Financial Market Analytics
By: John L. Teall
Westport, CT: Quorum Books
, 1999
ISBN: 1-56720-198-9
316 pages, Hard Cover
HG4515.T43 1999
332.6'0151 - dc21 |
ABOUT THE BOOK
From The Publisher
A variety of quantitative concepts
and models essential to understanding financial markets are introduced and
explained in this broad overview of financial analytical tools. Coverage ranges
from matrices and elementary calculus to stochastic processes, with applications
to a wide range of financial topics.Practitioners, researchers, and advanced
students of finance will find these tools invaluable.
Review From Booknews
Provides background reading in
elementary mathematics topics used in financial analysis, for readers with
limited exposure to statistics, calculus, and matrix mathematics. Coverage
includes discussions related to portfolio management, derivatives valuation,
corporate finance, and fixed income analysis. Material is organized by quantitative
topic rather than financial topic, and mathematics concepts are reinforced
through application to topics in finance. Includes chapter exercises to be
completed with a basic calculator, plus answers, statistics tables, and a
glossary. Annotation c. by Book News, Inc., Portland, Or.
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Table of Contents
Preface
1 Introduction and Overview
1.A Analytics and the Scientific
Method in Finance
1.B Financial Models
1.C Empirical Studies
1.D Research in Finance
1.E Applications and Organization
2 Preliminary Analytical Concepts
2.A Time Value Mathematics
2.B Geometric Series and Expansions
Application 2.1 Annuities and Perpetuities
Application 2.2 Growth Models
Application 2.3 Money and Income Multipliers
2.C Return Measurement
2.D Mean, Variance and Standard
Deviation
Application 2.4 Risk Measurement
2.E Comovement Statistics
Application 2.5 Security Comovement
2.F Introduction to Simple
OLS Regressions
Application 2.6 Relative Risk Measurement
3 Elementary Portfolio Mathematics
3.A Introduction to Portfolio
Analysis
3.B Single Index Models
3.C Multi-index Models
4 Matrix Mathematics
4.A Matrices, Vectors and
Scalars
Application 4.1 Portfolio Mathematics
4.B Addition, Subtraction
and Transposes of Matrices
4.C Multiplication of Matrices
Application 4.1 (continued) Portfolio Mathematics
4.D Inversion of Matrices
4.E Solving Systems of Equations
Application 4.2 Coupon Bonds and Yield Curves
Application 4.3 Arbitrage with Riskless Bonds
Application 4.4 Fixed Income Portfolio Dedication
4.F Vectors, Vector Spaces
and Spanning
Application 4.5 The State Preference Model
Application 4.6 Binomial Option Pricing
Application 4.7 Put-Call Parity
4.G. Orthogonal Vectors
Application 4.8 Arbitrage Pricing Theory
5 Differential Calculus
5.A Functions and Limits
Application 5.1 The Natural Log
5.B Slopes, Derivatives, Maxima
and Minima
Application 5.2 Utility of Wealth
5.C Derivatives of Polynomials
Application 5.3 Marginal Utility
Application 5.4 The Baumol Cash Management Model
Application 5.5 Duration
Application 5.6 Bond Portfolio Immunization
Application 5.7 Portfolio Risk and Diversification
5.D Partial Derivatives
Application 5.8 Deriving the Simple OLS Regression Equation
Application 5.9 Deriving Multiple Regression Coefficients
5.E The Chain Rule, Product
Rule and Quotient Rule
Application 5.10 Plotting the Capital Market Line
5.F Taylor Series Expansions
Application 5.11 Convexity and Immunization
Application 5.12 Risk Aversion Coefficients
5.G The Method of LaGrange
Multipliers
Application 5.13 Optimal Portfolio Selection
Application 5.14 Plotting the Capital Market Line, Second Method
Application 5.15 Deriving the Capital Asset Pricing Model
Application 5.16 Constrained Utility Maximization
Appendix 5.A
Derivatives of Polynomials
Appendix 5.B
Rules for Finding Derivatives
Appendix 5.C
Portfolio Risk Minimization on a Spreadsheet
6 Integral Calculus
6.A Antidifferentiation and
the Indefinite Integral
6.B Definite Integrals and
Areas
Application 6.1 Cumulative Densities
Application 6.2 Expected Value and Variance
Application 6.3 Stochastic Dominance
Application 6.4 Valuing Continuous Dividend Payments
Application 6.5 Expected Option Values
6.C Differential Equations
Application 6.6 Continuous Time Security Returns
Appendix 6.A
Rules for Finding Integrals
7 Introduction to Probability
7.A Random Variables and Probability
Spaces
7.B Distributions and Moments
7.C Binomial Distributions
Application 7.1 Estimating Probability of Option Exercise
7.D The Normal Distribution
7.E The Log–normal Distribution
Application 7.2 Common Stock Returns
7.F Conditional Probability
Application 7.3 Option Pricing — Conditional Exercise
Application 7.4 The Binomial Option Pricing Model
8 Statistics and Empirical Studies in
Finance
8.A Introduction to Hypothesis
Testing
Application 8.1 Minimum Acceptable Returns
8.B Hypothesis Testing: Two
Populations
Application 8.2 Bank Ownership Structure
8.C Interpreting the Simple
OLS Regression
Application 8.3 Capital Asset Pricing Model
Application 8.4 Analysis of Weak Form Efficiency
Application 8.5 Portfolio Performance Evaluation
8.D Multiple OLS Regressions
Application 8.6 Estimating the Yield Curve
8.E Event Studies
Application 8.7 Analysis of Merger Returns
8.F Models with Binary Variables
9 Stochastic Processes
9.A Random Walks and Martingales
9.B Binomial Processes
9.C Brownian Motion, Weiner
and Itô Processes
9.D Itô's Lemma
Application 9.1 Geometric Weiner Processes
Application 9.2 Option Prices — Estimating Exercise Probability
Application 9.3 Option Prices — Estimating Expected Conditional
Option Prices
Application 9.4 Deriving the Black-Scholes Option Pricing Model
10 Numerical Methods
10.A Introduction
10.B The Binomial Method
Application 10.1 The Binomial Option Pricing Model
Application 10.2 American Put Option Valuation
10.C The Method of Bisection
Application 10.3 Estimating Bond Yields
Application 10.4 Estimating Implied Variances
10.D The Newton-Ralphson Method
Application 10.4 (continued) Estimating Implied Variances
Appendix A Solutions to End-of-Chapter Exercises
Appendix B Statistics Tables
Appendix C Notation Definitions
Glossary
References
Index
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