113. 1 Neuroelectric Principles Electrical Model for Nerve Excitation 113.2 Bioelectric Events J. Patrick Reilly Origin of Bioelectricity. Law of Stimulation. Recording Action

48.1 Introduction 48.2 Propagation in Solids 48.3 Piezoelectric Excitation Gerald. Farnell 48.4 One-Dimensional Propagation McGill University 48.5Transducers 48.1 Introduction

47.1 Introduction 47.2 SAW Material Properties 47.3 Basic Filter Specifications 47.4 SAW Transducer Modeling The SAW Superposition Impulse Response Transducer

46.1 Introduction 46.2 Transduction Mechanisms Piezoelectricity Magnetostriction. Electrodynamic. Electrostatic. Magnetic. Hydraulic. Fiber Optic.Parametric Transducers. Carbon Microphones 46.3 Sensitivity and Source Level 46.4 Reciprocity

45.1Introduction 45.2 Background Discussion Modeling as a Transfer Function. Some Issues Involved i

44.1 Introduction 44.2 The Field equations Low Frequency Fields. Statics Limit 44.3 Numerical Methods C. W. Trowbridge

69 Broadcasting R.C. Dorf, Z. Wan, J.F. Lindsey I, D.F. Doelitzsch, J. Whitaker, M.S. Roden, S. Salek, A. H. Clegg Modulation and Demodulation. Radio. Television Systems. High-Definition Television. Digital Audio Broadcasting

59 Conventional Power Generation G.G. Karady Fossil Power Plants. Nuclear Power Plants. Geothermal Power Plants. Hydroelectric Power Plants

46 Electroacoustic Devices P. H. Rogers Transduction Mechanisms. Sensitivity and Source Level. Reciprocity Canonical Equations and Electroacoustic Coupling. Radiation Impedance.Directivity

35 Electromagnetic Fields J.A. Kong Maxwell Equations. Constitutive Relations. Wave Equations and Wave Solutions