
The mentioned method is based on the estimation SDE fitting to given statistical data and approximate methods solving SDE. Scipy.stats.entropy scipy.stats.entropy (pk, qk None, base None, axis 0) source Calculate the entropy of a distribution.In this study, we have developed one new approximate method to obtain a probability density function of a solution of a given stochastic differential equation (SDE) at a fixed time. Using the well-known formula S klnW, and computing de num-ber of microstates Wfor the studied system in the usual way, one nds that 1: S(E V N) kN 3 2 ln E N + ln V N + 3 2 ln 4m 3h2 + 5 2 (2) where mis the mass of a particle and his. Dependently, obtained an equation for the entropy of an ideal gas starting from statistical mechanics.
The probability density function of the mentioned random variables is obtained. By using trajectories at a fixed time are obtained reasonable random variables of the solution of SDE. For example, it is possible to use the Euler–Maruyama (EM) method.
In the last decade, the theory of large deviations has become a main tool in statistical mechanics especially in the study of non-equilibrium. We illustrated the use of this new method to apply the SDE model fitting on S&P 500 stock data.Large deviations and the Boltzmann entropy formula Giovanni Jona-Lasinio Universit&224 di Roma La Sapienza Abstract. The reason using GEOM’s is explained oneself by the fact that these methods represent distributions that are more flexible distributions. In our investigation, it is used Generalized Entropy Optimization Methods (GEOM). These results are acquired by using the theorem.
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