Textbook

Introduction to Circuits and Electronics

• Welcome to 6.002x *
• Motivation for 6.002x *
• Course Overview *
• Topics Covered *

Using the Tools

• Circuit Simulator *
• Circuit Simulator - DC Analysis *
• Circuit Simulator - Transient Analysis *
• Circuit Simulator - AC Analysis *

Circuit Sandbox

First Order Differential Equations

• 1st Order Differential Equations *

Second Order Differential Equations

Complex Numbers

• Complex Arithmetic *
• Complex Geomtery *
• POLAR COORDINATES, PART 1 *
• POLAR COORDINATES, PART 2 *
• Euler's Formula *
• Inverse Euler *
• complex exponentials *
• complex replacement *
• COMPLEX ROOTS, PART 1 *
• COMPLEX ROOTS, PART 2 *

Calculus at Length

Entrance Survey

Circuit Elements

• Welcome to Circuits and Electronics 1 *
• S1V4: Lumped element abstraction *
• S1V5: Lumped element abstraction *
• S1V6: Lumped element abstraction *
• S1V7: Lumped element abstraction *
• S1V8: Demo Setup - Lumped Elements *
• S1V9: Demo - Taking Abstraction Too Far *
• S1V10: Lumped Element Abstraction *
• S1V11: Lumped Element Abstraction *
• S1V12: KVL, KCL *
• S1V13: Summary *

Circuit Analysis Toolchest

• S2V1: Review KVL, KCL *
• S2V2: Demo- KVL, KCL *
• S2V3: Method 1 - KVL, KCL method *
• S2V4: Method 1 - KVL, KCL method *
• S2V5: Method 2 - Element combination rules *
• S2V6: Method 3 - Node Analysis *
• S2V7: Method 3 - Node Analysis *
• S2V8: Method 3 - Node Analysis *
• S2V9: Method 3 - Node Analysis *
• S2V10: Method 3 - Node Analysis *
• S2V11: Matrix formulation *

Week 1 Tutorials

• Tutorial intro by Piotr and Gerry *
• Series resistors *
• Parallel Resistors *
• Combination Rules *
• Nodal analysis *
• Nodal Analysis with Floating Voltage Source *

Homework 1

Lab 1

Linearity and Superposition

• S3V1: Introduction to Linearity *
• S3V2: Properties of Linearity *
• S3V3: Superposition *
• S3V4: Superposition *
• S3V5: Superposition *
• S3V6: Demo Superposition *
• S3V7: Thevenin Method *
• S3V8: Thevenin Method *
• S3V9: Thevenin Method *
• S3V10: Norton Method *
• S3V11: Summary *

Static Discipline and Boolean Logic

• S4V1: Intro, Review *
• S4V2: Why Digital *
• S4V3: Why Digital *
• S4V4: Why Digital *
• S4V5: Static Discipline *
• S4V6: Static Discipline *
• S4V7: Static Discipline *
• S4V8: Static Discipline *
• S4V9: Static Discipline *
• S4V10: Digital Logic Circuits *
• S4V11: Digital Logic Circuits *
• S4V12: Digital Logic Circuits *
• S4V13: Digital Logic Circuits *
• S4V14: Digital Logic Circuits *
• S4V15: Demo Setup - Chain Saw *
• S4V16: Demo - Chain Saw *

Week 2 Tutorials

• How good is the lightbulb model? *
• Using nodal analysis *
• Using superposition *

Homework 2

Lab 2

Inside the Gate

• S5V1: Review, Gates *
• S5V2: Demo Setup - Gates *
• S5V3: Demo - Gates *
• S5V4: How to Use a Gate *
• S5V5: Switch Model *
• Duplicate of 'S5V5: Switch Model' *
• S5V6: Switch Model *
• S5V7: Switch Model *
• S5V8: Switch Model *
• S5V9.1: MOSFET Device, S Model, Demo Setup *
• S5V9.2: MOSFET Device, S Model, Demo Setup *
• S5V10: MOSFET Device, S Model, Demo Setup *
• S5V11: DEMO MOSFET Switch Device, S Model Curve *
• S5V12: MOSFET Inverter *
• S5V13: MOSFET Inverter *
• S5V14: SR Model *
• S5V15: DEMO SR Model Curve *
• S5V16: Inverters Based on SR Model *
• S5V17: Static Power in Digital Circuits, Insights *
• S5V18: Demo - Shatter a Mouse *

Circuits with Nonlinear Elements

• S6V1: Review of the Course So Far *
• S6V2: Nonlinear Elements *
• S6V3: Method 1 - Analytical Method *
• S6V4: Method 1 - Analytical Method *
• S6V5: Method 1 - Analytical Method *
• S6V6: Method 2 - Graphical Method *
• S6V7: Method 2 - Graphical Method *
• S6V8: Method 3 - Piecewise Linear Method *
• S6V9: Method 3 - Piecewise Linear Method *
• S6V10: Method 3 - Piecewise Linear Method *
• S6V11: Method 4 - Motivate the Incremental Method *
• S6V12: Method 4 - Motivate the Incremental Method *
• S6V13: Demo - Distorted Music with Nonlinear Element *
• S6V14: If Only Circuits Were Linear... *

Week 3 Tutorials

Homework 3

Lab 3

Incremental Analysis

• S7V1: Review *
• S7V2: Intro - Setup for Demo, Curve Plotting Animation *
• S7V3: DEMO - Music Over a Light Beam, Distorted Sinusoid and Music *
• S7V4: Incremental Method Insight *
• S7V5: Incremental Method Insight *
• S7V6: DEMO - Music Over a Light Beam, Distortion and No Distortion *
• S7V7: Mathematical Meaning *
• S7V8: Mathematical Meaning *
• S7V9: Mathematical Meaning *
• S7V10: Graphical Meaning *
• S7V11: Circuit Model *
• S7V12: Circuit Model *
• S7V13: Small Signal Circuit Elements *
• S7V14: Small Signal Circuit Elements *
• S7V15: Small Signal Circuit Solution Example *
• S7V16: Small Signal Circuit Solution Example *

Dependent Sources and Amplifiers

• S8V1: Review *
• S8V2: Intro to Dependent Sources *
• S8V3: Example Dependent Source Circuit *
• S8V4: Various Types of Dependent Sources *
• S8V5: Another Dependent Source Example *
• S8V6: Another Dependent Source Example *
• S8V7: Superposition with (Linear) Dependent Sources *
• S8V8: Intro to Amplifiers, Why Amplify *
• S8V9: Intro to Amplifiers, Why Amplify *
• S8V10: Build Amplifier with Abstract Dependent Source *
• S8V11: Build Amplifier with Abstract Dependent Source *
• S8V12: DEMO - Amplification *
• S8V13: What Happens to Amplifier When Dependent Source has to Source Power *
• S8V14: What Happens to Amplifier When Dependent Source has to Source Power *
• S8V15: What Happens to Amplifier When Dependent Source has to Source Power *
• S8V16: DEMO - Amplifier Transfer Function Stops Behaving Well *
• Conclusion *

Week 4 Tutorials

• Load Line Experimental Demo *
• Small signal model *
• An abstract element *
• Small signal model of a diode *
• Good schematics *

Homework 4

Lab 4

Practice Exam Problems

Fall 2015 Final Beta

Additional Problems

Exit Survey

Final