
- Time dependent Potentials
- Two state system with V(t)
- Spin Magnetic Resonance
- Maser 
Week 5
Mar/17  - Time dependent Perturbation Theory: Dyson Formula
- Transition probability
- Constant perturbation: Fermi's Golden Rule
 
Week 6
Mar/24  - Harmonic Perturbation
- Applications to Interactions with the Classical Radiation Field (1)
o Absorption and Stimulated emission
o Gauge Invariance and EM field A - electron current J interaction
 
Week 7
Mar/31  - Applications to Interactions with the Classical Radiation Field (1)
o Absorption and Stimulated emission
o Gauge Invariance and EM field A - electron current J interaction
- Applications to Interactions with the Classical Radiation Field (2)
o Electric Dipole Approximation
o Photoelectric Effect
 
Week 8
Apr/7  - Applications to Interactions with the Classical Radiation Field (2)
o Spontaneous Emission
o Energy shift and Decay shift


- Midterm (Thursday Apr/10th)

 
Week 9
Apr/14  - Scattering Theory (1)
o Definition of the scattering problem
o Solving the t-independent Schrodinger for the scattering problem
o Derivation of the (physical) propagator
o Born Approximation

- Scattering Theory (2)
o Lippmann-Schwinger Equation, S-matrix, T-matrix
 
Week 10
Apr/21  o Cross-section
o Optical Theorem
o Born Examples: Yukawa scattering, Rutherford scattering.
 
Week 11
Apr/28  - Scattering Theory (3)
o Spherical waves, Radial solutions, Asymptotic form of Bessel and Neumann functions.
o Phase Shifts and Partial Waves. Partial wave Scattering Matrix, partial wave scattering amplitude
o Determining the Phase shifts.
o Hard-Sphere scattering (low energy limit)

 
Week 12
May/5  - Scattering Theory (4): examples
o High energy limit: the Eikonal Approximation
o Scattering amplitude in the Eikonal Approximation
o Hard-Sphere scattering (Eikonal Approximation)
o Bound States
 
Week 13
May/12  - Scattering Theory (5): Summary
o Analyticity of S-matrix
o Resonance Scattering

- Quantum Fields (Sakurai 7.7)
o Second Quantization Fock Space
o Quantization of the EM field. Maxwell’s Equations

 
Week 14
May/19  - Relativistic QM: Klein Gordon Equation