PLEASE NOTE: The content of modules and the lecturers' names stated below are indicative only.  The content is subject to small changes, and lecturers may have to be replaced from year-to-year, or at short notice for some other reason.  Whilst we intend to run all these modules, please note that we may occasionally have to cancel a module.  If we have to cancel a module, students who are registered for that module will be contacted and offered an alternative. The dates for any given module on this website may be provisional until a month before the start of the module.

 

READING LIST for course in general and for specific modules

 

For a chronological list of Core (Modules 1-4) and Advanced (Modules 5-8) Modules, please see the Course Calendar.

 

Core Modules 2012

Module 1: Mathematical and Technical Prerequisites

9-13 January 2012

Assignment due: 12 noon, 13 February 2012

Module 2: Black Scholes Theory

12-16 March 2012

Assignment due: 12 noon, 16 April 2012

Module 3: Extensions of the Black-Scholes Framework

23-27 April 2012

Assignment due: 12 noon, 28 May 2012

Module 4: Exotic Options and Advanced Modelling Techniques

25-29 June 2012

Assignment due: 12 noon, 30 July 2012 

Advanced Modules (2011-12)

Module 6: Advanced Numerical Methods

29 November-2 December 2011

Assignment due: 12 noon, 3 January 2012

Module 7: Quantitative Risk Management

8-10 & 12 March 2012

Assignment due: 12 noon, 16 April 2012

Module 8: Advanced Modelling Topics 2 (Credit, Energy, More Interest Rates)

17 - 20 April 2012

Assignment due: 12 noon, 21 May 2012

Advanced Modules 2012-13

Module 5: Advanced Modelling Topics 1 (Equity, FX, Interest Rates) (Provisional dates)

18-21 September 2012

Assignment due: 12 noon, 5 November 2012

Module 6: Advanced Numerical Methods (Provisional dates)

27-30 November 2012

Assignment due: 12 noon, 14 January 2013

Short Courses (Advanced Modules only)

Form for registration of interest in attending Short Course

 

Module 1 Mathematical and Technical Prerequisites

  • Probability: basics, review of discrete and continuous random variables, properties,important distributions, measure theory, change of measure, convergence of random variables, limit theorems
  • Statistics: review of sampling and estimation, parameter estimation, regression techniques, tests for normality, QQ plots, Bayesian techniques, elementary principal components analysis
  • PDEs: parabolic partial differential equations; heat equation, link to random walks, similarity solutions, Fourier transform; qualitative properties of solutions, maximum principles, smoothness
  • Introduction to Matlab: basics, plotting, implementation of elementary numerical concepts applied to finance
  • Binomial trees, discrete martingales: one-period and multi-period binomial stock price models, arbitrage pricing of options on trees
  • Portfolio theory, utility: expected returns, variance and covariances, benefits of diversification, the opportunity set, efficient frontiers and the Sharpe ratio, utility, risk aversion, optimal investment, convex duality
  • Stochastic calculus: Brownian motion, constructions, non-differentiability, quadratic variation, stochastic integration, construction of Ito integral and properties, the Ito formula
  • SDEs: random walks in continuous time, strong and weak solutions, expectations of solutions

Timetable for module 1

Link to course material for module 1

Back to Core modules (includes module dates)

Module 2 Black-Scholes Theory

  • The Black-Scholes model: stochastic differential equation for the asset price in continuous time, the delta-hedged portfolio and self-financing replication, risk-neutral valuation, the Black-Scholes PDE and solutions
  • Hedging, Greeks: delta, gamma, theta; vega, rho as out-of-model hedges; less common sensitivities
  • Extensions of Black-Scholes: discrete and continuous dividend payments; time-dependent volatility, dividends and interest rates
  • Basic exotic options: general payoffs, options on futures, pay-later options; multi-stage options, forward-start options, ratchets, compound options, choosers
  • Multi-factor problems, quantos, FX and basket options
  • Elementary stochastic differential equations, transition density functions, Feynman-Kac formula, Kolmogorov equations, exit times and hitting probabilities, Girsanov's theorem, maximum/minimum of Brownian motion
  • Martingale methods in discrete and continuous time, martingale representation theorem
  • Explicit and implicit finite difference schemes, implementation, accuracy and stability, Greeks and smoothing schemes; workshop
  • Introduction to the term structure of interest rates, bond price equilibria, duration and convexity, caps, floors, swaps
  • Overview of instruments in rates markets, interpolation of yield curves and volatility term structures, bootstrapping

