http://www.loc.gov/mods/v3 http://www.loc.gov/standards/mods/v3/mods-3-2.xsd
Electronics Engineer's Reference Book, Sixth Edition is a five-part book that begins with a synopsis of mathematical and electrical techniques used in the analysis of electronic systems. Part II covers physical phenomena, such as electricity, light, and radiation, often met with in electronic systems. Part III contains chapters on basic electronic components and materials, the building blocks of any electronic design. Part IV highlights electronic circuit design and instrumentation. The last part shows the application areas of electronics such as radar and computers.
Front Cover; Electronics Engineer's Reference Book; Copyright Page; Preface; Table of Contents; Acknowledgements; List of Contributors; Part I: Techniques; Chapter 1. Trigonometric Functions and General Formulae; 1.1 Mathematical signs and symbols; 1.2 Trigonometric formulae; 1.3 Trigonometric values; 1.4 Approximations for small angles; 1.5 Solution of triangles; 1.6 Spherical triangle; 1.7 Exponential form; 1.8 De Moivre's theorem; 1.9 Euler's relation; 1.10 Hyperbolic functions; 1.11 Complex variable; 1.12 Cauchy-Riemann equations; 1.13 Cauchy's theorem; 1.14 Zeros, poles and residues
1.15 Some standard forms1.16 Coordinate systems; 1.17 Transformation of integrals; 1.18 Laplace's equation; 1.19 Solution of equations; 1.20 Method of least squares; 1.21 Relation between decibels, current and voltage ratio, and power ratio; Chapter 2. Calculus; 2.1 Derivative; 2.2 Maxima and minima; 2.3 Integral; 2.4 Derivatives and integrals; 2.5 Standard substitutions; 2.6 Reduction formulae; 2.7 Numerical integration; 2.8 Vector calculus; Chapter 3. Series and Transforms; 3.1 Arithmetic series; 3.2 Geometric series; 3.3 Binomial series; 3.4 Taylor's series; 3.5 Maclaurin's series
3.6 Laurent's series3.7 Power series for real variables; 3.8 Integer series; 3.9 Fourier series; 3.10 Rectified sine wave; 3.11 Square wave; 3.12 Triangular wave; 3.13 Sawtooth wave; 3.14 Pulse wave; 3.15 Fourier transforms; 3.16 Laplace transforms; Chapter 4. Matrices and Determinants; 4.1 Linear simultaneous equations; 4.2 Matrix arithmetic; 4.3 Eigenvalues and eigenvectors; 4.4 Coordinate transformation; 4.5 Determinants; 4.6 Properties of determinants; 4.7 Numerical solution of linear equations; Chapter 5. Electric Circuit Theory; 5.1 Types of source; 5.2 Alternating current theory
5.3 Resistance, inductance, capacitance and related quantities5.4 AC analysis of electric circuits; 5.5 impedance, reactance, admittance and susceptanc e; 5.6 Technique for a.c. circuits; 5.7 Average and r.rn.s. values; 5.8 Power, power factor; 5.9 Network taws and theorems: Kirchhoff's laws; 5.10 Thevenin's theorem and Norton's theorem; 5.11 Resonance,'Q* factor; 5.12 Mutual inductance; 5.13 Differential equations and Laplace transforms; 5.14 Transients and time constants; 5.15 Three-phase circuits; 5.16 The decibel; 5.17 Frequency response and Bode diagrams; Chapter 6. Statistics
6.1 Introduction6.2 Data presentation; 6.3 Averages; 6.4 Dispersion from the average; 6.5 Skewness; 6.6 Combinations and permutations; 6.7 Regression and correlation; 6.8 Probability; 6.9 Probability distributions; 6.10 Sampling; 6.11 Tests of significance; Part II: Physical Phenomena; Chapter 7. Quantities and Units; 7.1 International unit system; 7.2 Universal constants in SI units; 7.3 Metric to imperial conversion factors; 7.4 Symbols and abbreviations; Chapter 8. Electricity; 8.1 Introduction; 8.2 Molecules, atoms and electrons; 8.3 Atomic structure; 8.4 Wave mechanics