Durch immer schnellere Übertragungsgeschwindigkeiten sind Leitungen immer anfälliger gegen elektromagnetische Unverträglichkeit und Störungen durch Abstrahlungseinflüsse. Mit der Erforschung von nicht-paralleler Leitungsanordnungen soll dies der Vergangenheit angehören. ---------------------------------------- High speed, high frequency communications generate increased radiation levels, and practical solutions to this problem are in heavy demand. At the research level, classical EMC theory has been extended to non-parallel transmission lines addressing the increased radiation emitted at…mehr
Durch immer schnellere Übertragungsgeschwindigkeiten sind Leitungen immer anfälliger gegen elektromagnetische Unverträglichkeit und Störungen durch Abstrahlungseinflüsse. Mit der Erforschung von nicht-paralleler Leitungsanordnungen soll dies der Vergangenheit angehören.
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High speed, high frequency communications generate increased radiation levels, and practical solutions to this problem are in heavy demand. At the research level, classical EMC theory has been extended to non-parallel transmission lines addressing the increased radiation emitted at high frequency transmissions. Transmissions from antennae in the region of GHz can result in EM interference with aircraft electronic circuitry and potentially pose a health risk to humans. EMC and Non-uniform Transmission Lines will provide comprehensive coverage of both classical and non-parallel transmission line theory, surveying the most up-to-date research and current thinking in the field. The scope also spans EMC topology, used to describe very complex systems by analysing the EM interactions between the various components.Hinweis: Dieser Artikel kann nur an eine deutsche Lieferadresse ausgeliefert werden.
Professor Jürgen Nitsch, Otto-von-Guericke-University-Magdeburg, Germany Since 1997, Professor Jürgen Nitsch has taught at the Otto-von-Guericke-University-Magdeburg, on the chair for EMC and Theoretical Electrical Engineering. In 2004 he became an elected IEEE Fellow for Contributions to the Analysis of Complex Systems for Electromagnetic Pulse and High-Power Microwave Applications. Professor Günter Wollenberg, Otto-von-Guericke-University-Magdeburg, Germany Professor Günter Wollenberg has been a professor at Otto-von-Guericke-University-Magdeberg since 1992 and his teaching activities are mainly focused on the fundamentals of electrical engineering, electromagnetic field theory and transmission line theory. Dr. Frank Gronwald, EADS Deutschland GmbH, Germany>Dr. Frank Gronwald joined the Chair of Jürgen Nitsch at the Otto-von-Guericke-University-Magdeberg in 1998 where he focussed on Theoretical Electrical Engineering, Electromagnetic Compatibility and Antenna Theory. He obtained the Habilitation Degree for Theoretical Electrical Engineering in 2006. Dr. Gronwald has been with the EADS (European Aeronautic Defence and Space Company) since 2007, where he works on Electromagnetic Compatibility and Antenna Integration for Aircraft Systems. He is a senior member of IEEE and an elected member of Commission E of the International Union of Radio Science (U.R.S.I.).
Inhaltsangabe
Preface Acknowledgments List of Symbols Introduction 1 Fundamentals of Electrodynamics 1.1 Maxwell Equations Derived from Conservation Laws - an Axiomatic Approach 1.2 The Electromagnetic Field as a Gauge Field - a Gauge Field Approach 1.3 The Relation Between the Axiomatic Approach and the Gauge Field Approach 1.4 Solutions of Maxwell Equations 1.5 Boundary Value Problems and Integral Equations References 2 Nonuniform Transmission-Line Systems 2.1 Multiconductor Transmission Lines: General Equations 2.2 General Calculation Methods for the Product Integral/Matrizant 2.3 Semi-Analytic and Numerical Solutions for Selected Transmission Lines in the TLST 2.4 Analytic Approaches References 3 Complex Systems and Electromagnetic Topology 3.1 The Concept of Electromagnetic Topology 3.2 Topological Networks and BLT Equations 3.3 Transmission Lines and Topological Networks 3.4 Shielding References 4 The Method of Partial Element Equivalent Circuits (PEEC Method) 4.1 Fundamental Equations 4.2 Derivation of the Generalized PEEC Method in the Frequency Domain 4.3 Classification