Lecturers

  • Dr Jamil Baz
  • Dr Jeff Dewynne
  • Dr Greg Gyurko
  • Dr Ben Hambly
  • Dr Hanqing Jin
  • Dr Jan Obloj
  • Dr Christoph Reisinger
  • Mr Jan Witte
  • Mr Thomas Hosking

Timetable for Module 2

Link to course material for module 2

Back to Core modules (includes module dates)

Module 3 Extensions of the Black-Scholes Theory

  • Girsanov's theorem, maximum/minimum of Brownian motion
  • Introduction to Monte Carlo: uniform random number generators, sampling non-uniform distributions, implementation of MC methods, simple variance reduction techniques, workshops
  • American options: early exercise, linear complementarity problem, perpetual put, free boundary formulation, smooth pasting
  • Finite differences for American options: explicit methods, projected itertations, a penalty method; workshop
  • Asset allocation: one-period and multi-period discrete portfolio optimisation, continuous trading, Merton problem, stochastic control, Hamilton-Jacobi-Bellmann equations, martingale interpretation of dynamic programming, consumption
  • Asset pricing: equivalent measures, martingale measures, numeraires, risk-neutral pricing, market price of risk, arbitrage pricing in binomial models,completeness, trinomial trees, fundamental theorems of asset pricing in discrete and continuous time, stopping times and American options
  • Interest rate trees, the role of numeraires for interest rate derivatives
  • Models for the short rate, use and calibration: Vasicek, CIR, Hull-White, BDT, Ho-Lee

Timetable for Module 3

Link to course material for module 3

Back to Core modules (includes module dates)

Module 4 Exotic Options and Advanced Modelling Techniques

  • Barrier options: down-and-out and other barrier contracts, intermittent sampling, American digitals, reflection principle
  • Further exotic options: Asians, rate and strike options, similarity reductions, discretely sampled options and jump conditions; lookbacks, continuous and discrete sampling, probabilistic methods via reflection
  • Monte Carlo for exotic options: continuity corrections for discretely sampled paths for barriers and lookbacks; correlation and basket options; variance reduction; workshop
  • Implied and local volatility, Shimko's method and Dupire's formula; stochastic volatility models: stylised facts, econometric models, complete stochastic volatility models; two-factor models, hedging and market completion, special cases
  • Jump diffusion and Levy processes: Poisson and Cox process, Ito with jumps, Merton's model; Levy processes, hedging and pricing jump-risk, characteristic functions
  • Yield curve modelling, market models (HJM, LMM)
  • Practicalities of pricing and hedging interest rate products; SABR; running a swaps desk; managing exotics
  • Practicalities of FX and equity derivatives pricing, calibration and implementation

Timetable for Module 4

Link to course material for module 4

Back to Core modules (includes module dates)

Module 5: Advanced Modelling Topics 1 (Equity, FX, interest rates)

  • Asymptotic methods
  • VIX and related volatility products
  • Time series analysis of financial data
  • Hybrid interest rate products: implementation and calibration

Timetable for module 5 2011

Link to course material for module 5

Back to Advanced modules (includes module dates)

Module 6: Advanced Numerical Methods

  • Finite differences
  • Fourier methods
  • Monte Carlo Greeks, multi-level
  • Jumps [PIDEs], Asians, multigrid
  • Monte Carlo case studies: variance reduction, Levy processes....
  • Advanced Monte Carlo and QMC techniques
  • Multi-factor problems, ADI, sparse grids, QMC, PCA
  • C++ workshop
  • Optimisation

Timetable for Module 6 2011

Link to course material for Module 6

Back to Advanced modules (includes module dates)

Module 7: Quantitative Risk Management

Overview of module content

  • Risk management in financial institutions
  • Taxonomy of risks, risk measurement [VaR, coherent measures,...]
  • Utility pricing, incomplete markets
  • Behavioural finance
  • Regulation (capital requirements, Basel accord)
  • Model uncertainty, applications of Bayesian nets to stress testing and risk management

Timetable for Module 7 2012

Link to Course Material for Module 7

Back to Advanced modules (includes module dates)

Module 8 Credit, Energy, More Interest Rates

Overview of course content

  • Credit risk models and correlation products
  • Energy derivatives, electricity markets and energy risk management
  • Natural gas markets and derivatives
  • Advanced interest rate modelling (SABR-LIBOR market models)

Link to course material for module 8

Timetable for Module 8 2012

Back to Advanced modules (includes module dates)

 

Form to register interest in attending a module as a short course