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Introduction and Basic Concepts | |
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Role and Importance of Circuits in Engineering | |
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Fields, Charge, and CurrentFieldsChargeCurrent | |
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Voltage | |
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Energy Conversion in an Electric Circuit | |
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Relationships among Voltage, Current, Power, and Energy | |
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Power and Energy for Direct Voltages and Currents: Non-DC Power and Energy Calculations | |
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Ideal Voltage and Current Sources | |
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Resistance, Ohm''s Law, and Power (a Reprise) | |
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Additional Concepts | |
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Characteristics, Memoryless, Model, and LumpedV-I Characteristic of Constant Voltage and Current Sources | |
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Notion of a Memoryless Device | |
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Notion of Model | |
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Frequency, Wavelength, and the Notion of a Lumped Circuit Element | |
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Summary | |
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Terms and Concepts | |
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Problems | |
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Kirchhoff''s Current and Voltage Laws and Series-Parallel Resistive Circuits | |
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Introduction | |
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Terminology: Parallel, Series, Node, Branch, and so on | |
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Kirchhoff''s Current Law | |
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Kirchhoff''s Voltage Law | |
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Equivalent Resistance, Series Resistances, and Voltage Division | |
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Parallel Resistances and Current Division | |
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Series-Parallel Interconnections | |
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Dependent Sources Revisited | |
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Model for a Nonideal Battery and Battery Capacity | |
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Nonideal Sources | |
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Summary!3 | |
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Problems | |
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Nodal and Loop Analysis1 | |
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Introduction, Review, and Terminology | |
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Concepts of Nodal and Loop Analysis | |
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Nodal Analysis | |
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Grounded Voltage Sources | |
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Nodal Analysis | |
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Floating Voltage Sources | |
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Loop Analysis | |
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Modified Nodal Analysis | |
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Some Theoretical Foundations | |
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Planar and Nonplanar Circuit Graphs | |
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Meshes and Loops for Nonplanar Circuits | |
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Number of Independent KCL and KVL Equations | |
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The Operational Amplifier | |
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Introduction | |
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The Ideal Operational Amplifier | |
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Design of General Summing Amplifiers | |
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Design Choices for the General Summing Circuit | |
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Derivation of Op Amp Input-Output Characteristic | |
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Saturation and the Active Region of the Op Amp | |
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Op Amp Circuit for Digital-to-Analog Conversion | |
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Elements of A/D and D/A Conversion | |
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Binary-Weighted Summing Circuit | |
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Summary | |
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Terms and Concepts | |
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Problems | |
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Linearity, Superposition, and Source Transformations | |
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Introduction | |
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Linearity | |
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Superposition and Proportionality | |
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Source Transformations | |
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Modified Superposition Analysis | |
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Summary | |
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Terms and Concepts | |
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Problems | |
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Thevenin, Norton, and Maximum Power Transfer Theorems | |
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Introduction2. Thevenin and Norton Equivalent Circuits for Passive Networks | |
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Thevenin and Norton Equivalent Circuits for Active Networks | |
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Thevenin and Norton Equivalent Circuits for Op Amp Circuits | |
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Thevenin and Norton Equivalent Circuits from Measured Data | |
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Theoretical Considerations: Pathological Cases and a Proof | |
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Maximum Power Transfer Theorem | |
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Summary | |
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Terms and Concepts | |
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Problems | |
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Inductors, Capacitors, and Duality | |
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Introduction | |
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The InductorSome Physics: Definition and Basic Examples | |
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The Capacitor | |
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Definitions and Properties | |
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Relationship of Charge to Capacitor Voltage and Current | |
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Principle of Conservation of Charge | |
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Energy Storage in a Capacitor | |
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Capacitance and Dielectrics | |
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Series and Parallel Inductors and Capacitors | |
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Inductors in Series | |
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Inductors in Parallel | |
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Series-Parallel Inductor Combinations | |
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Capacitors in Series | |
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Capacitors in Parallel | |
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Series-Parallel Capacitor Combinations | |
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Smoothing Property of a Capacitor in a Power Supply | |
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The Duality Principle | |
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Basic Relationship of Dual Circuits | |
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Constructing the Dual N* of a Planar Circuit N | |
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Summary | |
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Terms and Concepts | |
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Problems | |
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First-Order RL and RC Circuits | |
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Introduction | |
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Some Mathematical Preliminaries | |
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Source-Free or Zero-Input Response | |
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DC or Step Response of First-Order Circuits | |
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Superposition and Linearity | |
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Response Classifications | |
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Further Points of Analysis and Theory | |
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First-Order RC Op Amp Circuits | |
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Summary | |
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Terms and Concepts | |
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Problems | |
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Second-Order Linear Circuits | |
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Introduction | |
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Discharging a Capacitor through an Inductor | |
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Source-Free Second-Order Linear Networks | |
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Development of Differential Equation Models for Series and Parallel RLC Circuits | |
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Solution of the Gene | |