Quantitative Finance · 2018 · 31 citations · 25 references
BusinessFinanceStochastic ModelingStochastic ProcessesUncertainty QuantificationMonte Carlo MethodsMonte Carlo SimulationPolynomial Chaos ExpansionsSimulation MethodsStochastic VolatilityVolatility ModelingBessel FunctionsBessel ProcessCumulative Distribution FunctionsInversionsMonte Carlo EstimationMonte Carlo InversionStochastic CollocationStochastic Volatility Models
<p>In this article, we propose an efficient approach for inverting computationally expensive cumulative distribution functions. A collocation method, called the Stochastic Collocation Monte Carlo sampler (SCMC sampler), within a polynomial chaos expansion framework, allows us the generation of any number of Monte Carlo samples based on only a few inversions of the original distribution plus independent samples from a standard normal variable. We will show that with this path-independent collocation approach the exact simulation of the Heston stochastic volatility model, as proposed in Broadie and Kaya [Oper. Res., 2006, 54, 217–231], can be performed efficiently and accurately. We also show how to efficiently generate samples from the squared Bessel process and perform the exact simulation of the SABR model.</p>
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Monotone Piecewise Cubic Interpolation
F.N. Fritsch, R.E. Carlson · SIAM Journal on Numerical Analysis · 1980 · 2.4K citations
Calculation of Gauss quadrature rules
Gene H. Golub, John H. Welsch · Mathematics of Computation · 1969 · 1.6K citations