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University of Warwick institutional repository: http://go.warwick.ac.uk/wrap

A Thesis Submitted for the Degree of PhD at the University of Warwick

http://go.warwick.ac.uk/wrap/4193

This thesis is made available online and is protected by original copyright. Please scroll down to view the document itself.

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Security Price Process Models:

Do These Have the Correct Properties For

Understanding Options Values?

ROBERT GEORGE TOMPKINS

4

Submitted in partial fulfilment of the requirements for the Degree of Doctor of Philosophy

At the

University of Warwick

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Standing on the Shoulders of Giants:

To my friends Michael Selby and Stewart Hodges

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Table of Contents

VOLUME ONE

Table of Contents

List of Tables and Figures xv

Acknowledgments xxviii

Abstract xxxii

INTRODUCTION

1

CHAPTER ONE

THE ANALYSIS OF OBJECTIVE PROBABILITIES

IN FUTURES

MARKETS: LITERATURE

REVIEW AND EMPIRICAL DESIGN

8

1.1 INTRODUCTION 8

1.2 REVIEW OF THE LITERATURE ON VOLATILITY PROCESSES 9

Review of Research on Objective Dispersion Processes for Assets 10 Random Walk Processes, Stationary Series and Objective Volatility 13

Methods to Determine Objective Volatility 22 Problems in the Estimation of the Objective Volatility of Futures 27

1.3 VOLATILITY CONES - COMPARING VOLATILITIES OVER TIME 29

Determination of Volatility Cones 29 Problems with Overlapping and Non-Overlapping Data 32

A New Method for Onbiasing Overlapping Samples 36

1.4 AUTOCORRELATIONS OF ABSOLUTE RETURNS 39

1.5 MEAN REVERSION IN HISTORICAL VOLATILITY 42

1.6 MODELS TO EXPLAIN THE NATURE OF EMPIRICAL VOLATILITY 44 Constant Elasticity of Variance Model 45 Pricing Models which Incorporate Jumps in the Underlying Asset Price 46 Models which Incorporate Stochastic Volatility 48

1.7 CONCLUSION 56

APPENDIX 1.1 Conversion of the log volatility dispersion process to a simple

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CHAPTER TWO

DATA, DESCRIPTIVE STATISTICS AND DERIVED

STATISTICS

58

2.1 INTRODUCTION 58

2.2 DATA SOURCES 58

Cleaning the Data Series 60

2.3 UNCONDITIONAL RETURN DISTRIBUTIONS FOR VARIOUS HORIZONS

62

Review of Other Work on the Determination of Objective Dispersion Processes 70

2.4 THE UNCONDITIONAL VOLATILITY SERIES FOR TWELVE MARKETS 73

2.5 AUTOCORRELATION TESTS FOR TWELVE MARKETS 2.6 COMPOSITE MEASURES OF AUTO CORRELATION

2.7 DETERMINATION OF VOLATILITY CONES

74

82 86

The 20-day Coefficient of Variation as a Measure of the Variability of Volatility 88

2.8 BIAS CORRECTION OF THE VOLATILITY CONE ANALYSIS 90

Comparison of the Unbiased Standard Deviations of Volatility to the Standard Deviations of Volatility

Consistent with an i. i. d. dispersion process. 93 2.9 A SIMPLE MODEL FOR THE STANDARD DEVIATION OF VOLATILITY AS

A FUNCTION OF THE TIME HORIZON 97

2.10 TARGET CONDITIONS THAT CAPTURE EMPIRICAL VOLATILITY

DYNAMICS 102

2.11 CONCLUSION

CHAPTER THREE

112

THE ANALYSIS OF OBJECTIVE PROBABILITIES

IN FUTURES

MARKETS: EXPLAINING THE EMPIRICAL DYNAMICS WITH

MODELS ASSUMING CONSTANT VARIANCE

3.1 INTRODUCTION

114

114

3.2 TESTING A GEOMETRIC BROWNIAN MOTION MODEL 114

GBM Test Results for Entire Period of Analysis 122 GBM Test Results for SubPeriods of Analysis 124

3.3 ALTERNATIVE MODELS TO EXPLAIN VOLATILITY DYNAMICS 126

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3.4 TESTING A FAT-TAILED DISTRIBUTION MODEL 127

Student-t Test Results for Entire Period of Analysis 129 Student-t Test Results for SubPeriods of Analysis 134

3.5 CONCLUSION

CHAPTER FOUR

143

THE ANALYSIS OF OBJECTIVE PROBABILITIES

IN FUTURES

MARKETS: EXPLAINING THE EMPIRICAL DYNAMICS WITH

MODELS ASSUMING STOCHASTIC VARIANCE

146

4.1 INTRODUCTION 146

4.2 STOCHASTIC VOLATILITY MODELS USED IN THE ANALYSIS 147

4.3 CALIBRATION OF STOCHASTIC VOLATILITY MODELS 152

4.4 ANALYSIS OF STOCHASTIC VOLATILITY MODELS (ENTIRE PERIOD) 156

Optimal Parameters for the Three Stochastic Volatility Models (Entire Period) Results for the Three Stochastic Volatility Models (Entire Period)

156 157

4.5 ANALYSIS OF STOCHASTIC VOLATILITY MODELS (FIRST PERIOD)

- 161

Optimal Parameters for the Three Stochastic Volatility Models (First Period) Results for the Three Stochastic Volatility Models (First Period)

161 164

4.6 ANALYSIS OF STOCHASTIC VOLATILITY MODELS (SECOND PERIOD)

168

Optimal Parameters for the Three Stochastic Volatility Models (Second Period) 168 Results for the Three Stochastic Volatility Models (Second Period) 170

4.7 CONCLUSION 173

CHAPTER FIVE

THE ANALYSIS OF OBJECTIVE PROBABILITIES

IN FUTURES

MARKETS: EXPLAINING THE EMPIRICAL DYNAMICS WITH

MODELS ASSUMING STOCHASTIC VARIANCE AND THE

UNDERLYING ASSET PRICES FOLLOW A STUDENT-T

DISTRIBUTION

176

5.1 INTRODUCTION 176

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5.2 ANALYSIS OF COMBINATION MODELS FOR THE ENTIRE PERIOD 176 Parameter Estimation for Combination Models for the Entire Period 177 Results for Combination Models for the Entire Period 179 Results of the Combination Models - S&P 500 (including/excluding the 1987 Crash) 183

5.3 ANALYSIS OF COMBINATION MODELS FOR THE FIRST PERIOD 185

Parameter Estimation for Combination Models for the First Period 185

Results for Combination Models for the First Period 187

5.4 ANALYSIS OF COMBINATION MODELS FOR THE SECOND PERIOD

- 192

Parameter Estimation for Combination Models for the Second Period 192 Results for Combination Models for the Second Period

5.5 CONCLUSION

VOLUME TWO

194

198

Table of Contents i

List of Tables and Figures V

CHAPTER SIX

THE ANALYSIS OF RISK NEUTRAL PROBABILITIES

IN

OPTIONS ON FUTURES: LITERATURE REVIEW AND

EMPIRICAL

DESIGN

201

6.1 INTRODUCTION 201

6.2 REVIEW OF THE LITERATURE ON RISK NEUTRAL EVALUATION

- 202

The Use of Risk Neutrality in Pricing Contingent Claims

6.3 REVIEW OF IMPLIED VOLATILITY

204

206

Determination of Implied Volatility 210 Weighting Implied Volatilities 215

6.4 DIVERGENCES OF IMPLIED VOLATILITIES ACROSS STRIKE PRICES:

THE VOLATILITY SMILE 218

Review of the Literature on Volatility Smiles 222 Theoretical Reasons for the Existence of Volatility Smiles 226

6.5 APPROACHES FOR DEALING WITH VOLATILITY SMILES 241

Determination of Risk Neutral Probabilities Empirically 243

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6.6 RATIONALE FOR EXAMINATION OF IMPLIED VOLATILITY SMILES RATHER THAN IMPLIED DISTRIBUTIONS

6.7 CONCLUSION

CHAPTER SEVEN

247 249

THE ANALYSIS OF RISK NEUTRAL PROBABILITIES

IN

OPTIONS ON FUTURES: STANDARDISATION

OF IMPLIED

VOLATILITY

SMILES

250

7.1 INTRODUCTION 250

7.2 DATA SOURCES 251

7.3 HISTORICAL RECORD OF IMPLIED VOLATILTIES 258

7.4 RESULTS OF THE IMPLIED VOLATILITY ANALYSIS 7.5 DETERMINATION OF VOLATILITY MATRICES

262 268

Constructing a Volatility Matrix for FTSE Index Options 270 Splitting the First Order and Second Order Strike Price Effects 278

