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Lecture Electric circuit theory: Sinusoidal steady-state analysis - Nguyễn Công Phương

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This chapter presents the following content: Sinusoidal steady-state analysis, Ohm’s law, Kirchhoff’s laws, impedance combinations, branch current method, node voltage method, mesh current method, superposition theorem, source transformation, Op Amp AC circuits.

Trang 1

Electric Circuit Theory

Sinusoidal Steady-State Analysis

Nguyễn Công Phương

Trang 2

I Basic Elements Of Electrical Circuits

II Basic Laws

III Electrical Circuit Analysis

IV Circuit Theorems

V Active Circuits

VI Capacitor And Inductor

VII First Order Circuits

VIII.Second Order Circuits

IX Sinusoid and Phasors

X Sinusoidal Steady State Analysis

XI AC Power Analysis

XII Three-phase Circuits

XIII.Magnetically Coupled Circuits

XIV.Frequency Response

XV The Laplace Transform

XVI.Two-port Networks

Trang 3

Sinusoidal Steady-State Analysis

1 Sinusoidal Steady-State Analysis

2 Ohm’s Law

3 Kirchhoff’s Laws

4 Impedance Combinations

5 Branch Current Method

6 Node Voltage Method

7 Mesh Current Method

8 Superposition Theorem

9 Source Transformation

10 Thévenin & Norton Equivalent Circuits

11 Op Amp AC Circuits

Trang 4

Sinusoidal Steady-State Analysis (1)

+ –

0.35 1

o0.35sin(5 45 ) A

Trang 5

Sinusoidal Steady-State Analysis (2)

1 Transform to phasor

domain

2 Solve the problem using

dc circuit analysis

3 Transform the resulting

phasor to the

time-domain.

+ –

10sin5t V 20Ω 6H 0.02F

i

+ –

0.35 1

Trang 6

Sinusoidal Steady-State Analysis

1 Sinusoidal Steady-State Analysis

2 Ohm’s Law

3 Kirchhoff’s Laws

4 Impedance Combinations

5 Branch Current Method

6 Node Voltage Method

7 Mesh Current Method

8 Superposition Theorem

9 Source Transformation

10 Thévenin & Norton Equivalent Circuits

11 Op Amp AC Circuits

Trang 12

Sinusoidal Steady-State Analysis

1 Sinusoidal Steady-State Analysis

2 Ohm’s Law

3 Kirchhoff’s Laws

4 Impedance Combinations

5 Branch Current Method

6 Node Voltage Method

7 Mesh Current Method

8 Superposition Theorem

9 Source Transformation

10 Thévenin & Norton Equivalent Circuits

11 Op Amp AC Circuits

Trang 15

Sinusoidal Steady-State Analysis

1 Sinusoidal Steady-State Analysis

2 Ohm’s Law

3 Kirchhoff’s Laws

4 Impedance Combinations

5 Branch Current Method

6 Node Voltage Method

7 Mesh Current Method

8 Superposition Theorem

9 Source Transformation

10 Thévenin & Norton Equivalent Circuits

11 Op Amp AC Circuits

Trang 17

Impedance Combinations (2)

a b

21

Trang 19

Sinusoidal Steady-State Analysis

1 Sinusoidal Steady-State Analysis

2 Ohm’s Law

3 Kirchhoff’s Laws

4 Impedance Combinations

5 Branch Current Method

6 Node Voltage Method

7 Mesh Current Method

8 Superposition Theorem

9 Source Transformation

10 Thévenin & Norton Equivalent Circuits

11 Op Amp AC Circuits

Trang 20

Branch Current Method (1)

Trang 21

Branch Current Method (2)

Z 1

Z 2

Z 3 J

Trang 22

Branch Current Method (3)

+ –

Trang 23

Branch Current Method (4)

+ –

Trang 24

Branch Current Method (5)

+ –

Trang 25

Branch Current Method (6)

+ –

Trang 26

Branch Current Method (7)

+ –

Trang 27

Sinusoidal Steady-State Analysis

1 Sinusoidal Steady-State Analysis

2 Ohm’s Law

3 Kirchhoff’s Laws

4 Impedance Combinations

5 Branch Current Method

6 Node Voltage Method

7 Mesh Current Method

8 Superposition Theorem

9 Source Transformation

10 Thévenin & Norton Equivalent Circuits

11 Op Amp AC Circuits

Trang 28

Node Voltage Method (1)

