Table of Contents for Pricing and Hedging of Derivative Securities. By Lars Tyge Nielsen. Textbook in continuous-time finance theory. Oxford University Press, 1999.
1 Stochastic Processes 2
1.1 Basic Notions 2
1.2 Brownian Motions 5
1.3 Generalized Brownian Motions 10
1.4 Information Structures 14
1.5 Wiener Processes 17
1.6 Generalized Wiener Processes 21
1.7 (*) Identification of Processes 26
1.8 Time Integrals 30
1.9 Stochastic Integrals 32
1.10 (*) Predictable Processes 44
1.11 Summary 46
1.12 (*) Notes 49
2 Ito Calculus 52
2.1 Ito Processes and Ito’s Lemma 52
2.2 Integrals with Respect to Ito Processes 61
2.3 Further Manipulations of Ito ‘s Formula 65
2.4 Stochastic Exponentials 73
2.5 Girsanov’s Theorem 76
2.6 Summary 87
2.7 (*) Notes 89
3 Gaussian Processes 91
3.1 Basic Notions 91
3.2 Deterministic Integrands 93
3.3 (*) Brownian Bridge Processes 96
3.4 Conditionally Gaussian One-Factor Processes 103
3.5 Ornstein-Uhlenbeck Processes 107
3.6 Summary 114
3.7 (*) Notes 116
4 Securities and Trading Strategies 117
4.1 Elements of the Model 118
4.2 (*) Almost Simple Trading Strategies 125
4.3 State Prices 130
4.4 The Interest Rate and the Prices of Risk 131
4.5 Existence and Uniqueness of Prices of Risk 133
4.6 Arbitrage and Admissibility 145
4.7 (*) The Doubling Strategy 148
4.8 Changing the Unit of Account 152
4.9 Summary 156
4.10 (*) Notes 160
5 The Martingale Valuation Principle 165
5.1 Replication of Claims 165
5.2 Delta Hedging 168
5.3 Making a Trading Strategy Self-Financing 168
5.4 Dynamically Complete Markets 172
5.5 How to Replicate 175
5.6 Example: Cash-or-Nothing Options 177
5.7 The State Price Process as a Primitive 182
5.8 Risk Adjusted Probabilities 185
5.9 Summary 191
5.10 (*) Notes 194
6 The Black-Scholes Model 197
6.1 Review of the Black-Scholes Economy 197
6.2 The Value Function 201
6.3 Cash-or-Nothing Options Revisited 208
6.4 Asset-Or-Nothing Options 211
6.5 Standard Call Options 214
6.6 Standard Put Options 225
6.7 (*) Black-Scholes and the Heat Equation 228
6.8 (*) The Black-Scholes PDE: Terminal Data 231
6.9 (*) The Black-Scholes PDE: Integrability 237
6.10 (*) The Black-Scholes PDE: Uniqueness 240
6.11 Summary 242
6.12 (*) Notes 247
7 Gaussian Term Structure Models 249
7.1 Zero-Coupon Bonds and Forward Rates 249
7.2 The Vasicek Model 253
7.3 The Risk Adjusted Dynamics as Primitives 261
7.4 The Vasicek Model: Forward Rates 263
7.5 The Vasicek Model: Yields 272
7.6 The Merton Model 280
7.7 The Extended Vasicek Model 291
7.8 The Simplified Hull-White Model 301
7.9 The Continuous-Time Ho-Lee Model 309
7.10 Summary 309
7.11 (*) Notes 315
A Measure and Probability 317
A.1 Sigma-Algebras 317
A.2 Measures and Measure Spaces 323
A.3 Borel Sigma-Algebras and Lebesgue Measure 328
A.4 Measurable Mappings 334
A.5 Convergence in Probability 340
A.6 Measures and Distribution Functions 341
A.7 Stochastic Independence 342
B Lebesgue Integrals and Expectations 346
B.1 Lebesgue Integration 346
B.2 Tonelli’s and Fubini’s Theorems 354
B.3 Densities and Absolute Continuity 358
B.4 Locally Integrable Functions 362
B.5 Conditional Expectations and Probabilities 363
B.6 Lp-Spaces 367
C The Heat Equation 370
C.1 The Martingale Solution 371
C.2 The Heat Equation: Initial Data 377
C.3 The Heat Equation: Integrability 382
C.4 The Heat Equation: Uniqueness 385
C.5 Notes 387
D Suggested Solutions to Exercises 389
D.1 Solutions for Chapter 1 389
D.2 Solutions for Chapter 2 496
D.3 Solutions for Chapter 3 497
D.4 Solutions for Chapter 4 497
D.5 Solutions for Chapter 5 499
D.6 Solutions for Chapter 6 401
D.7 Solutions for Chapter 7 413
E Suggested Solutions to Exercises 421
E.1 Solutions for Appendix A 421
E.2 Solutions for Appendix B 427
References 434
Index 439