7.6 IMPLICATIONS OF NONSTATIC IMPLIED VOLATILITY SURFACES FOR

DETERMINISTIC IMPLIED VOLATILITY MODELS

7.7 STANDARDISED IMPLIED VOLATILITY SMILES FOR ALL TWELVE

282

MARKETS 287

Examination of Standardised Smile Structures for the Twelve Markets in Sub Periods 292

7.8 CONCLUSION 293

CHAPTER EIGHT

THE ANALYSIS OF RISK NEUTRAL PROBABILITIES

IN

OPTIONS ON FUTURES. COMPARISON OF IMPLIED

VOLATILITY

SMILES WITHIN AND BETWEEN MARKETS:

ANALYSIS USING MULTIPLE REGRESSION /ANALYSIS OF

VARIANCE

296

8.1 INTRODUCTION 296

8.2 DETERMINISTIC IMPLIED VOLATILITY MODELS 297

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8.3 MODELLING THE IMPLIED VOLATILITY SURFACE 298

Variables Used in the Analysis 300 Inclusion of Variables to Capture Shocks

Inclusion of Additional Variables

304 309

8.4 INTERPRETATION OF THE MODEL 311

8.5 ORDINARY LEAST SQUARES REGRESSION RESULTS 313

Modelling the First Order Strike Price Effect (SKEWNESS)

Modelling the Second Order Strike Price Effect (KURTOSIS)

316 324 The Impacts of Other Variables on Implied Volatility Surfaces 331

8.6 TESTING THE ROBUSTNESS OF THE REGRESSION MODELS 341

Testing for An Exclusion of Critical Variables Problem 342 Correction for Heteroscedasticity in the Regressions 346 Corrections for Serial Correlations in the Residuals of the Regressions

Assessing Multi-Collinearity Problems in the Regressions

348 351 Testing the Regression Models for Different Time Periods 353

8.7 COMPARISONS OF IMPLIED VOLATILTY MODELS WITHIN ASSET

CLASSES

Comparisons of Models for Stock Index Options

360 361

Implications of the Findings for Stock Index Options Smile Surfaces 366 Comparisons of Models for Fixed Income Options

Comparisons of Models for Foreign Exchange Options

368 370 8.8 COMPARISONS OF IMPLIED VOLATILTY MODELS FOR ALL MARKETS

374

8.9 CONCLUSION

CHAPTER NINE

378

THE ANALYSIS OF RISK NEUTRAL PROBABILITIES

IN

OPTIONS ON FUTURES COMPARISON OF IMPLIED

VOLATILITY

SMILES WITH SIMULATED SMILES DERIVED

FROM OBJECTIVE DISPERSION PROCESS MODELS

381

9.1 INTRODUCTION

9.2 SIMULATING IMPLIED VOLATILITY DYNAMICS CONSISTENT WITH

381

THE OBJECTIVE PROCESS MODELS 381

9.3 SIMULATING IMPLIED VOLATILITY DYNAMICS CONSISTENT WITH A

STUDENT-t DISTRIBUTION MODEL 384

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9.4 TESTING THE EXPLANATORY POWER OF THEORICAL PRICING

MODELS FOR THE IMPLIED VOLATILITY SMILE PATTERNS 387 9.5 TESTING THE EXPLANATORY POWER OF A STUDENT-t DISTRIBUTION

MODEL FOR THE IMPLIED VOLATILITY PATTERNS 390

9.6 SIMULATING IMPLIED VOLATILITY DYNAMICS CONSISTENT WITH

GBM STOCHASTIC VOLATILITY MODELS 393

9.7 TESTING THE EXPLANATORY POWER OF STOCHASTIC VOLATILITY

MODELS FOR THE IMPLIED VOLATILITY PATTERNS 395

9.8 SIMULATING IMPLIED VOLATILITY DYNAMICS CONSISTENT WITH

STOCHASTIC VOLATILITY & STUDENT-t DISTRIBUTION MODELS 400 9.9 TESTING THE EXPLANATORY POWER OF STOCHASTIC VOLATILITY & STUDENT-t MODELS FOR THE IMPLIED VOLATILITY PATTERNS 403

9.10 COMPARISON OF THE THREE MODELS FOR EXPLAINING THE DYNAMICS OF THE IMPLIED VOLATILITY SMILES

Comparison by Minimised Least Squares

Comparison by Averaged Differences in Predicted and Actual Results

406 406 409 Implications of the Results 412

9.11 CONCLUSIONS

CHAPTER TEN

414

CONCLUSIONS AND SUGGESTIONS FOR FURTHER

RESEARCH

417

References

VOLUME THREE

423

List of Tables and Figures 1

Figure 2.1a Exponentially Weighted Unconditional Volatility for Four Stock Index Futures 1 Figure 2.1b Exponentially Weighted Unconditional Volatility for Four Fixed Income Futures 2 Figure 2.1c Exponentially Weighted Unconditional Volatility for Four Foreign Exchange Futures_

_3 Figure 2.2a Autocorrelogram for four Stock Index Futures absolute daily returns 4

Figure 2.2b Autocorrelogram for four Fixed Income Futures absolute daily returns 5 Figure 2.2c Autocorrelogram for four Foreign Exchange Futures absolute daily returns 6 Figure 2.2d Comparison of autocorrelograms on S&P-500 Futures 7

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Figure 2.2e Autocorrelogram for DAX Index Futures and Cash using absolute daily returns 8 Figure 2.3a First period autocorrelogram for four Stock Index Futures absolute daily returns 9 Figure 2.3b First period autocorrelogram for four Fixed income Futures absolute daily returns 10 Figure 2.3c First period autocorrelogram for four Foreign exchange Futures absolute daily returns

- 11 Figure 2.4a Second period autocorrelogram for four Stock Index Futures absolute daily returns 12 Figure 2.4b Second period autocorrelogram for four Fixed Income Futures absolute daily returns

- 13 Figure 2.4c Second period autocorrelogram for four Foreign Exchange Futures absolute daily returns.

14

Table 2.5a Summary statistics of volatility cone for four Stock Index Futures 15

Table 2.5b Summary statistics of volatility cone for four Fixed Income Futures 16 Table 2.5c Summary statistics of volatility cone for four Foreign Exchange Futures 17 Figure 2.5a Volatility cones for four Stock Index Futures 18 Figure 2.5b Volatility cones for four Fixed Income Futures 19 Figure 2.5c Volatility cones for four Foreign Exchange Futures 20 Table 2.6a First period summary statistics of volatility cone for four Stock Index Futures 21 Table 2.6b First Period summary statistics of volatility cone for four Fixed Income Futures 22 Table 2.6c First period summary statistics of volatility cone for four Foreign Exchange Futures 23 Figure 2.6a First period volatility cones for four Stock Index Futures 24 Figure 2.6b First period volatility cones for four Fixed Income Futures 25 Figure 2.6c First period volatility cones for four Foreign Exchange Futures 26 Table 2.7a Second period summary statistics of volatility cone for four Stock Index Futures 27 Table 2.7b Second period summary statistics of volatility cone for four Fixed Income Futures 28 Table 2.7c Second period summary statistics of volatility cone for four Foreign Exchange Futures

- 29 Figure 2.7a Second period volatility cones for four Stock Index Futures 30 Figure 2.7b Second period volatility cones for four Fixed Income Futures 31 Figure 2.7c Second period volatility cones for four Foreign Exchange Futures 32 Figure 2.8a Comparison of volatility estimated using overlapping and non overlapping observations for

four Stock Index Futures 33

Figure 2.8b Comparison of volatility estimated using overlapping and non overlapping observations for

four Fixed Income Futures 34

Figure 2.8c Comparison of volatility estimated using overlapping and non overlapping observations for four Foreign Exchange Futures 35 Figure 2.9a First period comparison of volatility estimated using overlapping and non overlapping

observations for four Stock Index Futures 36 Figure 2.9b First period comparison of volatility estimated using overlapping and non overlapping

observations for four Fixed Income Futures 37 Figure 2.9c First period comparison of volatility estimated using overlapping and non overlapping

observations for four Foreign Exchange Futures 38 Figure 2.10a Second period comparison of volatility estimated using overlapping and non overlapping

observations for four Stock Index Futures 39

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Figure 2.10b Second period comparison of volatility estimated using overlapping and non overlapping observations for four Fixed Income Futures 40 Figure 2.10c Second period comparison of volatility estimated using overlapping and non overlapping

observations for four Foreign Exchange Futures 41 Figure 2.11a Standard deviation of the volatility cone, Biased vs. Unbiased vs. I. I. D. for four Stock

