Anant Agarwal and MIT are releasing course videos from EdX's and MIT's popular intro electronics course (taught by Agarwal and Gerry Sussman) - now under a free license. This is an overview of the videos and other materials from the course, as I'm looking at where they might be instructive.

README for the project: A guide to converting an EdX course to a set of Commons media + files, a Wikiversity course, and video clips embedded in articles.; Outlining a course, uploading + embedding video, handling subtitles

Circuits and Electronics 1: Basic Circuit Analysis[edit]

Right now, you need to register for the course (anyone can do this at any time) to see these videos and materials:

Textbook[edit]

Overview[edit]

Introduction to Circuits and Electronics[edit]

Welcome lecture for MITx's 6.002x course.

Welcome to 6.002x [1]
Motivation for 6.002x [2]
Course Overview [3]
Topics Covered [4]

Using the Tools[edit]

Circuit Simulator [5]
Circuit Simulator - DC Analysis [6]
Circuit Simulator - Transient Analysis [7]
Circuit Simulator - AC Analysis [8]

Circuit Sandbox[edit]

Math Review[edit]

First Order Differential Equations[edit]

1st Order Differential Equations [9]

Complex Numbers[edit]

Complex Arithmetic [10]
Complex Geomtery [11]
POLAR COORDINATES, PART 1 [12]
POLAR COORDINATES, PART 2 [13]
Euler's Formula [14]
Inverse Euler [15]
complex exponentials [16]
complex replacement [17]
COMPLEX ROOTS, PART 1 [18]
COMPLEX ROOTS, PART 2 [19]

Auto-generated version[edit]

Circuits and Electronics 1: Basic Circuit Analysis [20][edit]

Textbook [21][edit]

Textbook [22][edit]

Overview [23][edit]

Introduction to Circuits and Electronics [24][edit]

Welcome to 6.002x [25] *
Motivation for 6.002x [26] *
Course Overview [27] *
Topics Covered [28] *

Using the Tools [29][edit]

Circuit Simulator [30] *
Circuit Simulator - DC Analysis [31] *
Circuit Simulator - Transient Analysis [32] *
Circuit Simulator - AC Analysis [33] *

Circuit Sandbox [34][edit]

Math Review [35][edit]

First Order Differential Equations [36][edit]

1st Order Differential Equations [37] *

Second Order Differential Equations [38][edit]

Complex Numbers [39][edit]

Complex Arithmetic [40] *
Complex Geomtery [41] *
POLAR COORDINATES, PART 1 [42] *
POLAR COORDINATES, PART 2 [43] *
Euler's Formula [44] *
Inverse Euler [45] *
complex exponentials [46] *
complex replacement [47] *
COMPLEX ROOTS, PART 1 [48] *
COMPLEX ROOTS, PART 2 [49] *

Calculus at Length [50][edit]

Entrance Survey [51][edit]

Entrance Survey [52][edit]

Week 1 [53][edit]

Circuit Elements [54][edit]

Welcome to Circuits and Electronics 1 [55] *
S1V4: Lumped element abstraction [56] *
S1V5: Lumped element abstraction [57] *
S1V6: Lumped element abstraction [58] *
S1V7: Lumped element abstraction [59] *
S1V8: Demo Setup - Lumped Elements [60] *
S1V9: Demo - Taking Abstraction Too Far [61] *
S1V10: Lumped Element Abstraction [62] *
S1V11: Lumped Element Abstraction [63] *
S1V12: KVL, KCL [64] *
S1V13: Summary [65] *

Circuit Analysis Toolchest [66][edit]

S2V1: Review KVL, KCL [67] *
S2V2: Demo- KVL, KCL [68] *
S2V3: Method 1 - KVL, KCL method [69] *
S2V4: Method 1 - KVL, KCL method [70] *
S2V5: Method 2 - Element combination rules [71] *
S2V6: Method 3 - Node Analysis [72] *
S2V7: Method 3 - Node Analysis [73] *
S2V8: Method 3 - Node Analysis [74] *
S2V9: Method 3 - Node Analysis [75] *
S2V10: Method 3 - Node Analysis [76] *
S2V11: Matrix formulation [77] *

Week 1 Tutorials [78][edit]

Tutorial intro by Piotr and Gerry [79] *
Series resistors [80] *
Parallel Resistors [81] *
Combination Rules [82] *
Nodal analysis [83] *
Nodal Analysis with Floating Voltage Source [84] *

Homework 1 [85][edit]

Lab 1 [86][edit]

Week 2 [87][edit]

Linearity and Superposition [88][edit]

S3V1: Introduction to Linearity [89] *
S3V2: Properties of Linearity [90] *
S3V3: Superposition [91] *
S3V4: Superposition [92] *
S3V5: Superposition [93] *
S3V6: Demo Superposition [94] *
S3V7: Thevenin Method [95] *
S3V8: Thevenin Method [96] *
S3V9: Thevenin Method [97] *
S3V10: Norton Method [98] *
S3V11: Summary [99] *

Static Discipline and Boolean Logic [100][edit]

