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E-grāmata: Essentials of Stochastic Finance: Facts, Models, Theory [World Scientific e-book]

(Steklov Mathematical Inst & Moscow State Univ, Russia)
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This important book provides information necessary for those dealing with stochastic calculus and pricing in the models of financial markets operating under uncertainty; introduces the reader to the main concepts, notions and results of stochastic financial mathematics; and develops applications of these results to various kinds of calculations required in financial engineering. It also answers the requests of teachers of financial mathematics and engineering by making a bias towards probabilistic and statistical ideas and the methods of stochastic calculus in the analysis of market risks.
Foreword xiii
Part
1. Facts. Models
1(380)
Chapter I. Main Concepts, Structures, and Instruments. Aims and Problems of Financial Theory and Financial Engineering
2(78)
1. Financial structures and instruments
3(32)
1a. Key objects and structures
3(3)
1b. Financial markets
6(14)
1c. Market of derivatives, Financial instruments
20(15)
2. Financial markets under uncertainty. Classical theories of the dynamics of financial indexes, their critics and revision. Neoclassical theories
35(34)
2a. Random walk conjecture and concept of efficient market
37(9)
2b. Investment portfolio. Markowitz's diversification
46(5)
2c. CAPM: Capital Asset Pricing Model
51(5)
2d. APT: Arbitrage Pricing Theory
56(4)
2e. Analysis, interpretation, and revision of the classical concepts of efficient market. I
60(5)
2f. Analysis, interpretation, and revision of the classical concepts of efficient market. II
65(4)
3. Aims and problems of financial theory, engineering, and actuarial calculations
69(11)
3a. Role of financial theory and financial engineering. Financial risks
69(2)
3b. Insurance: a social mechanism of compensation for financial losses
71(6)
3c. A classical example of actuarial calculations: the Lundberg Cramer theorem
77(3)
Chapter II. Stochastic Models. Discrete Time
80(108)
1. Necessary probabilistic concepts and several models of the dynamics of market prices
81(36)
1a. Uncertainty and irregularity in the behavior of prices. Their description and representation in probabilistic terms
81(8)
1b. Doob decomposition. Canonical representations
89(6)
1c. Local martingales. Martingale transformations. Generalized martingales
95(8)
1d. Gaussian and conditionally Gaussian models
103(6)
1e. Binomial model of price evolution
109(3)
1f. Models with discrete intervention of chance
112(5)
2. Linear stochastic models
117(35)
2a. Moving average model MA(q)
119(6)
2b. Autoregressive model AR(p)
125(13)
2c. Autoregressive and moving average model ARMA(p, q) and integrated model ARIMA(p, d, q)
138(4)
2d. Prediction in linear models
142(10)
3. Nonlinear stochastic conditionally Gaussian models
152(24)
3a. ARCH and GARCH models
153(10)
3b. EGARCH, TGARCH, HARCH, and other models
163(5)
3c. Stochastic volatility models
168(8)
4. Supplement: dynamical chaos models
176(12)
4a. Nonlinear chaotic models
176(7)
4b. Distinguishing between `chaotic' and `stochastic' sequences
183(5)
Chapter III. Stochastic Models. Continuous Time
188(126)
1. Non-Gaussian models of distributions and processes
189(32)
1a. Stable and infinitely divisible distributions
189(11)
1b. Levy processes
200(7)
1c. Stable processes
207(7)
1d. Hyperbolic distributions and processes
214(7)
2. Models with self-similarity. Fractality
221(15)
2a. Hurst's statistical phenomenon of self-similarity
221(3)
2b. A digression on fractal geometry
224(2)
2c. Statistical self-similarity. Fractal Brownian motion
226(6)
2d. Fractional Gaussian noise: a process with strong aftereffect
232(4)
3. Models based on a Brownian motion
236(42)
3a. Brownian motion and its role of a basic process
236(4)
3b. Brownian motion: a compendium of classical results
240(11)
3c. Stochastic integration with respect to a Brownian motion
251(6)
3d. Ito processes and Ito's formula
257(7)
3e. Stochastic differential equations
264(7)
3f. Forward and backward Kolmogorov's equations. Probabilistic representation of solutions
271(7)
4. Diffusion models of the evolution of interest rates, stock and bond prices
278(16)
4a. Stochastic interest rates
278(6)
