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    1. Naturvetenskap och teknik
    2. Matematik och naturvetenskap
    3. Matematik
    4. Tillämpad matematik

    Engineering Approach to Asymptotics and Approximations

    With Applications in Optical Wave Propagation and Imaging in Turbulence

    AvLarry C. Andrews,Melissa K. Beason

    Häftad, Engelska, 2025

    1 102 kr

    Beställningsvara. Skickas inom 11-20 vardagar. Fri frakt över 249 kr.

    Beskrivning

    The objective of this textbook is twofold—to introduce advanced novel mathematical techniques and then to use them to solve a variety of problems that may arise in various applications. The novel mathematical techniques, covered in Part I of the text, involve the use of generalized hypergeometric functions, including the Meijer G-function. We first present an introduction to asymptotic analysis for both small and large arguments of special functions and then use these asymptotic expressions to develop accurate algebraic approximations for generalized hypergeometric functions. In Part II we apply these novel mathematical techniques to a number of problems in electromagnetic wave propagation, imaging through atmospheric turbulence, and non-Kolmogorov turbulence. The idea is to present the mathematical details that are often missing in the literature in the development of various statistical models in these application areas and to introduce new methods for solution of the challenging equations that result from optical turbulence. In many cases we present exact results followed by accurate algebraic approximations. All required mathematical identities and integrals are presented in five appendices at the end of the text. In writing this text, the authors have tried to present the material in sufficient detail to reach an audience with limited knowledge of the subjects covered. To aid the reader in this regard, the text comprises a large number of worked examples in most chapters.

    Produktinformation

    • Utgivningsdatum:2025-10-30
    • Format:Häftad
    • Språk:Engelska
    • Antal sidor:486
    • Förlag:SPIE Press
    • ISBN:9781510688032

    Utforska kategorier

    • Tillämpad matematik inom Naturvetenskap och teknik
    • Teknik: allmänt inom Naturvetenskap och teknik
    • Övrig teknik och tillämpad vetenskap inom Naturvetenskap och teknik

