A Construction of Non-Gaussian White Noise Analysis using the Theory of Hypercomplex Systems
white noise analysis, biorthogonal approach, hypercomplex systems, wick calculus
Abstract
In this paper, we present a generalization of white noise analysis to the case of non-Gaussian measures. For this purpose, we use a biorthogonal approach in which instead of the exponentials the characters of commutative hypercomplex systems are employed. Moreover, we construct the elements of Wick calculus in a non-Gaussian setting.
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References
S. Albeverio, Yu. Daletsky, Yu. Kondratiev, L. Streit (1993) S. Albeverio, Yu. L. Daletsky, Yu. G. Kondratiev and L. Streit, Non-Gaussian infinitedimensional analysis, J. Funct. 138, 311-350.
Yu. Berezansky, A. Kalyuzhnyi (1995) analysis. 1.
(1992) Systems, Naukova Dumka,Kyiv, Ukrania, 1992. (in Russian; English transl.: Kluwer: Dordrecht-Boston-London, 1996).
hypergroups (1996) 38, 289-300.
Yu. Berezansky, A. Kalyuzhnyi (1993) Yu. M. Berezansky and Yu. G. Kondratiev, Biorthogonal systems in hypergroups: an extension of non-Gaussian analysis, Methods Funct. Anal. 2, 1-50.
(1992) Systems, Naukova Dumka: Kiev, 1992 (in Russian; English transl.: Kluwer: Dordrecht-Boston-London, 1996).
R. Dobrushin, R. Minlos (1994) POLYNOMIALS IN LINEAR RANDOM FUNCTIONS.
(1977) Biorthogonal analogue of the Hermite polynomials and the inversion of the fourier transform with respect to a nongaussian measure. 32, 71-127.
H. Ghany, A. El Bab, A. Zabel, A. Hyder, white approach, Chinese B (2013) The fractional coupled KdV equations: exact solutions and white noise functional approach. 22(8), 080501.
H. Ghany (2011) Exact solutions for stochastic generalized Hirota-Satsuma coupled KdV equations. 49(4), 926940.
H. Ghany, A. Hyder Local and global well-posedness of stochastic Zakharov- Kuznetsov equation. 15(7), 1332-1343.
H. Ghany, A. Hyder, Kuwait Science (2014) Exact solutions for the wicktype stochastic timefractional KdV equations. 41(1), 7584.
H. Ghany, A. Hyder, Chinese B (2014) Abundant solutions of Wick-type stochastic fractional 2D KdV equations. 23(6), 060503.
H. Ghany, M. Zakarya (2014) Generalized Solutions of Wick-type Stochastic KdV- Burgers Equations Using Exp-function Method. 8(2), 38-46.
H. Ghany, M. Zakarya, Decision Sciences (2014) Exact Solutions for Wick-type Stochastic Coupled KdV Equations. 14, 56-72.
Hossam Ghany, M. Zakarya (2014) Exact Traveling Wave Solutions for Wick-Type Stochastic Schamel KdV Equation. 2014, 1-9. https://doi.org/10.1155/2014/937345
H. Ghany, M. Qurashi, Applications (2015) Travelling Solitary Wave Solutions for Stochastic Kadomtsev-Petviashvili Equation. 21(1), 121-131.
T. Hida, N. Ikeda (1965) ANALYSIS ON HILBERT SPACE WITH REPRODUCING KERNEL ARISING FROM MULTIPLE WIENER INTEGRAL. 117-143.
T. Hida (1975) Analysis of Brownian functionals, in Carleton Math.
T. Hida, H. Kuo, J. Potthoff, L. Streit (1993) White Noise: An infinite Dimensional Calculus.
H. Holden, B. Osendal, J. Uboe, T. Zhang (2010) Stochastic partial differential equations.
H. Kuo, White theory, Handbook Analysis, Applications Kannan, V. (eds.) (2002) White noise theory, Handbook of Stochastic Analysis and Applications D. 107-158.
(1991) Stochastic differential equations involving positive noise. 261-303.
A. Kalyuzhnyi (1983) A theorem on the existence of multiplicative measure. 35, 369-371.
B. Levitan (1945) Generalization of translation operation and infinite-dimensional hypercomplex systems. 16, 259-280.
B. Levitan (1949) Application of generalized translation operators to linear differential equations of the second order. 4, 3-112.
B. Levitan (1976) Lie theorems for generalized translation operators. 211-220. https://doi.org/10.1090/trans2/105/12
B. Levitan (1962) Generalized translation operators and some their applications, Nauka: Moscow, 1962.
B. Levitan (1973) Theory of generalized translation operators, Nauka: Moscow, 1973. 211-220. https://doi.org/10.1090/trans2/105/12
G. Litvinov (1978) On generalized translation operators and their representations. 18, 345-371.
A. El Bab, A. Zabel, H. Ghany, Harmonic systems, International Pure, Applied Mathematics (2012) Harmonic analysis in Hypercomplex systems. 80, 739-750.
G. Us (1995) Dual Appel systems in Poissonian analysis. 93-108.
G. Wick (1950) The Evaluation of the Collision Matrix. 80(2), 268-272. https://doi.org/10.1103/physrev.80.268
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2016-01-25
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