Index Futures 42

Figure 2.11b Standard deviation of the volatility cone, Biased vs. Unbiased vs. I. I. D. for four Fixed

Income Futures 43

Figure 2.11c Standard deviation of the volatility cone, Biased vs. Unbiased vs. I. I. D. for four Foreign

Exchange Futures 44

Figure 2.12a First period Standard deviation of the volatility cone, Biased vs. Unbiased vs. I. I. D. for

four Stock Index Futures 45

Figure 2.12b First period Standard deviation of the volatility cone, Biased vs. Unbiased vs. I. I. D. for

four Fixed Income Futures 46

Figure 2.12c First period Standard deviation of the volatility cone, Biased vs. Unbiased vs. I. I. D. for

four Foreign Exchange Futures 47

Figure 2.13a Second period Standard deviation of the volatility cone, Biased vs. Unbiased vs. I. I. D. for

four Stock Index Futures 48

Figure 2.13b Second period Standard deviation of the volatility cone, Biased vs. Unbiased vs. I. I. D. for

four Fixed Income Futures 49

Figure 2.13c Second period Standard deviation of the volatility cone, Biased vs. Unbiased vs. I. I. D. for four Foreign Exchange Futures 50 Figure 2.14a Time decay factors for the volatility of volatility for four Stock Index Futures 51 Figure 2.14b Time decay factors for the volatility of volatility for four Fixed Income Futures 52 Figure 2.14c Time decay factors for the volatility of volatility for four Foreign Exchange Futures

- 53 Figure 2.15a First period time decay factors for the volatility of volatility for four Stock Index Futures

54

Figure 2.15b First period time decay factors for the volatility of volatility for four Fixed Income

Futures 55

Figure 2.15c First period time decay factors for the volatility of volatility for four Foreign Exchange

Futures 56

Figure 2.16a Second period time decay factors for the volatility of volatility for four Stock Index

Futures 57

Figure 2.16b Second period time decay factors for the volatility of volatility for four Fixed Income

Futures 58

Figure 2.16c Second period time decay factors for the volatility of volatility for four Foreign Exchange

Futures 59

Table 7.1a Summary statistics for the At-the-money Implied Volatilities for four Stock Index Options, estimated ona a Daily basis and at 5-days increments until expiration 60

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Table 7.1b Summary statistics for the At-the-money Implied Volatilities for four Fixed Income

Options, estimated ona a Daily basis and at 5-days increments until expiration 61 Table 7.1c Summary statistics for the At-the-money Implied Volatilities for four Foreign Exchange

Options, estimated ona a Daily basis and at 5-days increments until expiration 62

Figure 7.1a Time Series Plots of At-the-money Implied Volatilities for Four Stock Index Options

- 63 Figure 7.1b Time Series Plots of At-the-money Implied Volatilities for Four Fixed Income Options 64 Figure 7.1c Time Series Plots of At-the-money Implied Volatilities for Four Foreign Exchange Options

65

Table 7.2 Option prices and implied volatilities for FTSE-100 as of May7th, 1996 66 Figure 7.2a Implied Volatility Smiles for Four Stock Index Options as of May 7,1996 67 Figure 7.2b Implied Volatility Smiles for Four Fixed Income Options as of May 7,1996 68 Figure 7.2c Implied Volatility Smiles for Four Foreign Exchange Options as of May 7,1996 69 Figure 7.4 Unstandardized volatility smiles for 1996 FTSE-100 contracts 70 Figure 7.5 Standardized volatility smiles for 1996 FTSE-100 contracts grouped by contracts 71 Figure 7.6 Standardized volatility smiles for 1996 FTSE-100 contracts grouped by days to expiration

72 Figure 7.7 Interpolated volatility smiles for 1996 FTSE-100 contracts 73 Figure 7.8a Skewness for 1996 FTSE-100 contracts 74 Figure 7.8b Skewness for 1996 FTSE-100 contracts 75

Figure 7.9a Kurtosis for 1996 FTSE-100 contracts Figure 7.9b Kurtosis for 1996 FTSE-100 contracts

76

77

Figure 7.1 Oa Scatterplots of minimum VSI strike price relative to underlying future price for the FTSE-

100 during 1996 78

Figure 7.10b Plot of the percentage difference between the Underlying Futures Price to the minimum

Strike Price for Four Options Cycles for the FTSE-100 during 1996 79

Figure 7.11a 1996 Volatility smiles for Four Stock Index Options 80 Figure 7.11b 1996 Volatility smiles for Four Fixed Income Options 81 Figure 7.11c 1996 Volatility smiles for Four Foreign Exchange Options 82 Figure 7.12a 1996 Skewness for Four Stock Index Options 83 Figure 7.12b 1996 Skewness for Four Fixed Income Options 84 Figure 7.12c 1996 Skewness for Four Foreign Exchange Options 85 Figure 7.13a 1996 Skewness for Four Stock Index Options 86 Figure 7.13b 1996 Skewness for Four Fixed Income Options 87 Figure 7.13c 1996 Skewness for Four Foreign Exchange Options 88 Figure 7.14a 1996 Kurtosis for Four Stock Index Options 89 Figure 7.14b 1996 Kurtosis for Four Fixed Income Options 90 Figure 7.14c 1996 Kurtosis for Four Foreign Exchange Options 91 Figure 7.15a 1996 Kurtosis for Four Stock Index Options 92 Figure 7.15b 1996 Kurtosis for Four Fixed Income Options 93 Figure 7.15c 1996 Kurtosis for Four Foreign Exchange Options 94

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Figure 7.16a Standardized Volatility Smiles for Four Stock Index Options for the entire period of

analysis 95

Figure 7.16b Standardized Volatility Smiles for Four Fixed Income Options for the entire period of

analysis 96

Figure 7.16c Standardized Volatility Smiles for Four Foreign Exchange Options for the entire period of

analysis 97

Figure 7.17a Standardized Volatility Smiles for Four Stock Index Options for the first portion of the

available observations 98

Figure 7.17b Standardized Volatility Smiles for Four Fixed Income Options for the first portion of the

available observations 99

Figure 7.17c Standardized Volatility Smiles for Four Foreign Exchange Options for the first portion of

the available observations 100

Figure 7.18a Standardized Volatility Smiles for Four Stock Index Options for the second portion of the

available observations 101

Figure 7.18b Standardized Volatility Smiles for Four Fixed Income Options for the second portion of

the available observations 102

Figure 7.18c Standardized Volatility Smiles for Four Foreign Exchange Options for the second portion of the available observations 103

APPENDIX 7.1 104

Table 8.2a Ordinary Least Squares Regression Results for four Stock Index Options 120 Table 8.2b Ordinary Least Squares Regression Results for four Fixed Income Options 121 Table 8.2c Ordinary Least Squares Regression Results for four Foreign Exchange Options 122 Table 8.6a Ordinary Least Squares Regression Results for four Stock Index Options Including

Contracts as Dummy Variables 123 Table 8.6b Ordinary Least Squares Regression Results for four Fixed Income Options Including

Contracts as Dummy Variables 124

Table 8.6c Ordinary Least Squares Regression Results for four Foreign Exchange Options Including

Contracts as Dummy Variables 125 Table 8.7a Weighted Least Squares Regression Results for four Stock Index Options 126 Table 8.7b Weighted Least Squares Regression Results for four Fixed Income Options 127 Table 8.7c Weighted Least Squares Regression Results for four Foreign Exchange Options 128 Table 8.8 Generalized Least Squares Regression Results fot three Selected Options Markets 129 Table 8.9a Ordinary Least Squares Regression Results for four Stock Index Options using the First

Half of Available Observations 130 Table 8.9b Ordinary Least Squares Regression Results for four Fixed Income Options using the First

Half of Available Observations 131 Table 8.9c Ordinary Least Squares Regression Results for four Foreign Exchange Options using the

First Half of Available Observations 132 Table 8.1Oa Ordinary Least Squares Regression Results for four Stock Index Options using the Second

Half of Available Observations 133

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Table 8.10b Ordinary Least Squares Regression Results for four Fixed Income Options using the

Second Half of Available Observations 134 Table 8.10c Ordinary Least Squares Regression Results for four Foreign Exchange Options using the

Second Half of Available Observations 135 Table 8.13a Ordinary Least Squares Regression Results for four Stock Index Options compared to All

Stock Index Options 136

Table 8.13b Ordinary Least Squares Regression Results for four Fixed Income Options compared to

