Polyteknisk Boghandel

Signal integrity has become the key issue in most high-performance digital designs. Now, from the foremost experts in the field, this book leverages theory and techniques from non-related fields such as applied physics, communications, and microwave engineering and applies them to the field of high-speed digital design. This approach creates an optimal combination of theory and practice that is meaningful to practicing engineers and graduate students alike.

Preface
Acknowledgments
Chapter 1: Introduction: The importance of signal integrity.
1.
1 Computing Power: Past and Future.
1.
2 The problem.
1.
3 The Basics.
1.
4 A new realm of bus design.
1.
5 Scope.
1.
6 Summary.
1.
7 References.
Chapter 2: Electromagnetic Fundamentals for Signal Integrity.
2.
1 Introduction
2.
2 Maxwell's Equations.
2.
3 Common Vector Operators.
2.
4 Wave Propagation.
2.
5 Electrostatics.
2.
6 Magnetostatics.
2.
7 Power Flow and the Poynting Vector.
2.
8 Reflections of Electromagnetic Waves.
2.
9 References.
2.
10 Problems.
Chapter 3: Ideal Transmission Line Fundamentals.
3.
1 Transmission Line Structures.
3.
2 Wave propagation on loss free transmission lines.
3.
3 Transmission line properties.
3.
4 Transmission line parameters for the loss free case.
3.
5 Transmission line reflections.
3.
6 Time domain Reflectometry.
3.
7 References.
3.
8 Problems.
Chapter 4: Crosstalk.
4.
1 Mutual Inductance and Capacitance.
4.
2 Coupled Wave Equations.
4.
3 Coupled Line Analysis.
4.
4 Modal Analysis.
4.
5 Crosstalk Minimization.
4.
6 Summary.
4.
7 References.
4.
8 Problems.
Chapter 5: Non-ideal conductor models for transmission lines.
5.
1 Signals propagating in an unbounded conductive media.
5.
2 Classic conductor model for transmission lines.
5.
3 Surface Roughness.
5.
4 Transmission line parameters with a non-ideal conductor.
5.
5 Problems.
Chapter 6: Electrical properties of dielectrics.
6.
1 Polarization of dielectrics.
6.
2 Classification of dielectric materials.
6.
3 Frequency dependent dielectric behavior.
6.
4 Properties of a physical dielectric model.
6.
5 The fiber-weave effect.
6.
6 Environmental variation in dielectric behavior.
6.
7 Transmission line parameters for lossy dielectrics and realistic conductors.
6.
8 References.
6.
9 Problems.
Chapter 7: Differential signaling.
7.
1 Removal of common mode noise.
7.
2 Differential Crosstalk.
7.
3 Virtual reference plane.
7.
4 Propagation of Modal Voltages.
7.
5 Common terminology.
7.
6 Drawbacks of differential signaling.
7.
7 References.
7.
8 Problems.
Chapter 8: Mathematical Requirements of Physical Channels.
8.
1 Frequency domain effects in time domain simulations.
8.
2 Requirements for a physical Channel.
8.
3 References.
8.
4 Problems.
Chapter 9: Network Analysis for Digital Engineers.
9.
1 High frequency voltage and current waves.
9.
2 Network Theory.
9.
3 Properties of Physical S-parameters.
9.
4 References.
9.
5 Problems.
Chapter 10: Topics in High-Speed Channel Modeling.
10.
1 Creating a physical transmission line mode.
10.
2 Non-Ideal Return Paths.
10.
3 Vias.
10.
4 References.
10.
5 Problems.
Chapter 11: I/O Circuits and Models.
11.
1 Introduction
11.
2 Push-Pull Transmitters.
11.
3 CMOS Receivers.
11.
4 ESD Protection Circuits.
11.
5 On-Chip Termination.
11.
6 Bergeron Diagrams.
11.
7 Open Drain Transmitters.
11.
8 Differential Current Mode Trans