Option Valuation under Stochastic Volatility
By Alan L. Lewis. 2000
628 citations recorded by the source corpus.
Subfields: Finance
View Paper: https://www.semanticscholar.org/paper/484e271a2199ff86525323ec67d1bfb2716e3397
How researchers see this paper
The researchers whose trusted networks rank it highest, strongest advocate first. Every researcher gets a different order.
In Finance
- Martino Grasselli
- Antoine Jacquier
- Martin Keller‐Ressel
- Christopher S. Jones
- Peter P. Carr
- Guang-Hua Lian
- Gabriel G. Drimus
- Carol Alexander
Citations in the corpus
- The Shape and Term Structure of the Index Option Smirk: Why Multifactor Stochastic Volatility Models Work So Well (2009, neutral): “[35] Lewis, A.”
- Equivalent and absolutely continuous measure changes for jump-diffusion processes (2005, neutral): “martingale framework (see also Remark 2.7 below), extending the classical results by Novikov [23] and Kazamaki [15]. Discussions of measure changes in a finance context can be found in Sin [30], Lewis [20], Delbaen and Shirakawa [5, 6]. Wong and Heyde [32] give necessary and sufficient conditions for t”
- Pricing swaps and options on quadratic variation under stochastic time change models—discrete observations case (2010, methodology): “Indeed, assuming that the risk-neutral process for instantaneous variance is: dvt = κvt(θ − vt)dt + ²v3/2t dW̃t, t ∈ [0, T ], (69) with θ a known constant, Heston[23] and Lewis[24] solve for the characteristic function of XT in closed form.”
- Consistent Modelling of VIX and Equity Derivatives Using a 3/2 plus Jumps Model (2012, methodology): “For equity derivatives pricing requires the performance of a numerical Fourier inversion, such as those presented in [9] and [25].”
- General closed-form basket option pricing bounds (2016, neutral): “However the numerical inversion is not restricted to this approach and can be performed by using alternative representations, as in Lewis (2000) and Lee (2004).”
- Forecasting Financial Volatilities with Extreme Values: The Conditional Autoregressive Range (CARR) Model (2005, background): “For insightful implementations of GARCH diffusion models to derivative pricing, see Duan (1995, 1997), Ritchken and Trevor (1999), Heston and Nandi (2000), and the recent book by Lewis (2000).”
- Option Pricing by Transform Methods: Extensions, Unification, and Error Control (2004, methodology): “Outside of that family, Lewis (2000), Schöbel-Zhu (1999), and Zhu (2000) obtain characteristic functions also for non-affine volatility and interest rate models.”
- Asymptotics of Implied Volatility far from Maturity (2009, background): “This result also appears in Chapter 6 of [10] for stochastic volatility models under a heuristic asymptotic factorization assumption on the function Mτ .”
- Approximation and Calibration of Short-Term Implied Volatilities under Jump-Diffusion Stochastic Volatility (2007, methodology): “Lewis (2000) derives the asymptotic expansion of implied volatility assuming small volatility of volatility.”
- A Simple Option Formula for General Jump-Diffusion and Other Exponential Levy Processes (2001, neutral): “As shown in Lewis (2000), payoff transforms ( ) ˆ w z for typical claims exist and are regular in their own strips w S in the complex z-plane, just like characteristic functions.”
- Options on realized variance by transform methods: a non-affine stochastic volatility model (2009, methodology): “Comparison between true model implied volatilities and the Medvedev and Scaillet (2007) expansion for a maturity of one month.”
- A stochastic volatility model and optimal portfolio selection (2013, neutral): “…ðtÞÞ dt þ r ffiffiffiffiffiffiffiffiffiY ðtÞp dW2ðtÞ: ð5Þ If, taking n ¼ 1=2 and having the same choices for Aðy; tÞ;Bðy; tÞ as above, we get another model in which ZðtÞ follows the dynamics dZðtÞ ¼ ½kZ þ ðr2 khÞZ2 dt rZ3=2 dW2ðtÞ; the latter is called a ‘3/2 model’ in the literature (Lewis 2000).”
- Extended Libor Market Models with Stochastic Volatility (2001, positive): “Following the ideas in Lewis (2000), let us introduce the Laplace transform ( )( ) , ( );s U TtE e L t V t s− ≡ where s is the complex-valued argument to the Laplace-transform.”