1 the reference node

2 the sum of the reciprocals

of all impedances

connected to each node

3 the negative sum of the

reciprocals of the

impedances of all branches

joining each pair of node

4 current source(s) for each

Trang 29

Node Voltage Method (2)

Z 1

Z 2

Z 3 J

Trang 30

Node Voltage Method (3)

+ –

  15o

5  j 10 19.57 39.50 V

1.98 0.98 2.20 20

j

j j

o 2

o 3

4.09sin( 75.2 ) A 2.20sin( 26.4 ) A 6.16sin( 39.6 ) A

Trang 31

Sinusoidal Steady-State Analysis

1 Sinusoidal Steady-State Analysis

2 Ohm’s Law

3 Kirchhoff’s Laws

4 Impedance Combinations

5 Branch Current Method

6 Node Voltage Method

7 Mesh Current Method

8 Superposition Theorem

9 Source Transformation

10 Thévenin & Norton Equivalent Circuits

11 Op Amp AC Circuits

Trang 32

Mesh Current Method (1)

Trang 33

Mesh Current Method (2)

Z 1

Z 2

Z 3 J

Trang 34

Mesh Current Method (3)

+ –

A B

j j

o 2

o 3

4.09sin( 75.2 ) A 2.20sin( 26.4 ) A 6.16sin( 39.6 ) A

Trang 35

Sinusoidal Steady-State Analysis

1 Sinusoidal Steady-State Analysis

2 Ohm’s Law

3 Kirchhoff’s Laws

4 Impedance Combinations

5 Branch Current Method

6 Node Voltage Method

7 Mesh Current Method

8 Superposition Theorem

9 Source Transformation

10 Thévenin & Norton Equivalent Circuits

11 Op Amp AC Circuits

Trang 39

R 1 R 2

L

C j

Trang 44

 

1 3 1

Trang 46

R e

e i

Trang 47

Sinusoidal Steady-State Analysis

1 Sinusoidal Steady-State Analysis

2 Ohm’s Law

3 Kirchhoff’s Laws

4 Impedance Combinations

5 Branch Current Method

6 Node Voltage Method

7 Mesh Current Method

8 Superposition Theorem

9 Source Transformation

10 Thévenin & Norton Equivalent Circuits

11 Op Amp AC Circuits

Trang 49

  45o A

Trang 50

2 13

7.68 5.76 (1.32 5.51)

10 7.68 5.76 6.09 1.16

eq

j j

Trang 54

Sinusoidal Steady-State Analysis

1 Sinusoidal Steady-State Analysis

2 Ohm’s Law

3 Kirchhoff’s Laws

4 Impedance Combinations

5 Branch Current Method

6 Node Voltage Method

7 Mesh Current Method

8 Superposition Theorem

9 Source Transformation

10 Thévenin & Norton Equivalent Circuits

11 Op Amp AC Circuits

Trang 55

Thévenin & Norton Equivalent Circuits (1)

+ –

V

I

Z L

+ –

V

I

Z L

J eq Z eq

Trang 56

Thévenin & Norton Equivalent Circuits (2)

E eq = Z eq J eq

eq eq

V

I

Z L

+ –

Trang 57

Thévenin & Norton Equivalent Circuits (3)

Z Z Z

Trang 59

E I

Trang 60

Thévenin & Norton Equivalent Circuits (6)

j

j j

E I

Z Z

Trang 61

Thévenin & Norton Equivalent Circuits (7)

a b

j j

3

3

12.68 28.94 A

eq eq

Z Z

Trang 62

Thévenin & Norton Equivalent Circuits (8)

Method 1

Trang 63

Thévenin & Norton Equivalent Circuits (9)

sc

I

b a

a      j

E Z J E Z v

Trang 64

Thévenin & Norton Equivalent Circuits (10)

100

in

3 41

Trang 65

Thévenin & Norton Equivalent Circuits (11)

Trang 67

Thévenin & Norton Equivalent Circuits (13)

j j

Trang 68

Thévenin & Norton Equivalent Circuits (14)

Trang 69

Sinusoidal Steady-State Analysis

1 Sinusoidal Steady-State Analysis

2 Ohm’s Law

3 Kirchhoff’s Laws

4 Impedance Combinations

5 Branch Current Method

6 Node Voltage Method

7 Mesh Current Method

8 Superposition Theorem

9 Source Transformation

10 Thévenin & Norton Equivalent Circuits

11 Op Amp AC Circuits

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