S4V1: Intro, Review [101] *
S4V2: Why Digital [102] *
S4V3: Why Digital [103] *
S4V4: Why Digital [104] *
S4V5: Static Discipline [105] *
S4V6: Static Discipline [106] *
S4V7: Static Discipline [107] *
S4V8: Static Discipline [108] *
S4V9: Static Discipline [109] *
S4V10: Digital Logic Circuits [110] *
S4V11: Digital Logic Circuits [111] *
S4V12: Digital Logic Circuits [112] *
S4V13: Digital Logic Circuits [113] *
S4V14: Digital Logic Circuits [114] *
S4V15: Demo Setup - Chain Saw [115] *
S4V16: Demo - Chain Saw [116] *

Week 2 Tutorials [117][edit]

How good is the lightbulb model? [118] *
Using nodal analysis [119] *
Using superposition [120] *

Homework 2 [121][edit]

Lab 2 [122][edit]

Week 3 [123][edit]

Inside the Gate [124][edit]

S5V1: Review, Gates [125] *
S5V2: Demo Setup - Gates [126] *
S5V3: Demo - Gates [127] *
S5V4: How to Use a Gate [128] *
S5V5: Switch Model [129] *
Duplicate of 'S5V5: Switch Model' [130] *
S5V6: Switch Model [131] *
S5V7: Switch Model [132] *
S5V8: Switch Model [133] *
S5V9.1: MOSFET Device, S Model, Demo Setup [134] *
S5V9.2: MOSFET Device, S Model, Demo Setup [135] *
S5V10: MOSFET Device, S Model, Demo Setup [136] *
S5V11: DEMO MOSFET Switch Device, S Model Curve [137] *
S5V12: MOSFET Inverter [138] *
S5V13: MOSFET Inverter [139] *
S5V14: SR Model [140] *
S5V15: DEMO SR Model Curve [141] *
S5V16: Inverters Based on SR Model [142] *
S5V17: Static Power in Digital Circuits, Insights [143] *
S5V18: Demo - Shatter a Mouse [144] *

Circuits with Nonlinear Elements [145][edit]

S6V1: Review of the Course So Far [146] *
S6V2: Nonlinear Elements [147] *
S6V3: Method 1 - Analytical Method [148] *
S6V4: Method 1 - Analytical Method [149] *
S6V5: Method 1 - Analytical Method [150] *
S6V6: Method 2 - Graphical Method [151] *
S6V7: Method 2 - Graphical Method [152] *
S6V8: Method 3 - Piecewise Linear Method [153] *
S6V9: Method 3 - Piecewise Linear Method [154] *
S6V10: Method 3 - Piecewise Linear Method [155] *
S6V11: Method 4 - Motivate the Incremental Method [156] *
S6V12: Method 4 - Motivate the Incremental Method [157] *
S6V13: Demo - Distorted Music with Nonlinear Element [158] *
S6V14: If Only Circuits Were Linear... [159] *

Week 3 Tutorials [160][edit]

Homework 3 [161][edit]

Lab 3 [162][edit]

Week 4 [163][edit]

Incremental Analysis [164][edit]

S7V1: Review [165] *
S7V2: Intro - Setup for Demo, Curve Plotting Animation [166] *
S7V3: DEMO - Music Over a Light Beam, Distorted Sinusoid and Music [167] *
S7V4: Incremental Method Insight [168] *
S7V5: Incremental Method Insight [169] *
S7V6: DEMO - Music Over a Light Beam, Distortion and No Distortion [170] *
S7V7: Mathematical Meaning [171] *
S7V8: Mathematical Meaning [172] *
S7V9: Mathematical Meaning [173] *
S7V10: Graphical Meaning [174] *
S7V11: Circuit Model [175] *
S7V12: Circuit Model [176] *
S7V13: Small Signal Circuit Elements [177] *
S7V14: Small Signal Circuit Elements [178] *
S7V15: Small Signal Circuit Solution Example [179] *
S7V16: Small Signal Circuit Solution Example [180] *

Dependent Sources and Amplifiers [181][edit]

S8V1: Review [182] *
S8V2: Intro to Dependent Sources [183] *
S8V3: Example Dependent Source Circuit [184] *
S8V4: Various Types of Dependent Sources [185] *
S8V5: Another Dependent Source Example [186] *
S8V6: Another Dependent Source Example [187] *
S8V7: Superposition with (Linear) Dependent Sources [188] *
S8V8: Intro to Amplifiers, Why Amplify [189] *
S8V9: Intro to Amplifiers, Why Amplify [190] *
S8V10: Build Amplifier with Abstract Dependent Source [191] *
S8V11: Build Amplifier with Abstract Dependent Source [192] *
S8V12: DEMO - Amplification [193] *
S8V13: What Happens to Amplifier When Dependent Source has to Source Power [194] *
S8V14: What Happens to Amplifier When Dependent Source has to Source Power [195] *
S8V15: What Happens to Amplifier When Dependent Source has to Source Power [196] *
S8V16: DEMO - Amplifier Transfer Function Stops Behaving Well [197] *
Conclusion [198] *

Week 4 Tutorials [199][edit]

Load Line Experimental Demo [200] *
Small signal model [201] *
An abstract element [202] *
Small signal model of a diode [203] *
Good schematics [204] *

User:Sj/EdX