4b. Standard diffusion model of stock prices (geometric Brownian motion) and its generalizations
284(5)
4c. Diffusion models of the term structure of prices in a family of bonds
289(5)
5. Semimartingale models
294(20)
5a. Semimartingales and stochastic integrals
294(7)
5b. Doob-Meyer decomposition. Compensators. Quadratic variation
301(6)
5c. Ito's formula for semimartingales. Generalizations
307(7)
Chapter IV. Statistical Analysis of Financial Data
314(67)
1. Empirical data. Probabilistic and statistical models of their description. Statistics of `ticks'
315(12)
1a. Structural changes in financial data gathering and analysis
315(3)
1b. Geography-related features of the statistical data on exchange rates
318(3)
1c. Description of financial indexes as stochastic processes with discrete intervention of chance
321(3)
1d. On the statistics of `ticks'
324(3)
2. Statistics of one-dimensional distributions
327(18)
2a. Statistical data discretizing
327(2)
2b. One-dimensional distributions of the logarithms of relative price changes. Deviation from the Gaussian property and leptokurtosis of empirical densities
329(5)
2c. One-dimensional distributions of the logarithms of relative price changes. `Heavy tails' and their statistics
334(6)
2d. One-dimensional distributions of the logarithms of relative price changes. Structure of the central parts of distributions
340(5)
3. Statistics of volatility, correlation dependence, and aftereffect in prices
345(22)
3a. Volatility. Definition and examples
345(6)
3b. Periodicity and fractal structure of volatility in exchange rates
351(3)
3c. Correlation properties
354(4)
3d. `Devolatization'. Operational time
358(6)
3e. `Cluster' phenomenon and aftereffect in prices
364(3)
4. Statistical R/S-analysis
367(14)
4a. Sources and methods of R/S-analysis
367(9)
4b. R/S-analysis of some financial time series
376(5)
Part
2. Theory
381(422)
Chapter V. Theory of Arbitrage in Stochastic Financial Models. Discrete Time
382(120)
1. Investment portfolio on a (B, S)-market
383(27)
1a. Strategies satisfying balance conditions
383(12)
1b. Notion of `hedging'. Upper and lower prices. Complete and incomplete markets
395(4)
1c. Upper and lower prices in a single-step model
399(9)
1d. CRR-model: an example of a complete market
408(2)
2. Arbitrage-free market
410(23)
2a. `Arbitrage' and `absence of arbitrage'
410(3)
2b. Martingale criterion of the absence of arbitrage. First fundamental theorem
413(4)
2c. Martingale criterion of the absence of arbitrage. Proof of sufficiency
417(1)
2d. Martingale criterion of the absence of arbitrage. Proof of necessity (by means of the Esscher conditional transformation)
417(7)
2e. Extended version of the First fundamental theorem
424(9)
3. Construction of martingale measures by means of an absolutely continuous change of measure
433(48)
3a. Main definitions. Density process
433(6)
3b. Discrete version of Girsanov's theorem. Conditionally Gaussian case
439(7)
3c. Martingale property of the prices in the case of a conditionally Gaussian and logarithmically conditionally Gaussian distributions
446(4)
3d. Discrete version of Girsanov's theorem. General case
450(9)
3e. Integer-valued random measures and their compensators. Transformation of compensators under absolutely continuous changes of measures. `Stochastic integrals'
459(8)
3f. `Predictable' criteria of arbitrage-free (B, S)-markets
467(14)
4. Complete and perfect arbitrage-free markets
481(21)
4a. Martingale criterion of a complete market. Statement of the Second fundamental theorem. Proof of necessity
481(2)
4b. Representability of local martingales. `S-representability'
483(2)
4c. Representability of local martingales (`Mu-representability' and `(Mu-Nu)-representability')
485(3)
4d. `S-representability' in the binomial CRR-model
488(3)
4e. Martingale criterion of a complete market. Proof of necessity for d = 1
491(6)
4f. Extended version of the Second fundamental theorem
497(5)
Chapter VI. Theory of Pricing in Stochastic Financial Models. Discrete Time
502(130)
1. European hedge pricing on arbitrage-free markets
503(22)
1a. Risks and their reduction
503(2)
1b. Main hedge pricing formula. Complete markets
505(7)
1c. Main hedge pricing formula. Incomplete markets
512(6)
1d. Hedge pricing on the basis of the mean square criterion
518(3)
1e. Forward contracts and futures contracts
521(4)
2. American hedge pricing on arbitrage-free markets
525(28)
