Bryant, James S. <br/><br/>
Circuit analysis essentials :  a signal processing approach / 
James S. Bryant. 
 - xv, 506 pages :  illustrations ;  29 cm. +  1 CD-ROM (4 3/4 in.) 
<br/><br/> Includes index. 
<br/><br/>Preface		xi	<br/>An Introduction to Electronic Signals<br/>1	(14)<br/>The World of Electronic Signals<br/>2	(1)<br/>An Introduction to Current and Voltage<br/>2	(3)<br/>The Electronic Signal as a Function of Time<br/>5	(1)<br/>Creating and Transmitting Electronic Signals<br/>6	(1)<br/>Measuring Electronic Signals<br/>7	(1)<br/>Units and Notation<br/>8	(2)<br/>Software Utilized in Circuit Analysis<br/>10	(5)<br/>Essentials of DC Circuit Analysis<br/>15	(50)<br/>The DC Circuit<br/>16	(1)<br/>The Resistor<br/>16	(1)<br/>The DC Voltage Source<br/>17	(1)<br/>The Resistor and Ohm's Law<br/>18	(2)<br/>Kirchhoff's Voltage Law (KVL)<br/>20	(4)<br/>The Series DC Circuit<br/>24	(5)<br/>The Voltage Divider Rule<br/>29	(2)<br/>Measuring Voltage with Respect to Circuit Ground<br/>31	(2)<br/>The Single Line Circuit Diagram<br/>33	(2)<br/>The Parallel DC Circuit<br/>35	(1)<br/>Kirchhoff's Current Law (KCL)<br/>35	(1)<br/>Total Equivalent Resistance and Conductance<br/>36	(3)<br/>Analysis of a Parallel DC Circuit<br/>39	(3)<br/>The Current Divider Rule<br/>42	(23)<br/>Analysis of DC Combination Circuits<br/>65	(44)<br/>The Combination DC Circuit<br/>66	(1)<br/>Determining Total Equivalent Resistance<br/>66	(1)<br/>Ohm's Law and the Combination DC Circuit<br/>66	(1)<br/>Kirchhoff's Laws and the Combination DC Circuit<br/>66	(1)<br/>Current and Voltage Division in a Combination DC Circuit<br/>67	(1)<br/>Voltage with Respect to Circuit Ground<br/>67	(1)<br/>Voltage Difference between Two Points<br/>67	(1)<br/>Analysis of Combination DC Circuits<br/>67	(14)<br/>The DC Voltage Divider Circuit<br/>81	(2)<br/>The DC Voltage Divider Circuit with Load<br/>83	(1)<br/>Analysis of Combination DC Circuits with Opens and Shorts<br/>84	(8)<br/>Analysis of the Bridge Circuit<br/>92	(17)<br/>The Sine Wave and Linear Response<br/>109	(48)<br/>The Sine Wave as a Function of Time<br/>110	(1)<br/>Sine Wave Parameters<br/>111	(8)<br/>Instantaneous Value<br/>119	(2)<br/>Adding Sine Waves in the Time Domain<br/>121	(1)<br/>The Sine Wave in the Phasor Domain<br/>122	(1)<br/>Phasor Mathematics<br/>123	(4)<br/>The Phasor in Rectangular Form<br/>127	(3)<br/>Plotting Sine Waves with MATLAB<br/>130	(1)<br/>The Resistor in the Time Domain<br/>131	(4)<br/>The Resistor in the Phasor Domain<br/>135	(3)<br/>The Inductor in the Time Domain<br/>138	(4)<br/>The Inductor in the Phasor Domain<br/>142	(3)<br/>The Capacitor in the Time Domain<br/>145	(5)<br/>The Capacitor in the Phasor Domain<br/>150	(7)<br/>Essentials of AC Circuit Analysis<br/>157	(36)<br/>The Series Resistive Circuit in the Phasor Domain<br/>158	(3)<br/>The Series R-L Circuit in the Phasor Domain<br/>161	(3)<br/>The Series R-C Circuit in the Phasor Domain<br/>164	(4)<br/>The Series R-L-C Circuit in the Phasor Domain<br/>168	(2)<br/>The Series R-L-C Circuit in the Time Domain<br/>170	(2)<br/>The Parallel R-L-C Circuit in the Phasor Domain<br/>172	(4)<br/>The Combination R-L-C Circuit in the Phasor Domain<br/>176	(17)<br/>Signal Processing Circuit Analysis and Design<br/>193	(58)<br/>An Introduction to Signal Processing Concepts<br/>194	(1)<br/>Voltage Gain and the Decibel<br/>195	(2)<br/>The Attenuator Circuit<br/>197	(2)<br/>Concepts of Frequency Response<br/>199	(1)<br/>An Overview of Filters<br/>200	(1)<br/>The R-C Low-Pass Filter<br/>201	(5)<br/>Computer Analysis of the R-C Low-Pass Filter<br/>206	(6)<br/>The R-C High-Pass Filter<br/>212	(4)<br/>Computer Analysis of the R-C High-Pass Filter<br/>216	(2)<br/>The R-L Low-Pass Filter<br/>218	(4)<br/>The R-L High-Pass Filter<br/>222	(3)<br/>The Series Resonant Band-Pass Filter<br/>225	(6)<br/>Computer Analysis of the Series Resonant Band-Pass Filter<br/>231	(3)<br/>A Three-Way