Math 2.0

Resources / course

Mathematical Portfolio Theory GYFEXAM96J

URIm2://res/GYFEXAM96J
Kindcourse
CreatorsSiddhartha Pratim Chakrabarty (instructor)
Date2020-05-21
Scopein
Idscourse 0022nd079:111103137

Expressions

e1: edition

Languageen
Date2020-05-21
Contents
  • part 1: Week 1: Basics of Probability Theory
  • session 1: Lecture 1: Probability space and their properties, Random variables
  • session 2: Lecture 2: Mean, variance, covariance and their properties
  • session 3: Lecture 3:  Linear regression; Binomial and normal distribution; Central Limit Theorem
  • part 2: Module 2: Basics of Financial Markets
  • session 4: Lecture 4 :  Financial markets
  • session 5: Lecture 5 : Bonds and stocks
  • session 6: Lecture 6 : Binomial and geometric Brownian motion (gBm) asset pricing models
  • part 3: Module 3: Mean-Variance Portfolio Theory-I
  • session 7: Lecture 7 : Expected return, risk and covariance of returns
  • session 8: Lecture 8 : Expected return and risk of a portfolio; Minimum variance portfolio
  • session 9: Lecture 9 : Multi-asset portfolio and Efficient frontier
  • part 4: Module 4: Mean-Variance Portfolio Theory-II
  • session 10: Lecture 10 : Capital Market Line and Derivation of efficient frontier
  • session 11: Lecture 11 : Capital Asset Pricing Model and Single index model
  • session 12: Lecture 12 : Portfolio performance analysis
  • part 5: Module 5: Non-Mean-Variance Portfolio Theory-I
  • session 13: Lecture 13 : Utility functions and expected utility
  • session 14: Lecture 14 :  Risk preferences of investors
  • session 15: Lecture 15 : Absolute Risk Aversion and Relative Risk Aversion
  • part 6: Module 6: Non-Mean-Variance Portfolio Theory-II
  • session 16: Lecture 16 : Portfolio theory with utility functions
  • session 17: Lecture 17 : Geometric Mean Return and Roy's Safety-First Criterion
  • session 18: Lecture 18 : Kataoka's Safety-First Criterion and Telser's Safety-First Criterion
  • part 7: Module 7: Non-Mean-Variance Portfolio Theory-III
  • session 19: Lecture 19 : Semi-variance framework
  • session 20: Lecture 20 : Stochastic dominance; First order stochastic dominance
  • session 21: Lecture 21 : Second order stochastic dominance and Third order stochastic dominance
  • part 8: Module 8: Optimal Portfolio and Consumption-I
  • session 22: Lecture 22 : Discrete time model and utility function
  • session 23: Lecture 23 : Optimal portfolio for single-period discrete time model
  • session 24: Lecture 24 : Optimal portfolio for multi-period discrete time model; Discrete Dynamic Programming
  • part 9: Module 9: Optimal Portfolio and Consumption-II
  • session 25: Lecture 25 : Continuous time model; Hamilton-Jacobi-Bellman PDE
  • session 26: Lecture 26 : Hamilton-Jacobi-Bellman PDE; Duality/Martingale Approach
  • session 27: Lecture 27 : Duality/Martingale Approach in Discrete and Continuous Time
  • part 10: Module 10: Bond Portfolio Management
  • session 28: Lecture 28 : Interest rates and bonds; Duration
  • session 29: Lecture 29 : Duration; Immunization
  • session 30: Lecture 30 : Convexity; Hedging and Immunization
  • part 11: Module 11: Risk Management
  • session 31: Lecture 31: Quantiles and their properties
  • session 32: Lecture 32:  Value-at-Risk and its properties
  • session 33: Lecture 33: Average Value-at-Risk and its properties
  • part 12: Module 12: Applications with market data
  • session 34: Lecture 34: Asset allocation
  • session 35: Lecture 35: Portfolio optimization
  • session 36: Lecture 36: Portfolio optimization with constraints, Value-at-Risk: Estimation and backtesting
  • part 13: Live Session
  • session 37: Live Session 07-10-2020
  • session 38: Live Session 10-11-2020
  • session 39: Live Session 01-12-2020

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