All Fixed Income Options 137

Table 8.13c Ordinary Least Squares Regression Results for four Foreign Exchange Options compared to All Foreign Exchange Options 138 Table 8.14 Ordinary Least Squares Regression Results for All Option Markets comaperd to the three

Asset Classes 139

Table 9.1 Monte Carlo generated Call Option Prices using a Student-t distribution with constant

volatility 140

Table 9.2 Volatilities implied by the Monte Carlo generated Call Option Prices using a Student-t

distribution with constant volatility 141 Table 9.3 Standardized implied volatilities using a Student-t distribution with constant volatility

- 142 Figure 9.1 Standardized Volatility Smiles using a Student-t distribution with constant volatility

_ 143 Figure 9.2a S&P-500 Whole Period Implied Volatility Smile Patterns that are consistent with the three

Security Price Models estimated using Unconditional Dispersion Process compared to the Actual 144 Figure 9.2b FTSE-100 Whole Period Implied Volatility Smile Patterns that are consistent with the three Security Price Models estimated using Unconditional Dispersion Process compared to the Actual 145 Figure 9.2c Nikkei-225 Whole Period Implied Volatility Smile Patterns that are consistent with the

three Security Price Models estimated using Unconditional Dispersion Process compared to the

Actual 146

Figure 9.2d DAX Whole Period Implied Volatility Smile Patterns that are consistent with the three

Security Price Models estimated using Unconditional Dispersion Process compared to the Actual 147 Figure 9.3a Bund Whole Period Implied Volatility Smile Patterns that are consistent with the three

Security Price Models estimated using Unconditional Dispersion Process compared to the Actual 148 Figure 9.3b Gilt Whole Period Implied Volatility Smile Patterns that are consistent with the three

Security Price Models estimated using Unconditional Dispersion Process compared to the Actual 149 Figure 9.3c BTP Whole Period Implied Volatility Smile Patterns that are consistent with the three

Security Price Models estimated using Unconditional Dispersion Process compared to the Actual 150 Figure 9.3d US T-Bond Whole Period Implied Volatility Smile Patterns that are consistent with the

three Security Price Models estimated using Unconditional Dispersion Process compared to the

Actual 151

Figure 9.4a D-Mark Whole Period Implied Volatility Smile Patterns that are consistent with the three

Security Price Models estimated using Unconditional Dispersion Process compared to the Actual 152 Figure 9.4b B-Pound Whole Period Implied Volatility Smile Patterns that are consistent with the three

Security Price Models estimated using Unconditional Dispersion Process compared to the Actual 153

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Figure 9.4c J-Yen Whole Period Implied Volatility Smile Patterns that are consistent with the three

Security Price Models estimated using Unconditional Dispersion Process compared to the Actual 154 Figure 9.4d S-Franc Whole Period Implied Volatility Smile Patterns that are consistent with the three

Security Price Models estimated using Unconditional Dispersion Process compared to the Actual 155 Figure 9.5a S&P-500 First Period Implied Volatility Smile Patterns that are consistent with the three

Security Price Models estimated using Unconditional Dispersion Process compared to the Actual 156 Figure 9.5b FTSE-100 First Period Implied Volatility Smile Patterns that are consistent with the three

Security Price Models estimated using Unconditional Dispersion Process compared to the Actual 157 Figure 93c Nikkei-225 First Period Implied Volatility Smile Patterns that are consistent with the three

Security Price Models estimated using Unconditional Dispersion Process compared to the Actual 158 Figure 9.5d DAX First Period Implied Volatility Smile Patterns that are consistent with the three

Security Price Models estimated using Unconditional Dispersion Process compared to the Actual 159 Figure 9.6a Bund First Period Implied Volatility Smile Patterns that are consistent with the three

Security Price Models estimated using Unconditional Dispersion Process compared to the Actual 160 Figure 9.6b Gilt First Period Implied Volatility Smile Patterns that are consistent with the three

Security Price Models estimated using Unconditional Dispersion Process compared to the Actual 161 Figure 9.6c BTP First Period Implied Volatility Smile Patterns that are consistent with the three

Security Price Models estimated using Unconditional Dispersion Process compared to the Actual 162 Figure 9.6d US T-Bond First Period Implied Volatility Smile Patterns that are consistent with the three

Security Price Models estimated using Unconditional Dispersion Process compared to the Actual 163 Figure 9.7a D-Mark First Period Implied Volatility Smile Patterns that are consistent with the three

Security Price Models estimated using Unconditional Dispersion Process compared to the Actual 164 Figure 9.7b B-Pound First Period Implied Volatility Smile Patterns that are consistent with the three

Security Price Models estimated using Unconditional Dispersion Process compared to the Actual 165 Figure 9.7c 1-Yen First Period Implied Volatility Smile Patterns that are consistent with the three

Security Price Models estimated using Unconditional Dispersion Process compared to the Actual 166 Figure 9.7d S-Franc First Period Implied Volatility Smile Patterns that are consistent with the three

Security Price Models estimated using Unconditional Dispersion Process compared to the Actual 167 Figure 9.8a S&P-500 Second Period Implied Volatility Smile Patterns that are consistent with the three

Security Price Models estimated using Unconditional Dispersion Process compared to the Actual 168 Figure 9.8b FTSE-100 Second Period Implied Volatility Smile Patterns that are consistent with the

three Security Price Models estimated using Unconditional Dispersion Process compared to the

Actual 169

Figure 9.8c Nikkei-225 Second Period Implied Volatility Smile Patterns that are consistent with the three Security Price Models estimated using Unconditional Dispersion Process compared to the

Actual 170

Figure 9.8d DAX Second Period Implied Volatility Smile Patterns that are consistent with the three

Security Price Models estimated using Unconditional Dispersion Process compared to the Actual 171 Figure 9.9a Bund Second Period Implied Volatility Smile Patterns that are consistent with the three

Security Price Models estimated using Unconditional Dispersion Process compared to the Actual 172

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Figure 9.9b Gilt Second Period Implied Volatility Smile Patterns that are consistent with the three

Security Price Models estimated using Unconditional Dispersion Process compared to the Actual 173 Figure 9.9c BTP Second Period Implied Volatility Smile Patterns that are consistent with the three

Security Price Models estimated using Unconditional Dispersion Process compared to the Actual 174 Figure 9.9d US T-Bond Second Period Implied Volatility Smile Patterns that are consistent with the

three Security Price Models estimated using Unconditional Dispersion Process compared to the

Actual 175

Figure 9.10a D-Mark Second Period Implied Volatility Smile Patterns that are consistent with the three Security Price Models estimated using Unconditional Dispersion Process compared to the Actual 176 Figure 9.10b B-Pound Second Period Implied Volatility Smile Patterns that are consistent with the

three Security Price Models estimated using Unconditional Dispersion Process compared to the

Actual 177

Figure 9.1 Oc J-Yen Second Period Implied Volatility Smile Patterns that are consistent with the three

Security Price Models estimated using Unconditional Dispersion Process compared to the Actual 178 Figure 9.10d S-Franc Second Period Implied Volatility Smile Patterns that are consistent with the three

Security Price Models estimated using Unconditional Dispersion Process compared to the Actual 179

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List of Tables and Figures

VOLUME ONE

CHAPTER TWO

Table 2.1 Markets Included in Research, Time Period of Data, Number of Observations 59 Table 2.2 Statistics of the Daily, Weekly and Monthly Returns for Twelve Financial Futures for the

Whole Period of Available Observations 64

Table 2.3 Periods & Observations for Markets Under Analysis, Broken into Two Sub-Periods 65 Table 2.4 Statistics of the Daily, Weekly and Monthly Returns for Twelve Financial Futures for the

First Half of the Observation Period

Table 2.5 Statistics of the Daily, Weekly and Monthly Returns for Twelve Financial Futures for the Second Half of the Observation Period

66

67

Table 2.6 Average Autocorrelations of Absolute Returns for the Lags 1-20 and 51-70 for Twelve

Markets for the Entire Period of Analysis 83 Table 2.7 Average Autocorrelations of Absolute Returns for the Lags 1-20 and 51-70 for Twelve

Markets for the First Half Period of Analysis

Table 2.8 Average Autocorrelations of Absolute Returns for the Lags 1-20 and 51-70 for Twelve Markets for the Second Half Period of Analysis

Table 2.9 Statistics of the 20 Day Volatility for Twelve Financial Futures

84

85 88 Table 2.10 Statistics of the 20 Day Volatility for Twelve Financial Futures for the first half of the

observation period 89

Table 2.11 Statistics of the 20 Day Volatility for Twelve Financial Futures for the second half of the

observation period 89

Table 2.12 Time Decay Factors for the Standard Deviation of Volatility for Twelve Financial Futures

