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Statistical analysis and stochastic modelling of atmospheric boundary layer wind / vorgelegt von Thomas Laubrich. 2009
Content
Motivation
I Theoretical Background
Statistics
Probability and random variable
Distribution
Expected value and other characterisations
Transformation
Joint distribution and correlation
Multivariate transformation
Sum of continuous random variables and stable distributions
Random sample estimation
Kolmogorov-Smirnov test
Stochastic Processes
Stationary processes
Autocorrelation function
delta-correlated processes
Gaussian processes
Transformed Gaussian processes
Discretisation of continuous processes
ARMA processes
Turbulence Theory
The Navier-Stokes equation
Periodic boundary condition and non-locality
Conservation laws
Reynolds number and turbulence
Kolmogorov 1941 theory for infinite Reynolds number
Kolmogorov 1962 theory for infinite Reynolds number
Increment distribution
Superstatistics
The concept
Typical weight functions
II Application and Discussion
Wind Speed Statistics
Taylor hypothesis
Non-stationarity and fluctuation statistics
Increment statistics
Superstatistics
Summary
Discussion of the Superstatistical Algorithm
The algorithm in a nutshell
Application to an ideal series
Application to a series which is not ideal
Wind speed increments and conclusion
Fluctuation Statistics of Stochastic Processes and Wind Speed Modelling
Conditioned fluctuation distribution
Stationary Gaussian processes
chi-squared-distributed white noise
Geometric AR(1) process
Increment distribution of the geometric AR(1) process
Fitting the parameters of the geometric AR(1) process to wind speed data
Summary and Outlook
Summary
Outlook
III Appendix
Frequently used Distributions and their Properties
Binomial distribution
Gaussian distribution
chi-squared-distribution
Log-normal distribution
Cauchy distribution
Lévy distribution
Uniform distribution
Exponential distribution
Interpretation of skewness and kurtosis
Skewness
Kurtosis
Influence of the Ts-estimation
Derivation of Fluctuation Statistics
Stationary Gaussian processes
chi-squared-distributed white noise
Geometric AR(1) process
Symmetry of the stationary AR(1) process
Bibliography
Acknowledgements
Versicherung
Index