    Innehållsförteckning

    • PrefaceGlossary of Symbols and Acronyms1 Review of Complex Variables1.0 Introduction1.1 Complex Functions1.1.1 Analytic functions1.1.2 Elementary complex functions1.2 Complex Integration1.2.1 Deformation of contours1.3 Taylor Series and Laurent Series1.3.1 Analytic continuation1.4 Singularities1.4.1 Residues1.5 Applications1.6 Historical RemarksReferenceBibliography of Further ReadingPart I: Special Functions, Asymptotic Analysis, and Approximations2 Basic Concepts2.0 Introduction2.1 The Gamma Function2.2 The Pochhammer Symbol2.3 Asymptotic Series and the Cauchy Product2.3.1 Large arguments of the function2.3.2 Stirling's formula2.3.3 The Cauchy product2.4 The Mellin Transform2.4.1 Residue theory2.4.2 Convolution integral2.5 Mellin–Barnes Integral2.6 Zernike Polynomials2.6.1 Application in optics2.7 Applications2.7.1 Asymptotic series2.7.2 The Mellin transform2.8 Historical RemarksReferencesGeneralized Hypergeometric Functions3.0 Introduction3.1 Generalized Hypergeometric Series3.2 The Function 1F03.2.1 Large-argument asymptotic series3.3 The Function 1F13.3.1 The Barnes integral3.3.2 Large-argument asymptotic series3.3.3 Elementary properties3.4 The Function 1Fk3.4.1 Large-argument asymptotic series3.5 The Function 2F13.5.1 The Barnes integral3.5.2 Large-argument asymptotic series3.5.3 Elementary properties3.6 The Function 2F23.6.1 Large-argument asymptotic series3.7 The Function pFq3.8 The Function U(a; c; z)3.8.1 The Barnes integral3.8.2 Large-argument asymptotic series3.9 Whittaker Functions3.10 Asymptotic Behavior of Other Special Functions3.10.1 Error functions3.10.2 Fresnel integrals3.10.3 Incomplete gamma functions3.10.4 The exponential integral3.10.5 Sine and cosine integrals3.10.6 Complete elliptic integrals3.11 Applications3.11.1 Summing series3.11.2 Probability and statistics3.11.3 Elliptic integrals3.12 Historical RemarksReferences4 Bessel Functions4.0 Introduction4.1 Standard Bessel Functions4.1.1 The function Jp(z)4.1.2 Large-argument asymptotic approximation4.1.3 The function Yp(z)4.1.4 Spherical Bessel functions4.2 Modified Bessel Functions4.2.1 The function Ip(z)4.2.2 The function Kp(z)4.2.3 Modified spherical Bessel functions4.3 Other Bessel Functions4.3.1 Hankel functions4.3.2 Struve functions4.3.3 Kelvin's functions4.3.4 Airy functions4.3.5 Bessel-integral function4.3.6 Anger and Weber functions4.3.7 Lommel functions4.4 Applications4.4.1 Differential equations related to Bessel’s equation4.4.2 Oscillations of a hanging chain4.4.3 Other Bessel functions4.5 Historical RemarksReferences5 Meijer G-Function5.1 The Meijer G-Function Definitions5.2 Elementary Properties5.2.1 Reduction formulas5.2.2 Integral formulas5.3 Asymptotic Relations for Large Arguments5.3.1 The function 1F15.3.2 The function 1Fk5.3.3 The function 2F15.3.4 The function 3F35.4 MacRobert E-Function5.5 Comments on the G-Function5.6 Historical RemarksReferences6 Approximations6.0 Introduction6.1 Approximations for the 2F1 Function6.2 Approximations for the 1F1 Function6.3 Other Functions6.3.1 Error function6.3.2 Bessel functions6.3.3 Modified Bessel functions6.3.4 Modified Struve function6.3.5 Kelvin’s functions6.4 DiscussionReferencePart II: Applications7 Integrals and Products7.0 Introduction7.1 Miscellaneous Integrals7.1.1 Elementary functions7.1.2 Bessel functions7.1.3 Hypergeometric functions7.2 Products of Special Functions7.2.1 0F1 functions7.2.2 1F1 and 2F1 functions7.2.3 Saalschütz's theorem7.3 Products and Integrals of Bessel Functions7.3.1 Product of two Bessel functions7.3.2 Product of three Bessel functions7.4 Laplace Transform7.4.1 Error function7.4.2 Bessel functions7.4.3 Generalized hypergeometric functions7.4.4 Miscellaneous functions7.5 Mellin Transform7.5.1 Elementary functions7.5.2 Bessel functions7.6 Hankel Transform7.6.1 Elementary functions7.6.2 Bessel functions7.7 Applications of Integral Transforms7.7.1 Heat conduction in a long rod7.7.2 Probability and statistics7.7.3 Summation of series7.7.4 Optical wave propagation7.7.5 Steady-state heat conduction in a cylinder7.7.6 Fourier transform7.7.7 Inverse transforms7.8 Discussion7.9 Historical RemarksReferences8 Electromagnetic Wave Propagation8.0 Introduction8.1 Atmospheric Turbulence8.1.1 Random fields8.1.2 Power spectrum