Markets 99

Table 2.13 Time Decay Factors for the Standard Deviation of Volatility for Twelve Financial Futures

Markets For the First Half of the Available Observations 100 Table 2.14 Time Decay Factors for the Standard Deviation of Volatility for Twelve Financial Futures

Markets for the Second Half of the Available Observations

101

Table 2.15 Attributes That Describe the Empirical Dynamics of Twelve Financial Futures Dispersion

Processes 106

Table 2.16 Attributes That Describe the Empirical Dynamics of Twelve Financial Futures Dispersion

Processes for the First Half of the Available Observations 107 Table 2.17 Attributes That Describe the Empirical Dynamics of Twelve Financial Futures Dispersion

Processes for the Second Half of the Available Observations. 108 Table 2.18 Correlation Matrix of Attributes for the 12 Financial Futures Markets for the Three Periods

of Analysis 111

CHAPTER THREE

Table 3.1 Estimated Values of the Attributes for a GBM price series

with Constant Variance 117

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Table 3.2 Correlation Matrix of Attributes for the 100 simulations of a GBM price series with Constant variance

Table 3.3 Comparison of the Attributes for the Average of 100 GBM price series with Constant Variance to a Selected GBM price series with Constant variance.

118

119

Table 3.4 Comparisons of the Empirical Dynamics of Twelve Financial Futures Dispersion Processes with the Dynamics of a GBM Price Series with Constant Variance for the Entire Period of Available

Observations 123

Table 3.5 Comparisons of the Empirical Dynamics of Twelve Financial Futures Dispersion Processes with the Dynamics of a GBM Price Series for the First Half of the Available Observations - 124-125 Table 3.6 Comparisons of the Empirical Dynamics of Twelve Financial Futures Dispersion Processes

with the Dynamics of a GBM Price Series for the Second Half of the Available Observations - 125 Table 3.7 Sample Moments of Eight Student-t Distributions 129 Table 3.8a Results for Student-t Distribution Models for Four Stock Index Futures Assuming Price

Series the Variance is Constant 130 Table 3.8b Results for Student-t Distribution Models for Four Fixed Income Futures Assuming Price

Series the Variance is Constant 131 Table 3.8c Results for Student-t Distribution Models for Four Foreign Exchange Futures Assuming

Price Series the Variance is Constant 132 Table 3.9 Comparisons of the Empirical Dynamics of Twelve Financial Futures Dispersion Processes

with the Dynamics of a GBM Price Series with Constant Variance and the Best Student-t distribution

with Constant Variance 133

Table 3.10a, Results for Student-t Distribution Models for Four Stock Index Futures Assuming Price

Series the Variance is Constant for the First Half of the Available Observations 135 Table 3.10b Results for Student-t Distribution Models for Four Fixed Income Futures Assuming Price

Series the Variance is Constant for the First Half of the Available Observations 136 Table 3.10c Results for Student-t Distribution Models for Four Foreign Exchange Futures Assuming

Price Series the Variance is Constant for the First Half of the Available Observations 137 Table 3.11 Comparisons of the Empirical Dynamics of Twelve Financial Futures Dispersion Processes

with the Dynamics of a GBM Price Series with Constant Variance and the Best t-distribution with

Constant Variance for the First Half of the Available Observations 138 Table 3.12a Results for Student-t Distribution Models for Four Stock Index Futures Assuming Price

Series the Variance is Constant for the Second Half of the Available Observations 139 Table 3.12b Results for Student-t Distribution Models for Four Fixed Income Futures Assuming Price

Series the Variance is Constant for the Second Half of the Available Observations 140 Table 3.12c Results for Student-t Distribution Models for Four Foreign Exchange Futures Assuming

Price Series the Variance is Constant for the Second Half of the Available Observations 141 Table 3.13 Comparisons of the Empirical Dynamics of Twelve Financial Futures Dispersion Processes

with the Dynamics of a GBM Price Series with Constant Variance and the Best t-distribution with

Constant Variance for the Second Half of the Available Observations 142

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CHAPTER FOUR

Table 4.1 Initial Parameter Values for Hull & White Simulations 155 Table 4.2 Initial Parameter Values for Stein & Stein Simulations 155 Table 4.3 Initial Parameter Values for Heston Simulations 156 Table 4.4 Parameter values for the Best of the Three Stochastic Volatility

Models for the Twelve Financial Futures Markets 156-157 Table 4.5a Best Fitting Models for Four Stock Index Futures Assuming Price Series are Lognormally

Distributed and the Variance is Stochastic. 158 Table 4.5b Best Fitting Models for Four Fixed Income Futures Assuming Price Series are Lognormally

Distributed and the Variance is Stochastic. 158 Table 4.5c Best Fitting Models for Four Foreign Exchange Futures Assuming Price Series are

Lognormally Distributed and the Variance is Stochastic 159 Table 4.6 Comparisons of the Empirical Dynamics of Twelve Financial Futures Dispersion Processes

with the Dynamics of a GBM Price Series with Constant Variance versus the Best t-distribution with Constant Variance and the Best Stochastic Volatility Model that assumes the Underlying Price Series

is Lognormal. 159-160

Table 4.7 Parameter values for the Best of the Three Stochastic Volatility Models for the Twelve

Financial Futures Markets for the First Half of the Available Observations 161-162 Table 4.8a Best Fitting Models for Four Stock Index Futures Assuming Price Series are Lognormally

Distributed & the Variance is Stochastic (First Half of Available Observations). 165 Table 4.8b Best Fitting Models for Four Fixed Income Futures Assuming Price Series are Lognormally

Distributed & the Variance is Stochastic (First Half of Available Observations). 165 Table 4.8c Best Fitting Models for Four Foreign Exchange Futures Assuming Price Series Lognormally

Distributed & the Variance is Stochastic (First Half of Available Observations) 166 Table 4.9 Comparisons of the Empirical Dynamics of Twelve Financial Futures Dispersion Processes

with the Dynamics of a GBM Price Series with Constant Variance versus the Best t-distribution with Constant Variance and the Best Stochastic Volatility Model that assumes the Underlying Price Series

is Lognormal (Analysis Period included the First Half of the Available Observations) 166-167 Table 4.10 Parameter values for the Best of the Three Stochastic Volatility Models for the Twelve

Financial Futures Markets for the Second Half of the Available Observations 168-169 Table 4.11 a Best Fitting Models for Four Stock Index Futures Assuming Price Series are Lognormally

Distributed & the Variance is Stochastic (Second Half of Available Observations). 170 Table 4.11 b Best Fitting Models for Four Fixed Income Futures Assuming Price Series are

Lognormally Distributed & the Variance is Stochastic (Second Half of Available Observations)_ 171 Table 4.11 c Best Fitting Models for Four Foreign Exchange Futures Assuming Price Series

Lognormally Distributed & the Variance is Stochastic (Second Half of Available Observations)

_ 171 Table 4.12 Comparisons of the Empirical Dynamics of Twelve Financial Futures Dispersion Processes

with the Dynamics of a GBM Price Series with Constant Variance versus the Best t-distribution with Constant Variance and the Best Stochastic Volatility Model that assumes the Underlying Price Series is Lognormal (Analysis Period included the Second Half of the Available Observations) 172-173

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CHAPTER FIVE

Table 5.1 a Parameters for the Best Fitting Models for Four Stock Index Futures Assuming Price Series follow a Student-t Distribution and the Variance is Stochastic. 177

Table 5.1b Parameters for the Best Fitting Models for Four Fixed Income Futures Assuming Price

Series follow a Student-t Distribution and the Variance is Stochastic 177 Table 5.1c Parameters for the Best Fitting Models for Four Foreign Exchange Futures Assuming Price

Series follow a Student-t Distribution and the Variance is Stochastic 178 Table 5.2a Results for the Best Fitting Models for Four Stock Index Futures Assuming Price Series

follow a Student-t Distribution and the Variance is Stochastic. 179 Table 5.2b Results for the Best Fitting Models for Four Fixed Income Futures Assuming Price Series

follow a Student-t Distribution and the Variance is Stochastic 179 Table 5.2c Results for the Best Fitting Models for Four Foreign Exchange Futures Assuming Price

Series follow a Student-t Distribution and the Variance is Stochastic 180 Table 5.3 Comparisons of the Empirical Dynamics of Twelve Financial Futures Dispersion Processes

with the Dynamics of a GBM Price Series with Constant Variance versus the Best t-distribution with Constant Variance

