Financial Math Three

This is the third in a series of three short courses on financial mathematics that take participants from pre-calculus to stochastic calculus. Like all three courses of the series, Math 3 combines self-study with three days of lectures.

Self study focuses on reviewing and mastering concepts learned in Math 2—linear algebra and probability theory. Lectures build on these foundations, exploring statistics, time series analysis, and stochastic calculus in depth.

The treatment of stochastic calculus includes basic definitions, stochastic differentials, Ito's lemma, stochastic integration, and stochastic differential equations. The goal is to get beyond the notation and provide a firm grasp of what the mathematics means. Students come away understanding intuitively what a stochastic differential equation tells them. They gain sufficient knowledge to apply stochastic calculus in subsequent financial engineering courses.

Financial applications covered in Math 3 include

optimal hedge ratios,

dynamic hedging,

efficient markets,

the capital asset pricing model,

Black-Scholes theory.

Option pricing theory arises frequently throughout the lectures. It is a unifying application that naturally motivates and builds towards an understanding of stochastic calculus.

Prerequisites are either completion of Math 1 and Math 2 or in-depth knowledge of the math covered in those courses. While Math 1 and 2 cover the basic math any financial professional should know, Math 3 is more advanced and more applied. Here, we cover specific techniques of applied math used by analysts, financial engineers, and risk managers every day on the job. In this respect, Math 3 is a culmination of the more basic work of Math 1 and Math 2.

More Information

Sample slides from the course

Sample exercises from the course

  

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Training for Individuals – Schedule & Fees.

Training for Groups – Contact Us to Schedule.

Self-Study Syllabus

Matrix Computations

Partial Derivatives

Probability Distributions

Random Vectors

Lectures Syllabus

Day One

Statistics

Point Estimation

Determinants

Linear Independence

Singular Matrices

Eigenvalues and Eigenvectors

Optimizing Quadratic Forms

Method of Least Squares

Optimal Hedge Ratios

Dynamic Hedging

Day Two

Maximum-Likelihood Estimators

Time Series Analysis

White Noise, MA, AR and ARMA Processes

Efficient Markets

Capital Asset Pricing Model

Black-Scholes Theory

Fitting a Stochastic Process to Data

Differential Equations

Separable Equations, Exact Equations, and Integrating Factors

Day Three

Random Walks and Weiner Processes

Stochastic Differentiation

Ito's Lemma

Black-Scholes Option Pricing Formula

Stochastic Integration

Stochastic Differential Equations

Derivatives Pricing

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