Course10410813256 lectures
Time Dependent Quantum Chemistry
Prof. Atanu Bhattacharya · GITAM Visakhapatnam
About
In our current course curriculum, except for time-dependent perturbation theory, physical chemistry students are not introduced to the time dependent quantum chemistry at all. This creates a big knowledge gap in students working on chemical dynamics, spectroscopy, and ultrafast spectroscopy fields. Objective of this course is to fulfil the knowledge gap not only by introducing the subject to them, but also by helping them use numerical methods to practically deal with some selected time-dependent quantum chemistry problems.
Intended audience: Physics/Chemistry UG PG students
Prerequisites: Must have a fair idea of postulates of quantum mechanics (as given in Quantum Chemistry or Physical Chemistry book by McQuarrie).INDUSRTY SUPPORT: Industries where quantum theory is extensively used.INTENDED AUDIENCE: Physics/Chemistry UG PG students
Lectures
Week 1 - Module 1 (Introduction)
- Introduction to TDSE
- Solution to TDSE, Stationary and Non-stationary States
- Electron and Vibrational Superposition States
- Optical Analogy to Quantum Superposition
- Introdution to Python Programming
- Simple Computation with Python Programming
- Plotting Graph with Python Programming
Week 2 Module 2 (Quantum-Classical Correspondence)
- Meaning of Probability Density
- Time Evolution of Normalization Constant
- Expectation Value and its Time Evolution
- Equation of Continuity
- Bohmian Mechanics
- Bohmian Mechanics and Standard Interpretation
- Grid Representation of Wavefunction
- Normalizing the Discretized Wavefunction and Finding Expectation Value
Week 3 Module 3 (Translational Motion)
- Plane Matter Wave and Wavepacket
- Wavepacket
- Stationary Gaussian Wavepacket
- Travelling Gaussian Wavepacket
- General Form of the Gaussian Wavepacket
- Fourer Transform of a wavefunction
- x-grid to k-grid
- Fourier Transform using fft
Week 4 Module 4 (Quantum Mechanics and Linear Algebra)
- Hilbert Space and Its Properties
- Basis Set Approach to Quantum Mechanics
- Matrix Algebra
- Eigenvalue and Eigenfunction
- Matrix Representation of Operators
- Matrix Representation of Hamiltonian Operator
- Diagonalizing Matrix
- Diagonalizing Tridiagonal Matrix
Week 5 Module 5 (Numerical Solution to TDSE)
- Time Evolution Operator
- Split Operator Metho
- Numerical Implementation of Split Operator Method
- Wavepacket Dynamics under zero interaction potential
- Wavepacket Dynamics under zero interaction potential continued
- Wavepacket Dynamics under linear interaction potential
Week 6 Module 6 (Adiabatic Theory)
- Quantum Adiabatic Theory
- Formal Derivation of Quantum Adiabatic Theory
- Geometric Phase and Dynamical Phase
Week 7 Module 7 (Nonradiative Transition) Part 1
Week 8 Module 8 (Nonradiative Transition)Part2
- Quantum Dissipative Dynamics
- Quantum Dissipative Dynamics cont
- Formal Derivation of Dissipative Quantum Dynamics
Week 9 Module 8 (Light-Atom Interaction), Part 1
Week 10 Module 8 (Light-Atom Interaction), Part 2
- Master Equation of Light
- Hamiltonian for Light-Atom Interaction
- Hamiltonian for Light-Atom Interaction
Week 11 Module 8 (Light-Atom Interaction), Session 5
Week 12 Module 9 (Time Domain Appraoch to Spectroscopy), Session 1
Syllabus and materials
At NPTEL, as the course publishes them.
Credits and licence
- Institution
- GITAM Visakhapatnam
- Department
- Chemistry and Biochemistry
- Teacher
- Prof. Atanu Bhattacharya
- Level
- Graduate
- Language
- English
- Subjects
- Chemistry
- Source
- NPTEL
- Licence
- CC BY-NC-SA, as NPTEL states it. Non-commercial use only. NPTEL's terms
- Attribution
- NPTEL states: "Distributed under Creative Commons Attribution-ShareAlike / CC BY - NC - SA", beside a BY-NC-SA badge. Coordinated by IISc Bangalore.
- Who can watch
- NPTEL gives no rating. Invisible Network shows it to Tweens profiles and older, judged from what the source says about it. How courses are placed
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