, the Best Stochastic Volatility Model that assume the Underlying Price Series is Lognormal and the Best Stochastic Volatility Model that assumes the Underlying Price Series follows a Student-t-distribution 181-182 Table 5.4 Comparison of the S&P 500 Futures Dynamics including/excluding 1987 crash 184 Table 5.5 Best Fitting Models for S&P 500 Futures excluding the 1987 crash 184

Table 5.6a Parameters for the Best Fitting Models for Four Stock Index Futures Assuming Price Series follow a Student-t Distribution and the Variance is Stochastic for the First Half of the Available

Observations

Table 5.6b Parameters for the Best Fitting Models for Four Fixed Income Futures Assuming Price Series follow a Student-t Distribution and the Variance is Stochastic for the First Half of the

186

Available Observations 186

Table 5.6c Parameters for the Best Fitting Models for Four Foreign Exchange Futures Assuming Price Series follow a Student-t Distribution and the Variance is Stochastic for the First Half of the

Available Observations 187

Table 5.7a Results for the Best Fitting Models for Four Stock Index Futures Assuming Price Series

follow a Student-t Distribution and the Variance is Stochastic (First Half) 188 Table 5.7b Results for the Best Fitting Models for Four Fixed Income Futures Assuming Price Series

follow a Student-t Distribution and the Variance is Stochastic (First Half). 188 Table 5.7c Results for the Best Fitting Models for Four Foreign Exchange Futures Assuming Price

Series follow a Student-t Distribution and the Variance is Stochastic (First Half). 189 Table 5.8 Comparisons of the Empirical Dynamics of Twelve Financial Futures Dispersion Processes

with the Dynamics of a GBM Price Series with Constant Variance versus the Best t-distribution with Constant Variance, the Best Stochastic Volatility Models that assumes the Underlying Price Series is Lognormal or follows a Student-t distribution (First Half). 190-191

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Table 5.9a Parameters for the Best Fitting Models for Four Stock Index Futures Assuming Price Series follow a Student-t Distribution and the Variance is Stochastic (Second Half). 192 Table 5.9b Parameters for the Best Fitting Models for Four Fixed Income Futures Assuming Price

Series follow a Student-t Distribution and the Variance is Stochastic (Second Halt). 193 Table 5.9c Parameters for the Best Fitting Models for Four Foreign Exchange Futures Assuming Price

Series follow a Student-t Distribution and the Variance is Stochastic (Second Half) 193 Table 5.10a Results for the Best Fitting Models for Four Stock Index Futures Assuming Price Series

follow a Student-t Distribution and the Variance is Stochastic (Second Half) 194 Table 5.10b Results for the Best Fitting Models for Four Fixed Income Futures Assuming Price Series

follow a Student-t Distribution and the Variance is Stochastic (Second Half) 195 Table 5.10c Results for the Best Fitting Models for Four Foreign Exchange Futures Assuming Price

Series follow a Student-t Distribution and the Variance is Stochastic (Second Half) 195 Table 5.11 Comparisons of the Empirical Dynamics of Twelve Financial Futures Dispersion Processes

with the Dynamics of a GBM Price Series with Constant Variance versus the Best t-distribution with Constant Variance

, the Best Stochastic Volatility Models that assume the Underlying Price Series is Lognormal or follows a t-distribution (Second Half) 196-197

VOLUME TWO

CHAPTER SEVEN

Table 7.3 Volatility Matrix for Options on the FTSE Index 268 Figure 7.3 Volatility Smiles of Options on the FTSE Index 269 Table 7.4 Quadratic Regression Results for Standardised Implied Volatility (VSI) as a function of the

Standardised Strike Price and Standardised Strike Price2 280 Table 7.5 Periods & Observations for Markets Under Analysis, Broken into Two Sub-Periods 293

CHAPTER EIGHT

Table 8.1 Dates on Which Two Major Shocks in Variance Occurred for the Twelve Markets Under

Examination 304

Table 8.3a Regression Results for the First Order Effect of the Strike Price for Four Stock Index

Options 317

Table 8.3b Regression Results for the First Order Effect of the Strike Price for Four Fixed Income

Options 320

Table 8.3c Regression Results for the First Order Effect of the Strike Price for Four Foreign Curren cy

Options 322

Table 8.4a Regression Results for the Second Order Effect of the Strike Price for Four Stock Index

Options 325

Table 8.4b Regression Results for the Second Order Effect of the Strike Price for Four Fixed Income

Options 327

Table 8.4c Regression Results for the Second Order Effect of the Strike Price for Four Foreign

Exchange Options 329

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Table 8.5a Regression Results for the Remaining Independent Variables for Four Stock Index Options 332 Table 8.5b Regression Results for the Remaining Independent Variables for Four Fixed Income

Options 335

Table 8.5c Regression Results for the Remaining Independent Variables for Four Foreign Exchange

Options 338

Table 8.11 Comaprisons of the First Order Strike Price Effect for the First Period and the Actual First Order Strike Price Effect for the Second Period

Table 8.12 Comaprisons of the Second Order Strike Price Effect for the First Period and the Actual Second Order Strike Price Effect for the Second Period

356

358

CHAPTER NINE

Table 9.4 Results from Fitting the Student-t Model Theoretical Implied Volatility Surface with a

Polynomial Function 388

Table 9.5a Regression Results for the Predicted Smile Behaviour from a Constant Volatility Student-t Distribution model against the Actual Smile Behaviour for Twelve Option Markets for the Entire

Period of the Analysis 390

Table 9.5b Regression Results for the Predicted Smile Behaviour from a Constant Volatility Student-t Distribution model against the Actual Smile Behaviour for Twelve Option Markets for the First Half of the Available Observations 391 Table 9.5c Regression Results for the Predicted Smile Behaviour from a Constant Volatility Student-t

Distribution model against the Actual Smile Behaviour for Twelve Option Markets for the Second

Half of the Available Observations 391 Table 9.6a Regression Results for the Predicted Smile Behaviour from the Optimal Stochastic

Volatility Model assuming that Underlying asset follows GBM versus the Actual Smile Behaviour

for Twelve Option Markets for the Entire Period of the Analysis 396 Table 9.6b Regression Results for the Predicted Smile Behaviour from the Optimal Stochastic

Volatility Model assuming that Underlying asset follows GBM versus the Actual Smile Behaviour

for Twelve Option Markets for the First Half of the Available Observations 396 Table 9.6c Regression Results for the Predicted Smile Behaviour from the Optimal Stochastic

Volatility Model assuming that Underlying asset follows GBM versus the Actual Smile Behaviour

for Twelve Option Markets for the Second Half of the Available Observations 397 Table 9.7a Regression Results for the Predicted Smile Behaviour from the Optimal Stochastic

Volatility Model assuming that Underlying asset follows a Student-t Distribution against the Actual

Smile Behaviour for Twelve Option Markets for the Entire Period of the Analysis 404 Table 9.7b Regression Results for the Predicted Smile Behaviour from the Optimal Stochastic

Volatility Model assuming that Underlying asset follows a Student-t Distribution against the Actual

Smile Behaviour for Twelve Option Markets for the First Half of the Available Observations - 404 Table 9.7c Regression Results for the Predicted Smile Behaviour from the Optimal Stochastic

Volatility Model assuming that Underlying asset follows a Student-t Distribution against the Actual

Smile Behaviour for Twelve Option Markets for the Second Half of the Available Observations_ 405

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Table 9.8a Comparisons of the Adjusted R-Squares Statistics for the Three Possible Models to explain the Dynamics of the Implied Volatility Smiles for Four Stock Index Options 406 Table 9.8b Comparisons of the Adjusted R-Squares Statistics for the Three Possible Models to explain

the Dynamics of the Implied Volatility Smiles for Four Fixed Income Options 407 Table 9.8c Comparisons of the Adjusted R-Squares Statistics for the Three Possible Models to explain

the Dynamics of the Implied Volatility Smiles for Four Foreign Exchange Options 407 Table 9.9a Comparisons of An Average Difference Test for the Three Possible Models to explain the

Dynamics of the Implied Volatility Smiles for Four Stock Index Options 410 Table 9.9b Comparisons of An Average Difference Test for the Three Possible Models to explain the

Dynamics of the Implied Volatility Smiles for Four Fixed Income Options 410 Table 9.9c Comparisons of An Average Difference Test for the Three Possible Models to explain the

Dynamics of the Implied Volatility Smiles for Four Foreign Exchange Options 411

VOLUME THREE

Figure 2.1a Exponentially Weighted Unconditional Volatility for Four Stock Index Futures 1 Figure 2.1b Exponentially Weighted Unconditional Volatility for Four Fixed Income Futures 2

Figure 2.1c Exponentially Weighted Unconditional Volatility for Four Foreign Exchange Futures_ 3 Figure 2.2a Autocorrelogram for four Stock Index Futures absolute daily returns 4 Figure 2.2b Autocorrelogram for four Fixed Income Futures absolute daily returns 5 Figure 2.2c Autocorrelogram for four Foreign Exchange Futures absolute daily returns

Figure 2.2d Comparison of autocorrelograms on S&P-500 Futures

6

Figure 2.2e Autocorrelogram for DAX Index Futures and Cash using absolute daily returns 8 Figure 2.3a First period autocorrelogram for four Stock Index Futures absolute daily returns 9 Figure 2.3b First period autocorrelogram for four Fixed income Futures absolute daily returns 10 Figure 2.3c First period autocorrelogram for four Foreign exchange Futures absolute daily returns

_ 11 Figure 2.4a Second period autocorrelogram for four Stock Index Futures absolute daily returns 12 Figure 2.4b Second period autocorrelogram for four Fixed Income Futures absolute daily returns

_ 13 Figure 2.4c Second period autocorrelogram for four Foreign Exchange Futures absolute daily returns.