models8.1.3 Index-of-refraction structure function8.2 Optical/IR Wave Propagation8.2.1 Propagation in free space8.2.2 Rytov approximation8.2.3 Comments on the exponential spectrum model8.3 Mutual Coherence Function8.3.1 WSF for a plane wave8.3.2 Outer-scale effect8.3.3 WSF for a spherical wave8.3.4 WSF for a Gaussian-beam wave8.3.5 Long-term beam radius8.4 Scintillation Index8.4.1 Plane wave8.4.2 Spherical wave8.4.3 Gaussian-beam wave8.5 Irradiance Covariance Function: Weak Fluctuations8.5.1 Plane wave8.5.2 Plane wave: aperture averaging8.5.3 Spherical wave8.5.4 Spherical wave: aperture averaging8.5.5 Gaussian-beam wave8.6 Irradiance Covariance Function: Strong Fluctuations8.6.1 Plane wave8.6.2 Spherical wave8.7 Temporal Spectrum of Irradiance8.7.1 Plane wave8.7.2 Plane wave: aperture averaging8.7.3 Spherical wave8.8 Phase Statistics: Plane Wave8.8.1 Phase structure function8.8.2 Angle-of-arrival8.8.3 Phase variance8.8.4 Phase covariance function8.8.5 Temporal spectrum of phase8.9 Phase Statistics: Spherical Wave8.9.1 Phase structure function8.9.2 Phase covariance function8.10 Discussion8.11 Historical RemarksReferences9 Imaging Through Atmospheric Turbulence9.0 Introduction9.1 Imaging Performance Measures9.1.1 Point spread function and modulation transfer function9.1.2 Short-exposure imaging9.1.3 Strehl ratio9.1.4 Strehl ratio: outer-scale effect9.1.5 Strehl ratio with tilt removed9.1.6 Long-exposure resolution9.1.7 Short-exposure resolution9.2 Zernike Polynomials and Aperture Filter Functions9.2.1 Zernike-tilt variance9.2.2 Zernike-tilt variance: outer-scale effect9.2.3 Gradient-tilt variance9.2.4 Zernike-tilt power spectral density9.3 Anisoplanatism9.3.1 Laser guide star9.4 Tilt Anisoplanatism9.4.1 Multi-aperture case9.4.2 Multi-aperture: outer-scale effect9.4.3 Multi-source case9.4.4 Multi-source: outer-scale effect9.5 Angular and Focal Anisoplanatism9.5.1 LGS anisoplanatic error: zero NGS offset9.5.2 LGS anisoplanatic error: nonzero NGS offset9.5.3 Focus anisoplanatism9.6 DiscussionReferences10 Non-Kolmogorov Turbulence10.0 Introduction10.1 Non-Kolmogorov Spectral Models10.1.1 Isotropic models10.1.2 Anisotropic models10.1.3 Index-of-refraction structure function10.2 Generalized Rytov Variance10.3 Wave Structure Function: Isotropic Turbulence10.3.1 Plane wave10.3.2 Spherical wave10.3.3 Gaussian-beam wave10.4 Wave Structure Function: Anisotropic Turbulence10.5 Scintillation Index: Weak Irradiance Fluctuations10.5.1 Plane wave: isotropic turbulence10.5.2 Spherical wave: isotropic turbulence10.5.3 Gaussian-beam wave: anisotropic turbulence10.6 Scintillation Index: Strong Irradiance Fluctuations10.6.1 Plane wave: isotropic turbulence10.6.2 Plane wave: anisotropic turbulence10.6.3 Spherical wave: isotropic turbulence10.6.4 Gaussian-beam wave: anisotropic turbulence10.7 Aperture Averaging: Weak Irradiance Fluctuations10.7.1 Flux variance: plane wave10.7.2 Flux variance: spherical wave10.8 Irradiance Covariance Function10.8.1 Plane wave10.8.2 Spherical wave10.9 Temporal Spectrum of Irradiance10.9.1 Plane wave10.9.2 Spherical wave10.10 Phase Statistics: Plane Wave10.10.1 Phase structure function10.10.2 Phase variance10.11 Imaging Performance Measures10.11.1 Long-term beam radius: detector plane10.11.2 Point spread function and modulation transfer function10.11.3 Strehl ratio10.12 Tilt Variances10.12.1 Zernike-tilt variance10.12.2 Gradient-tilt variance10.12.3 Zernike-tilt power spectral density10.13 Tilt Anisoplanatism10.13.1 Multi-apertures10.13.2 Multi-source10.14 Focus Anisoplanatism10.15 DiscussionReferences11 Miscellaneous Applications11.0 Introduction11.1 Statistical Communication Theory11.1.1 Nonlinear devices11.1.2 Ideal bandpass limiter11.1.3 Joint moments of the envelopes11.2 Cross Correlators11.2.1 Cross correlator with limiter in one channel11.2.2 Polarity coincidence correlator11.3 Free-Space Optical Communication11.3.1 Threshold detection11.3.2 Performance measures11.4 Fluid Mechanics11.4.1 Unsteady hydrodynamic flow past an infinite plate11.4.2 Irrotational flow of an ideal fluidReferencesAppendix A: Special Function IdentitiesAppendix B: Formulas for the Generalized Hypergeometric FunctionsAppendix C: Formulas for the Meijer G-FunctionAppendix D: Integral TableAppendix E: Asymptotic ExpressionsIndex