1. Understand the relationship between current, voltage, and resistance using Ohm's law, and be able to calculate combined resistance.
2. Understand Kirchhoff's laws and be able to apply them to DC circuit calculations.
3. Understand Thevenin's theorem, superposition theorem, and Millman's theorem and be able to apply them to DC circuit calculations.
4. Understand various methods of expressing sine wave alternating current and be able to calculate frequency, phase, effective value, etc.
5. Understand the relationship between sinusoidal AC voltage and current in R, L, and C elements, and be able to calculate voltage, current, and impedance in a series circuit.
Outline:
The purpose of this course is to acquire the introductory part of electrical circuit theory, which is essential basic knowledge in electrical and electronic engineering.
Style:
The first half deals with DC circuits, which are the basis of electrical circuit theory.
Understand Ohm's law and Kirchhoff's law, and learn how to calculate voltage, current, and resistance in DC circuits.
Understand Thevenin's theorem, the superposition theorem, and learns about efficient circuit calculations.
In the second half, it will be explained the basics of AC circuits.
Understand how to express sinusoidal alternating current using trigonometric functions, vectors, and complex numbers, and the concepts of frequency and phase.
Learns about the properties of R, L, and C elements and the impedance of series circuits.
Notice:
It is important not only to memorize Ohm's law and Kirchhoff's law as formulas, but also to fully understand the physical relationships among voltage, current, and resistance.
Also, in order to understand AC circuits, you need knowledge about vectors, trigonometric functions, and complex numbers, so review what you learned in mathematics and acquire calculation skills.
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Theme |
Goals |
1st Semester |
1st Quarter |
1st |
1. DC circuit (1) Current/voltage/resistance |
Understand various laws in DC circuits and be able to apply them to calculations. Able to explain the concepts of current, voltage, and resistance.
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2nd |
1. DC circuit (1) Current/voltage/resistance |
Understand various laws in DC circuits and be able to apply them to calculations. Able to explain the concepts of current, voltage, and resistance.
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3rd |
1. DC circuit (2) Power, energy, Ohm's law, combined resistance |
Understand various laws in DC circuits and be able to apply them to calculations. Understand the concept of electric power and electric energy and be able to calculate it. Understand Ohm's law and be able to calculate current, voltage, resistance, and combined resistance.
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4th |
1. DC circuit (2) Power, energy, Ohm's law, combined resistance |
Understand various laws in DC circuits and be able to apply them to calculations. Understand the concept of electric power and electric energy and be able to calculate it. Understand Ohm's law and be able to calculate current, voltage, resistance, and combined resistance.
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5th |
1. DC circuit (3) Kirchhoff's law |
Understand various laws in DC circuits and be able to apply them to calculations. Understand Kirchhoff's laws and be able to apply them to DC circuit calculations.
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6th |
1. DC circuit (3) Kirchhoff's law |
Understand various laws in DC circuits and be able to apply them to calculations. Understand Kirchhoff's laws and be able to apply them to DC circuit calculations.
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7th |
1. DC circuit (3) Kirchhoff's law |
Understand various laws in DC circuits and be able to apply them to calculations. Understand Kirchhoff's laws and be able to apply them to DC circuit calculations.
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8th |
[First semester midterm exam] |
Check your understanding of the lesson content up to the mid-term exam of the first semester.
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2nd Quarter |
9th |
1. DC circuit (4) Superposition principle |
Understand various laws in DC circuits and be able to apply them to calculations. Understand the principle of superposition and be able to apply it to DC circuit calculations.
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10th |
1. DC circuit (4) Superposition principle |
Understand various laws in DC circuits and be able to apply them to calculations. Understand the principle of superposition and be able to apply it to DC circuit calculations.
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11th |
1. DC circuit (5) Thevenin's theorem |
Understand various laws in DC circuits and be able to apply them to calculations. Understand Thevenin's theorem and be able to apply it to DC circuit calculations.
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12th |
1. DC circuit (5) Thevenin's theorem |
Understand various laws in DC circuits and be able to apply them to calculations. Understand Thevenin's theorem and be able to apply it to DC circuit calculations.
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13th |
1. DC circuit (5) Thevenin's theorem |
Understand various laws in DC circuits and be able to apply them to calculations. Understand Thevenin's theorem and be able to apply it to DC circuit calculations.
