Modeling Linear Nonstationary Stochastic Systems by Spectral Method
Author(s):
Konstantin Rybakov
Moscow Aviation Institute (National Research University)
rkoffice@mail.ru
Abstract:
The article considers the spectral method for modeling linear one-dimensional
nonstationary stochastic systems described by linear stochastic differential
equations with additive and multiplicative noise. This method is based on
the representation of random processes by the orthogonal series with respect
to arbitrary basis systems. The main attention is paid to the approbation of
the proposed method, namely, modeling typical random processes that are output
signals of linear stochastic systems: Wiener process (Brownian motion),
Ornstein--Uhlenbeck process, Brownian bridge, and geometric Brownian motion.
Keywords
- analysis of output processes
- Brownian bridge
- Brownian motion
- geometric Brownian motion
- linear stochastic system
- modeling
- Ornstein--Uhlenbeck process
- orthogonal expansion
- random process
- spectral form of mathematical description
- spectral method
- Wiener process
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