14 Table 2.5a Summary statistics of volatility cone for four Stock Index Futures 15 Table 2.5b Summary statistics of volatility cone for four Fixed Income Futures 16 Table 2.5c Summary statistics of volatility cone for four Foreign Exchange Futures 17

Figure 2.5a Volatility cones for four Stock Index Futures

Figure 2.5b Volatility cones for four Fixed Income Futures

18

19

Figure 2.5c Volatility cones for four Foreign Exchange Futures 20 Table 2.6a First period summary statistics of volatility cone for four Stock Index Futures 21 Table 2.6b First Period summary statistics of volatility cone for four Fixed Income Futures 22 Table 2.6c First period summary statistics of volatility cone for four Foreign Exchange Futures 23 Figure 2.6a First period volatility cones for four Stock Index Futures 24 Figure 2.6b First period volatility cones for four Fixed Income Futures 25 Figure 2.6c First period volatility cones for four Foreign Exchange Futures 26

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Table 2.7a Second period summary statistics of volatility cone for four Stock Index Futures 27 Table 2.7b Second period summary statistics of volatility cone for four Fixed Income Futures 28 Table 2.7c Second period summary statistics of volatility cone for four Foreign Exchange Futures - 29

Figure 2.7a Second period volatility cones for four Stock Index Futures

Figure 2.7b Second period volatility cones for four Fixed Income Futures

30 31

Figure 2.7c Second period volatility cones for four Foreign Exchange Futures 32 Figure 2.8a Comparison of volatility estimated using overlapping and non overlapping observations for

four Stock Index Futures 33

Figure 2.8b Comparison of volatility estimated using overlapping and non overlapping observations for

four Fixed Income Futures 34

Figure 2.8c Comparison of volatility estimated using overlapping and non overlapping observations for four Foreign Exchange Futures 35 Figure 2.9a First period comparison of volatility estimated using overlapping and non overlapping

observations for four Stock Index Futures 36 Figure 2.9b First period comparison of volatility estimated using overlapping and non overlapping

observations for four Fixed Income Futures 37 Figure 2.9c First period comparison of volatility estimated using overlapping and non overlapping

observations for four Foreign Exchange Futures 38 Figure 2.10a Second period comparison of volatility estimated using overlapping and non overlapping

observations for four Stock Index Futures 39 Figure 2.10b Second period comparison of volatility estimated using overlapping and non overlapping

observations for four Fixed Income Futures 40 Figure 2.10c Second period comparison of volatility estimated using overlapping and non overlapping

observations for four Foreign Exchange Futures 41 Figure 2.11 a Standard deviation of the volatility cone, Biased vs. Unbiased vs. I. I. D. for four Stock

Index Futures 42

Figure 2.11 b Standard deviation of the volatility cone, Biased vs. Unbiased vs. I. I. D. for four Fixed

Income Futures 43

Figure 2.11c Standard deviation of the volatility cone, Biased vs. Unbiased vs. I. I. D. for four Foreign

Exchange Futures 44

Figure 2.12a First period Standard deviation of the volatility cone, Biased vs. Unbiased vs. I. I. D. for

four Stock Index Futures 45

Figure 2.12b First period Standard deviation of the volatility cone, Biased vs. Unbiased vs. I. I. D. for four Fixed Income Futures

Figure 2.12c First period Standard deviation of the volatility cone, Biased vs. Unbiased vs. I. I. D. for four Foreign Exchange Futures

46

47

Figure 2.13a Second period Standard deviation of the volatility cone, Biased vs. Unbiased vs. I. I. D. for

four Stock Index Futures 48

Figure 2.13b Second period Standard deviation of the volatility cone, Biased vs. Unbiased vs. I. I. D. for

four Fixed Income Futures 49

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Figure 2.13c Second period Standard deviation of the volatility cone, Biased vs. Unbiased vs. I. I. D. for four Foreign Exchange Futures 50 Figure 2.14a Time decay factors for the volatility of volatility for four Stock Index Futures 51 Figure 2.14b Time decay factors for the volatility of volatility for four Fixed Income Futures 52 Figure 2.14c Time decay factors for the volatility of volatility for four Foreign Exchange Futures

- 53 Figure 2.15a First period time decay factors for the volatility of volatility for four Stock Index Futures

Figure 2.15b First period time decay factors for the volatility of volatility for four Fixed Income

Futures 55

Figure 2.15c First period time decay factors for the volatility of volatility for four Foreign Exchange

Futures 56

Figure 2.16a Second period time decay factors for the volatility of volatility for four Stock Index

Futures 57

Figure 2.16b Second period time decay factors for the volatility of volatility for four Fixed Income

Futures 58

Figure 2.16c Second period time decay factors for the volatility of volatility for four Foreign Exchange

Futures 59

Table 7.1a Summary statistics for the At-the-money Implied Volatilities for four Stock Index Options, estimated ona a Daily basis and at 5-days increments until expiration 60 Table 7.1b Summary statistics for the At-the-money Implied Volatilities for four Fixed Income

Options, estimated ona a Daily basis and at 5-days increments until expiration

54

61

Table 7.1c Summary statistics for the At-the-money Implied Volatilities for four Foreign Exchange

Options, estimated ona a Daily basis and at 5-days increments until expiration 62 Figure 7.1a Time Series Plots of At-the-money Implied Volatilities for Four Stock Index Options

- 63 Figure 7.1b Time Series Plots of At-the-money Implied Volatilities for Four Fixed Income Options 64 Figure 7.1c Time Series Plots of At-the-money Implied Volatilities for Four Foreign Exchange Options

65 Table 7.2 Option prices and implied volatilities for FTSE-100 as of May7th, 1996 66

Figure 7.2a Implied. Volatility Smiles for Four Stock Index Options as of May 7,1996 67 Figure 7.2b Implied Volatility Smiles for Four Fixed Income Options as of May 7,1996 68 Figure 7.2c Implied Volatility Smiles for Four Foreign Exchange Options as of May 7,1996 69 Figure 7.4 Unstandardized volatility smiles for 1996 FTSE-100 contracts 70 Figure 7.5 Standardized volatility smiles for 1996 FTSE-100 contracts grouped by contracts 71

Figure 7.6 Standardized volatility smiles for 1996 FTSE-100 contracts grouped by days to expiration

72

Figure 7.7 Interpolated volatility smiles for 1996 FTSE-100 contracts Figure 7.8a Skewness for 1996 FTSE-100 contracts

Figure 7.8b Skewness for 1996 FTSE-100 contracts

73 74

75

Figure 7.9a Kurtosis for 1996 FTSE-100 contracts 76 Figure 7.9b Kurtosis for 1996 FTSE-100 contracts 77

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Figure 7.1Oa Scatterplots of minimum VSI strike price relative to underlying future price for the FTSE-

100 during 1996 78

Figure 7.10b Plot of the percentage difference between the Underlying Futures Price to the minimum Strike Price for Four Options Cycles for the FTSE-100 during 1996

Figure 7.11a 1996 Volatility smiles for Four Stock Index Options

79 80

Figure 7.11b 1996 Volatility smiles for Four Fixed Income Options 81 Figure 7.1 Ic 1996 Volatility smiles for Four Foreign Exchange Options 82 Figure 7.12a 1996 Skewness for Four Stock Index Options 83 Figure 7.12b 1996 Skewness for Four Fixed Income Options 84 Figure 7.12c 1996 Skewness for Four Foreign Exchange Options 85 Figure 7.13a 1996 Skewness for Four Stock Index Options 86