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14th |
1. DC circuit (6) Millman's theorem |
Understand various laws in DC circuits and be able to apply them to calculations. Understand Millman's theorem and be able to apply it to DC circuit calculations.
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15th |
1. DC circuit (6) Millman's theorem |
Understand various laws in DC circuits and be able to apply them to calculations. Understand Millman's theorem and be able to apply it to DC circuit calculations.
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16th |
[First semester final exam] [Return of answers] |
Check your understanding of the lesson content up to the final exam of the first semester.
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2nd Semester |
3rd Quarter |
1st |
2. Fundamentals of AC circuits (1) Trigonometric functions |
Be able to explain the concepts of trigonometric functions, vectors, and complex numbers necessary to express sinusoidal alternating current. Able to explain the trigonometric functions and their graphs necessary to express alternating current.
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2nd |
2. Fundamentals of AC circuits (1) Trigonometric functions |
Able to explain the concepts of trigonometric functions, vectors, and complex numbers necessary to express sinusoidal alternating current. Be able to explain the trigonometric functions and their graphs necessary to express alternating current.
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3rd |
2. Fundamentals of AC circuits (2) Representation and calculation methods of complex numbers |
Able to explain the concepts of trigonometric functions, vectors, and complex numbers necessary to express sinusoidal alternating current. Understand the complex numbers necessary to express alternating current and be able to perform calculations.
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4th |
2. Fundamentals of AC circuits (2) Representation and calculation methods of complex numbers |
Able to explain the concepts of trigonometric functions, vectors, and complex numbers necessary to express sinusoidal alternating current. Understand the complex numbers necessary to express alternating current and be able to perform calculations.
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5th |
2. Fundamentals of AC circuits (2) Representation and calculation methods of complex numbers |
Able to explain the concepts of trigonometric functions, vectors, and complex numbers necessary to express sinusoidal alternating current. Understand the complex numbers necessary to express alternating current and be able to perform calculations.
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6th |
3. Complex number representation of sine wave AC (1) Generation of sine wave AC electromotive force |
Able to explain the correspondence between sine wave alternating current and complex numbers, frequency, phase, effective value, etc. Able to explain the principle of generating sine wave AC electromotive force.
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7th |
3. Complex number representation of sine wave AC (1) Generation of sine wave AC electromotive force |
Able to explain the correspondence between sine wave alternating current and complex numbers, frequency, phase, effective value, etc. Able to explain the principle of generating sine wave AC electromotive force.
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8th |
[Second semester midterm exam] |
Check your understanding of the lesson content up to the mid-term exam of the second semester.
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4th Quarter |
9th |
3. Complex number representation of sine wave AC (2) Complex number representation of AC |
Able to explain the correspondence between sine wave alternating current and complex numbers, frequency, phase, effective value, etc. AC voltage and current can be expressed using complex numbers.
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10th |
3. Complex number representation of sine wave AC (2) Complex number representation of AC |
Able to explain the correspondence between sine wave alternating current and complex numbers, frequency, phase, effective value, etc. AC voltage and current can be expressed using complex numbers.
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11th |
4. R, L, C AC circuit (1) R, L, C element |
Able to calculate simple sine wave AC circuits. Able to explain the relationship between sinusoidal AC voltage and current in R, L, and C elements.
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12th |
4. R, L, C AC circuit (1) R, L, C element |
Able to calculate simple sine wave AC circuits. Able to explain the relationship between sinusoidal AC voltage and current in R, L, and C elements.
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13th |
4. R, L, C AC circuit (2) Series circuit/impedance |
Able to calculate simple sine wave AC circuits. Understand the impedance of series-connected circuits and be able to calculate current and voltage.
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14th |
4. R, L, C AC circuit (2) Series circuit/impedance |
Able to calculate simple sine wave AC circuits. Understand the impedance of series-connected circuits and be able to calculate current and voltage.
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15th |
4. R, L, C AC circuit (2) Series circuit/impedance |
Able to calculate simple sine wave AC circuits. Understand the impedance of series-connected circuits and be able to calculate current and voltage.
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16th |
[Second semester final exam] [Return of answers] |
Check your understanding of the lesson content
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