of PEEC Models 4.4 PEEC Models for the Plane Half Space 4.5 Geometrical Discretization in PEEC Modeling 4.6 PEEC Models for the Time Domain and the Stability Issue 4.7 Skin Effect in PEEC Models 4.8 PEEC Models Based on Dyadic Green's Functions for Conducting Structures in Layered Media 4.9 PEEC Models and Uniform Transmission Lines 4.10 Power Considerations in PEEC Models References Appendix A: Tensor Analysis, Integration and Lie Derivative A.1 Integration Over a Curve and Covariant Vectors as Line Integrands A.2 Integration Over a Surface and Contravariant Vector Densities as Surface Integrands A.3 Integration Over a Volume and Scalar Densities as Volume Integrands A.4 Poincar¿e Lemma A.5 Stokes' Theorem A.6 Lie Derivative References Appendix B: Elements of Functional Analysis B.1 Function Spaces B.2 Linear Operators B.3 Spectrum of a Linear Operator B.4 Spectral Expansions and Representations References Appendix C: Some Formulas of Vector and Dyadic Calculus C.1 Vector Identities C.2 Dyadic Identities C.3 Integral Identities Reference Appendix D: Adaption of the Integral Equations to the Conductor Geometry Appendix E: The Product Integral/Matrizant E.1 The Differential Equation and Its Solution E.2 The Determination of the Product Integral E.3 Inverse Operation E.4 Calculation Rules for the Product Integral References Appendix F: Solutions for Some Important Integrals F.1 Integrals Involving Powers of square root x2 + b2 F.2 Integrals Involving Exponential and Power Functions F.3 Integrals Involving Trigonometric and Exponential Functions Reference Index
Preface Acknowledgments List of Symbols Introduction 1 Fundamentals of Electrodynamics 1.1 Maxwell Equations Derived from Conservation Laws - an Axiomatic Approach 1.2 The Electromagnetic Field as a Gauge Field - a Gauge Field Approach 1.3 The Relation Between the Axiomatic Approach and the Gauge Field Approach 1.4 Solutions of Maxwell Equations 1.5 Boundary Value Problems and Integral Equations References 2 Nonuniform Transmission-Line Systems 2.1 Multiconductor Transmission Lines: General Equations 2.2 General Calculation Methods for the Product Integral/Matrizant 2.3 Semi-Analytic and Numerical Solutions for Selected Transmission Lines in the TLST 2.4 Analytic Approaches References 3 Complex Systems and Electromagnetic Topology 3.1 The Concept of Electromagnetic Topology 3.2 Topological Networks and BLT Equations 3.3 Transmission Lines and Topological Networks 3.4 Shielding References 4 The Method of Partial Element Equivalent Circuits (PEEC Method) 4.1 Fundamental Equations 4.2 Derivation of the Generalized PEEC Method in the Frequency Domain 4.3 Classification of PEEC Models 4.4 PEEC Models for the Plane Half Space 4.5 Geometrical Discretization in PEEC Modeling 4.6 PEEC Models for the Time Domain and the Stability Issue 4.7 Skin Effect in PEEC Models 4.8 PEEC Models Based on Dyadic Green's Functions for Conducting Structures in Layered Media 4.9 PEEC Models and Uniform Transmission Lines 4.10 Power Considerations in PEEC Models References Appendix A: Tensor Analysis, Integration and Lie Derivative A.1 Integration Over a Curve and Covariant Vectors as Line Integrands A.2 Integration Over a Surface and Contravariant Vector Densities as Surface Integrands A.3 Integration Over a Volume and Scalar Densities as Volume Integrands A.4 Poincar¿e Lemma A.5 Stokes' Theorem A.6 Lie Derivative References Appendix B: Elements of Functional Analysis B.1 Function Spaces B.2 Linear Operators B.3 Spectrum of a Linear Operator B.4 Spectral Expansions and Representations References Appendix C: Some Formulas of Vector and Dyadic Calculus C.1 Vector Identities C.2 Dyadic Identities C.3 Integral Identities Reference Appendix D: Adaption of the Integral Equations to the Conductor Geometry Appendix E: The Product Integral/Matrizant E.1 The Differential Equation and Its Solution E.2 The Determination of the Product Integral E.3 Inverse Operation E.4 Calculation Rules for the Product Integral References Appendix F: Solutions for Some Important Integrals F.1 Integrals Involving Powers of square root x2 + b2 F.2 Integrals Involving Exponential and Power Functions F.3 Integrals Involving Trigonometric and Exponential Functions Reference Index
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