Figure 7.13b 1996 Skewness for Four Fixed Income Options

Figure 7.13c 1996 Skewness for Four Foreign Exchange Options

87

88

Figure 7.14a 1996 Kurtosis for Four Stock Index Options 89 Figure 7.14b 1996 Kurtosis for Four Fixed Income Options 90 Figure 7.14c 1996 Kurtosis for Four Foreign Exchange Options 91 Figure 7.15a 1996 Kurtosis for Four Stock Index Options 92 Figure 7.15b 1996 Kurtosis for Four Fixed Income Options 93 Figure 7.15c 1996 Kurtosis for Four Foreign Exchange Options 94 Figure 7.16a Standardized Volatility Smiles for Four Stock Index Options for the entire period of

analysis 95

Figure 7.16b Standardized Volatility Smiles for Four Fixed Income Options for the entire period of

analysis 96

Figure 7.16c Standardized Volatility Smiles for Four Foreign Exchange Options for the entire period of

analysis 97

Figure 7.17a Standardized Volatility Smiles for Four Stock Index Options for the first portion of the

available observations 98

Figure 7.17b Standardized Volatility Smiles for Four Fixed Income Options for the first portion of the

available observations 99

Figure 7.17c Standardized Volatility Smiles for Four Foreign Exchange Options for the first portion of

the available observations 100

Figure 7.18a Standardized Volatility Smiles for Four Stock Index Options for the second portion of the

available observations 101

Figure 7.18b Standardized Volatility Smiles for Four Fixed Income Options for the second portion of

the available observations 102

Figure 7.18c Standardized Volatility Smiles for Four Foreign Exchange Options for the second portion of the available observations 103 Table 8.2a Ordinary Least Squares Regression Results for four Stock Index Options 120 Table 8.2b Ordinary Least Squares Regression Results for four Fixed Income Options 121 Table 8.2c Ordinary Least Squares Regression Results for four Foreign Exchange Options 122

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Table 8.6a Ordinary Least Squares Regression Results for four Stock Index Options Including

Contracts as Dummy Variables 123 Table 8.6b Ordinary Least Squares Regression Results for four Fixed Income Options Including

Contracts as Dummy Variables 124 Table 8.6c Ordinary Least Squares Regression Results for four Foreign Exchange Options Including

Contracts as Dummy Variables 125 Table 8.7a Weighted Least Squares Regression Results for four Stock Index Options 126 Table 8.7b Weighted Least Squares Regression Results for four Fixed Income Options 127 Table 8.7c Weighted Least Squares Regression Results for four Foreign Exchange Options 128 Table 8.8 Generalized Least Squares Regression Results fot three Selected Options Markets 129

Table 8.9a Ordinary Least Squares Regression Results for four Stock Index Options using the First

Half of Available Observations 130 Table 8.9b Ordinary Least Squares Regression Results for four Fixed Income Options using the First

Half of Available Observations 131 Table 8.9c Ordinary Least Squares Regression Results for four Foreign Exchange Options using the

First Half of Available Observations 132 Table 8.10a Ordinary Least Squares Regression Results for four Stock Index Options using the Second

Half of Available Observations 133 Table 8.1Ob Ordinary Least Squares Regression Results for four Fixed Income Options using the

Second Half of Available Observations 134 Table 8.10c Ordinary Least Squares Regression Results for four Foreign Exchange Options using the

Second Half of Available Observations 135

Table 8.13a Ordinary Least Squares Regression Results for four Stock Index Options compared to All

Stock Index Options 136

Table 8.13b Ordinary Least Squares Regression Results for four Fixed Income Options compared to

All Fixed Income Options 137

Table 8.13c Ordinary Least Squares Regression Results for four Foreign Exchange Options compared

to All Foreign Exchange Options 138 Table 8.14 Ordinary Least Squares Regression Results for All Option Markets comaperd to the three

Asset Classes 139

Table 9.1 Monte Carlo generated Call Option Prices using a Student-t distribution with constant

volatility 140

Table 9.2 Volatilities implied by the Monte Carlo generated Call Option Prices using a Student-t

distribution with constant volatility 141 Table 9.3 Standardized implied volatilities using a Student-t distribution with constant volatility - 142 Figure 9.1 Standardized Volatility Smiles using a Student-t distribution with constant volatility - 143 Figure 9.2a S&P-500 Whole Period Implied Volatility Smile Patterns that are consistent with the three

Security Price Models estimated using Unconditional Dispersion Process compared to the Actual 144 Figure 9.2b FTSE-100 Whole Period Implied Volatility Smile Patterns that are consistent with the three Security Price Models estimated using Unconditional Dispersion Process compared to the Actual 145

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Figure 9.2c Nikkei-225 Whole Period Implied Volatility Smile Patterns that are consistent with the three Security Price Models estimated using Unconditional Dispersion Process compared to the

Actual 146

Figure 9.2d DAX Whole Period Implied Volatility Smile Patterns that are consistent with the three

Security Price Models estimated using Unconditional Dispersion Process compared to the Actual 147 Figure 9.3a Bund Whole Period Implied Volatility Smile Patterns that are consistent with the three

Security Price Models estimated using Unconditional Dispersion Process compared to the Actual 148 Figure 9.3b Gilt Whole Period Implied Volatility Smile Patterns that are consistent with the three

Security Price Models estimated using Unconditional Dispersion Process compared to the Actual 149 Figure 9.3c BTP Whole Period Implied Volatility Smile Patterns that are consistent with the three

Security Price Models estimated using Unconditional Dispersion Process compared to the Actual 150 Figure 9.3d US T-Bond Whole Period Implied Volatility Smile Patterns that are consistent with the

three Security Price Models estimated using Unconditional Dispersion Process compared to the

Actual 151

Figure 9.4a D-Mark Whole Period Implied Volatility Smile Patterns that are consistent with the three

Security Price Models estimated using Unconditional Dispersion Process compared to the Actual 152 Figure 9.4b B-Pound Whole Period Implied Volatility Smile Patterns that are consistent with the three

Security Price Models estimated using Unconditional Dispersion Process compared to the Actual 153 Figure 9.4c J-Yen Whole Period Implied Volatility Smile Patterns that are consistent with the three

Security Price Models estimated using Unconditional Dispersion Process compared to the Actual 154 Figure 9.4d S-Franc Whole Period Implied Volatility Smile Patterns that are consistent with the three

Security Price Models estimated using Unconditional Dispersion Process compared to the Actual 155 Figure 9.5a S&P-500 First Period Implied Volatility Smile Patterns that are consistent with the three

Security Price Models estimated using Unconditional Dispersion Process compared to the Actual 156 Figure 9.5b FTSE-100 First Period Implied Volatility Smile Patterns that are consistent with the three

Security Price Models estimated using Unconditional Dispersion Process compared to the Actual 157 Figure 9.5c Nikkei-225 First Period Implied Volatility Smile Patterns that are consistent with the three

Security Price Models estimated using Unconditional Dispersion Process compared to the Actual 158 Figure 9.5d DAX First Period Implied Volatility Smile Patterns that are consistent with the three

Security Price Models estimated using Unconditional Dispersion Process compared to the Actual 159 Figure 9.6a Bund First Period Implied Volatility Smile Patterns that are consistent with the three

Security Price Models estimated using Unconditional Dispersion Process compared to the Actual 160 Figure 9.6b Gilt First Period Implied Volatility Smile Patterns that are consistent with the three

Security Price Models estimated using Unconditional Dispersion Process compared to the Actual 161 Figure 9.6c BTP First Period Implied Volatility Smile Patterns that are consistent with the three

Security Price Models estimated using Unconditional Dispersion Process compared to the Actual 162 Figure 9.6d US T-Bond First Period Implied Volatility Smile Patterns that are consistent with the three

Security Price Models estimated using Unconditional Dispersion Process compared to the Actual 163 Figure 9.7a D-Mark First Period Implied Volatility Smile Patterns that are consistent with the three

Security Price Models estimated using Unconditional Dispersion Process compared to the Actual 164

Figure

Table 2.4, Statistics of the Daily, Weekly and Monthly Returns for Twelve Financial Futures for the First Half of the Observation Period
Table 2.5, Statistics of the Daily, Weekly and Monthly Returns for Twelve Financial Futures for the Second Half of the Observation Period
Table 3.2.
Table 3.11, Comparisons of the Empirical Dynamics of Twelve Financial Futures Dispersion Processes with the Dynamics of a GBM Price Series with Constant Variance and the Best t-
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References

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