Concept Dependency Graph

Prompt

Our next step is to create a fully connected dependency graph
for learning these Concepts.
In this step, for each Concept on this list, create a new
list of other concepts on which it depends.  If a concept
depends on a specific concept that is not listed,
then we will need to add it as a new concept.
This will help us determine the teaching order of the Concepts.

Return the new list as a CSV file using the following format:

The first column in the CSV file is a numeric concept ID you assigned in the list above.  The second column is the concept name.
The third column is a pipe-delimited list of the Concept IDs that the concept depends upon.

Check your results to make sure that all concepts are connected to at least one other concept.

Results

1,Ohm's Law,2|3|4
2,Voltage,7
3,Current,7
4,Resistance,101
5,Power,2|3
6,Energy,5|102
7,Electric charge,120
8,Conductors,7
9,Insulators,7
10,Capacitance,2|7
11,Inductance,3|104
12,Kirchhoff's Current Law,3
13,Kirchhoff's Voltage Law,2
14,Direct current,3
15,Alternating current,3|32
16,Series circuits,1|4|2|3
17,Parallel circuits,1|4|2|3
18,Combination circuits,16|17
19,Voltage divider,16|1
20,Current divider,17|1
21,Thevenin's theorem,2|3|4|16|17
22,Norton's theorem,2|3|4|16|17
23,Superposition theorem,106|2|3|1
24,Maximum power Transfer,21|1|5
25,Mesh analysis,13|16
26,Nodal analysis,12|17
27,RMS voltage,15|2
28,RMS current,15|3
29,Phasors,15|32|107
30,Impedance,4|31|29
31,Reactance,10|11|32
32,Frequency,15|102
33,Resonance,30|32|31
34,Bandwidth,33|32
35,Quality factor,33|6
36,Time constant,10|4|11
37,Transients in RC circuits,36|10|4
38,Transients in RL circuits,36|11|4
39,Transients in RLC circuits,37|38|10|11
40,Steady-state analysis,37|38|39|102
41,AC power,15|2|3|5
42,Complex power,41|30|29
43,Active power,42
44,Reactive power,42
45,Apparent power,42
46,Power factor,43|45
47,Impedance matching,30|24
48,Bode plots,108|52
49,Nyquist criterion,50|108
50,Stability,53|109
51,Poles and zeros,52|107
52,Transfer function,109
53,Feedback,54|109
54,Operational amplifiers,73|77
55,Differential amplifier,54
56,Inverting amplifier,54
57,Non-inverting amplifier,54
58,Summing amplifier,54
59,Integrator,54|10
60,Differentiator,54|10
61,Comparator,54
62,Voltage follower,54
63,Negative feedback,53|50
64,Positive feedback,53|50
65,Diodes,110
66,Zener diodes,65
67,Rectification,65
68,Half-wave rectifier,67|65
69,Full-wave rectifier,67|65
70,Bridge rectifier,69
71,Clipping circuits,65
72,Clamping circuits,65
73,Transistors,110
74,Bipolar junction transistor,73
75,Field effect transistor,73
76,Switching circuits,73
77,Amplifiers,73|54
78,Small signal analysis,73|77
79,Gain,77
80,Saturation,73
81,Cutoff,73
82,Biasing,73
83,Load line analysis,73|82
84,Common-emitter amplifier,73|77
85,Common-base amplifier,73|77
86,Common-collector amplifier,73|77
87,Darlington pair,73|77
88,Cascaded amplifiers,77
89,Differential pairs,73|55
90,Coupling capacitors,10
91,Decoupling capacitors,10
92,Filters,10|11|32
93,Low-pass filters,92
94,High-pass filters,92
95,Band-pass filters,92
96,Band-stop filters,92
97,Active filters,92|54
98,Passive filters,92
99,Voltage regulators,65|66|73
100,Pulse-width modulation,76
101,Resistivity,115
102,Time,116
103,Capacitors,10|7
104,Magnetic fields,3
105,Conservation of energy,6
106,Linearity,117
107,Complex numbers,118
108,Frequency response,32|92
109,Control systems,53|52
110,Semiconductor physics,111
111,Solid-state physics,119
112,Elementary charge,120
113,Conservation laws,119
114,P-N junctions,110
115,Material properties,119
116,Fundamental concepts,
117,Mathematical principles,118
118,Mathematics,116
119,Physics,116
120,Atomic structure,119