2006
DOI: 10.1142/s0219024906003810
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A Quasi-Monte Carlo Algorithm for the Normal Inverse Gaussian Distribution and Valuation of Financial Derivatives

Abstract: We propose a quasi-Monte Carlo (qMC) algorithm to simulate variates from the normal inverse Gaussian (NIG) distribution. The algorithm is based on a Monte Carlo technique found in Rydberg [13], and is based on sampling three independent uniform variables. We apply the algorithm to three problems appearing in finance. First, we consider the valuation of plain vanilla call options and Asian options. The next application considers the problem of deriving implied parameters for the underlying asset dynamics based … Show more

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Cited by 14 publications
(9 citation statements)
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“…The Heston model assumes diffusion dynamics for both the spot price and the volatility, but even though the spot price and volatility are jointly Markovian, we do not deal with a stationary, independent increment process. Therefore our situation is different to the majority of papers that apply QMC methods to finance problems [1,2,5,4,9,14,27,31,32,38,46,49] and, in particular, the Linear Transform (LT) method of Imai and Tan [31,32] (see also Leobacher [38]) does not seem applicable in our case of path-dependent options when the underlying follows either the Heston model or the SVJ model.…”
Section: Introductionmentioning
confidence: 71%
“…The Heston model assumes diffusion dynamics for both the spot price and the volatility, but even though the spot price and volatility are jointly Markovian, we do not deal with a stationary, independent increment process. Therefore our situation is different to the majority of papers that apply QMC methods to finance problems [1,2,5,4,9,14,27,31,32,38,46,49] and, in particular, the Linear Transform (LT) method of Imai and Tan [31,32] (see also Leobacher [38]) does not seem applicable in our case of path-dependent options when the underlying follows either the Heston model or the SVJ model.…”
Section: Introductionmentioning
confidence: 71%
“…For example, one can resort to Monte Carlo techniques to simulate sample paths for the asset. Averaging a sufficiently large number of realized payoffs yields the required price, see for example [6,23]. One can also attempt to derive a partial differential equation for pricing which can be solved using numerical methods [48].…”
Section: Pricing With Characteristic Functionmentioning
confidence: 99%
“…In Benth et al . (2006), a quasi‐Monte Carlo method is developed based on this simulation algorithm.…”
Section: The Normal Inverse Gaussian Distributionmentioning
confidence: 99%
“…In order to make the univariate dynamics risk neutral, we perform an Esscher transform which entails finding a parameter θ solving (5) in the one‐dimensional case ( d = 1). In practice this implies a modification of the skewness analogous to the multivariate case discussed above (see Benth et al ., 2006, for more details). In the simulation studies below we match using the terminal distribution at time t instead of the log‐returns.…”
Section: Approximation Using a Univariate Nig Distributionmentioning
confidence: 99%