2a. Optimal stopping problems. Supermartingale characterization
525(10)
2b. Complete and incomplete markets. Supermartingale characterization of hedging prices
535(3)
2c. Complete and incomplete markets. Main formulas for hedging prices
538(8)
2d. Optional decomposition
546(7)
3. Scheme of series of `large' arbitrage-free markets and asymptotic arbitrage
553(35)
3a. One model of `large' financial markets
553(2)
3b. Criteria of the absence of asymptotic arbitrage
555(4)
3c. Asymptotic arbitrage and contiguity
559(16)
3d. Some issues of approximation and convergence in the scheme of series of arbitrage-free markets
575(13)
4. European options on a binomial (B, S)-market
588(20)
4a. Problems of option pricing
588(2)
4b. Rational pricing and hedging strategies. Pay-off function of the general form
590(5)
4c. Rational pricing and hedging strategies. Markovian pay-off functions
595(3)
4d. Standard call and put options
598(6)
4e. Option-based strategies (combinations and spreads)
604(4)
5. American options on a binomial (B, S)-market
608(24)
5a. American option pricing
608(3)
5b. Standard call option pricing
611(10)
5c. Standard put option pricing
621(4)
5d. Options with aftereffect. `Russian option' pricing
625(7)
Chapter VII. Theory of Arbitrage in Stochastic Financial Models. Continuous Time
632(102)
1. Investment portfolio in semimartingale models
633(16)
1a. Admissible strategies. Self-financing. Stochastic vector integral
633(10)
1b. Discounting processes
643(3)
1c. Admissible strategies. Some special classes
646(3)
2. Semimartingale models without opportunities for arbitrage. Completeness
649(13)
2a. Concept of absence of arbitrage and its modifications
649(2)
2b. Martingale criteria of the absence of arbitrage. Sufficient conditions
651(4)
2c. Martingale criteria of the absence of arbitrage. Necessary and sufficient conditions (a list of results)
655(5)
2d. Completeness in semimartingale models
660(2)
3. Semimartingale and martingale measures
662(42)
3a. Canonical representation of semimartingales. Random measures. Triplets of predictable characteristics
662(10)
3b. Construction of marginal measures in diffusion models. Girsanov's theorem
672(11)
3c. Construction of martingale measures for Levy processes. Esscher transformation
683(8)
3d. Predictable criteria of the martingale property of prices. I
691(3)
3e. Predictable criteria of the martingale property of prices. II
694(4)
3f. Representability of local martingales (`(H^(c), Mu-Nu)-representability')
698(3)
3g. Girsanov's theorem for semimartingales. Structure of the densities of probabilistic measures
701(3)
4. Arbitrage, completeness, and hedge pricing in diffusion models of stock
704(13)
4a. Arbitrage and conditions of its absence. Completeness
704(5)
4b. Price of hedging in complete markets
709(3)
4c. Fundamental partial differential equation of hedge pricing
712(5)
5. Arbitrage, completeness, and hedge pricing in diffusion models of bonds
717(17)
5a. Models without opportunities for arbitrage
717(11)
5b. Completeness
728(2)
5c. Fundamental partial differentai equation of the term structure of bonds
730(4)
Chapter VIII. Theory of Pricing in Stochastic Financial Models. Continuous Time
734(69)
1. European options in diffusion (B, S)-stockmarkets
735(16)
1a. Bachelier's formula
735(4)
1b. Black-Scholes formula. Martingale inference
739(6)
1c. Black-Scholes formula. Inference based on the solution of the fundamental equation
745(3)
1d. Black-Scholes formula. Case with dividends
748(3)
2. American options in diffusion (B, S)-stockmarkets. Case of an infinite time horizon
751(27)
2a. Standard call option
751(12)
2b. Standard put option
763(2)
2c. Combinations of put and call options
765(2)
2d. Russian option
767(11)
3. American options in diffusion (B, S)-stockmarkets. Finite time horizons
778(14)
3a. Special features of calculations on finite time intervals
778(4)
3b. Optimal stopping problems and Stephan problems
782(2)
3c. Stephan problem for standard call and put options
784(4)
3d. Relations between the prices of European and American options
788(4)
4. European and American options in a diffusion (B, P)-bondmarket
792(11)
4a. Option pricing in a bondmarket
792(3)
4b. European option pricing in single-factor Gaussian models
795(4)
4c. American option pricing in single-factor Gaussian models
799(4)
Bibliography 803(22)
Index 825(8)
Index of symbols 833