Crossover Network<br/>234	(2)<br/>The Parallel Resonant Band-Pass Filter<br/>236	(15)<br/>Transient Circuit Analysis<br/>251	(50)<br/>Steady-State and Transient Response<br/>252	(1)<br/>The Switched DC Waveform<br/>252	(1)<br/>The Capacitor Storing Energy<br/>253	(8)<br/>The Capacitor Releasing Energy<br/>261	(8)<br/>The Capacitor Storing and Releasing Energy<br/>269	(3)<br/>Total Equivalent Capacitance<br/>272	(1)<br/>The Inductor Storing Energy<br/>273	(5)<br/>The Inductor Releasing Energy<br/>278	(4)<br/>Total Equivalent Inductance<br/>282	(1)<br/>An Introduction to the Rectangular Pulse Waveform<br/>283	(3)<br/>The Integrator and Differentiator<br/>286	(2)<br/>Computer Analysis of the R-C Response to a Pulse Waveform<br/>288	(13)<br/>Network Analysis and Selected Theorems<br/>301	(50)<br/>Format Mesh Analysis<br/>302	(9)<br/>Format Nodal Analysis<br/>311	(3)<br/>The Superposition Theorem<br/>314	(8)<br/>Thevenin's Theorem<br/>322	(10)<br/>Norton's Theorem<br/>332	(6)<br/>Alternate Methods of Solving Networks<br/>338	(13)<br/>Power Considerations in Electronic Circuits<br/>351	(52)<br/>The General Power Equation<br/>352	(2)<br/>Real Power<br/>354	(2)<br/>Reactive Power<br/>356	(6)<br/>Apparent Power<br/>362	(6)<br/>Power in Complex AC Circuits<br/>368	(2)<br/>Power Factor and the Power Triangle<br/>370	(2)<br/>The Ideal Transformer<br/>372	(2)<br/>Voltage and Current Transformation<br/>374	(2)<br/>Maximum Power Transfer<br/>376	(2)<br/>Maximum AC Signal Power Transfer<br/>378	(2)<br/>Transformer Impedance Matching<br/>380	(4)<br/>Maximum Power and Thevenin's Theorem<br/>384	(3)<br/>Maximum Power Ratings<br/>387	(5)<br/>Power Derating<br/>392	(11)<br/>Analysis of Nonlinear Analog Circuits<br/>403	(44)<br/>The P-N Junction<br/>404	(1)<br/>The P-N Junction Diode<br/>404	(2)<br/>The Diode Half-Wave Rectifier<br/>406	(8)<br/>The Diode Limiter<br/>414	(5)<br/>A Diode Logic Circuit<br/>419	(5)<br/>The Junction Transistor<br/>424	(1)<br/>Analysis of a Fixed Bias Network<br/>425	(2)<br/>Analysis of a Voltage Divider Bias Network<br/>427	(3)<br/>Design of a Fixed Bias Network<br/>430	(2)<br/>Analysis of a Transistor Logic Circuit<br/>432	(2)<br/>Analysis of Circuits That Contain ``Black Box'' Devices<br/>434	(13)<br/>An Introduction to Nonsinusoidal Signals<br/>447	(22)<br/>An Introduction to Fourier Series<br/>448	(1)<br/>The Square Wave<br/>448	(4)<br/>The Frequency Spectrum Diagram<br/>452	(1)<br/>The Sawtooth Wave<br/>453	(4)<br/>The Rectified Sine Wave<br/>457	(2)<br/>Circuit Analysis Using Fourier Series<br/>459	(10)<br/>APPENDIX A<br/>469	(26)<br/>Complete Solutions to Practice Exercises<br/>469	(12)<br/>Answers to Odd-Numbered Essential Learning Exercises<br/>481	(1)<br/>Answers to Selected Challenging Learning Exercises<br/>482	(13)<br/>APPENDIX B<br/>495	(8)<br/>Source Conversions<br/>495	(5)<br/>Mathematical Derivation of the Maximum Power Transfer Theorem<br/>500	(3)<br/>Index		503	<br/> 
<br/><br/> Circuit Analysis Essentials: A Signal Processing Approach presents fundamentals of DC and AC circuit analysis, using a signal processing approach that is relevant to a contemporary electronics curriculum. The book's focus on signal processing circuits emphasizes the practicality and usefulness of circuit analysis in the design of electronic circuits used to create and process electronic signals. MATLAB and MultiSIM illustrations throughout provide a visual component to the learning process, while well-designed end-of-chapter exercises develop critical thinking and problem solving skills.<br/> 
<br/><br/><label>ISBN: </label>1401850413 9781401850418 
<br/><br/><label>LCCN: </label>2005025290 
<br/><br/><label>Subjects--Topical Terms: </label><br/>Electric circuit analysis.<br/>Electronic circuit design--Data processing.<br/>Signal processing.
<br/><br/><label>LC Class. No.: </label>TK454  / .B766 2006 
<br/><br/><label>Dewey Class. No.: </label>621.3192