1 Analysis and Simulation Exercises ~DC Circuit Analysis (1) Basic Circuit Laws (Kirchhoff ’ s Voltage/ Current Law) Thévenin’s Theorem Norton ’ s Theorem.

Slides:



Advertisements
Similar presentations
Diode Circuits.
Advertisements

© The McGraw-Hill Companies, Inc McGraw-Hill 1 PRINCIPLES AND APPLICATIONS OF ELECTRICAL ENGINEERING THIRD EDITION G I O R G I O R I Z Z O N I C.
2. RESISTIVE CIRCUITS CIRCUITS by Ulaby & Maharbiz Piezoresistive sensor All rights reserved. Do not reproduce or distribute. ©2013 Technology and Science.
Fundamentals of Electric Circuit Analysis, by Clayton Paul Copyright 2000 © John Wiley & Sons. Inc. All rights reserved. Figure 3.1 Illustration of (a)
Chapter 7.
INC 112 Basic Circuit Analysis Week 5 Thevenin’s Theorem.
ECE 2006 Lecture for Chapter 5 S.Norr. Circuit Theory Linearity Superposition Source Transformation Thevenin and Norton Transformation Maximum Power Transfer.
CIRCUIT ANALYSIS USING PSPICE Writing Netlist
electronics fundamentals
Thévenin’s and Norton’s Theorems
Overview of ENGR 220 Circuits 1 Fall 2005 Harding University Jonathan White.
Electric Circuit Theory
ELECTRICAL ENGINEERING: PRINCIPLES AND APPLICATIONS, Fourth Edition, by Allan R. Hambley, ©2008 Pearson Education, Inc. Lecture 16 Phasor Circuits, AC.
SEE 1023 Circuit Theory Concept of Equivalence. Circuit A and circuit B are equivalent if they have the same I-V characteristics at their terminals. Circuit.
Chapter 8.
Passive components and circuits - CCP Lecture 3 Introduction.
Anuroop Gaddam. An ideal voltage source plots a vertical line on the VI characteristic as shown for the ideal 6.0 V source. Actual voltage sources include.
Voltage Divider Bias ELEC 121. January 2004ELEC 1212 BJT Biasing 3 For the Voltage Divider Bias Configurations Draw Equivalent Input circuit Draw Equivalent.
EE 221 Review 2 Nodal and Mesh Analysis Superposition Source transformation Thevenin and Norton equivalent Operational Amplifier.
The Math for Ohms Law along in DC Circuits
Fundamentals of Electric Circuit Analysis, by Clayton Paul Copyright 2000 © John Wiley & Sons. Inc. All rights reserved. Figure 4.1 An op-amp schematic:
Module 2: Series DC Circuits. RecapRecap Do you still recall these?
1 Analysis and Simulation Exercises ~ DC Circuit Analysis (2) Voltage-Controlled Voltage Source (VCVS) Voltage-Controlled Current Source (VCCS) Current-Controlled.
Circuit Theorems. Quiz 1. The source resistance from a 1.50 V D-cell is 1.5 . The voltage that appears across a 75  load will be a V b V.
EE2010 Fundamentals of Electric Circuits
Introduction to PSpice
Maximum Power Transfer Theorem:
Study Guide Exam 2. Closed book/Closed notes Bring a calculator.
1 Summary of Circuits Theory. 2 Voltage and Current Sources Ideal Voltage Source It provides an output voltage v s which is independent of the current.
09/16/2010© 2010 NTUST Chapter 6 Yu-Chi Lai 賴祐吉. 09/16/2010© 2010 NTUST Most practical circuits have combinations of series and parallel components. Components.
PSPICE 仿真. OP … NODE VOLTAGE NODE VOLTAGE ( 1) ( 2) ( 3).6954 ( 4) ( 5) VOLTAGE SOURCE CURRENTS NAME CURRENT V_V E+00.
1 ECE 3144 Lecture 32 Dr. Rose Q. Hu Electrical and Computer Engineering Department Mississippi State University.
CHAPTER 3 Resistive Network Analysis. Figure Branch current formulation in nodal analysis.
Electromagnetism Lecture#12 MUHAMMAD MATEEN YAQOOB THE UNIVERSITY OF LAHORE SARGODHA CAMPUS.
Voltage Regulator Circuits
Objective of Lecture State Thévenin’s and Norton Theorems. Chapter 4.5 and 4.6 Fundamentals of Electric Circuits Demonstrate how Thévenin’s and Norton.
1. Using superposition, find the current I through the 10 resistor for the network CLASS ASSIGNMENT SUPERPOSITION THEOREM.
Techniques of Circuit Analysis
Series-Parallel Circuits. Most practical circuits have both series and parallel components. Components that are connected in series will share a common.
(COMPLEX) ADMITTANCE.
ECT 122 Course Experience Tradition / snaptutorial.com
THEVENIN’S & NORTON’S THEOREM AND MAXIMUM POWER TRANSFER THEOREM
Chapter 1 Introduction to Electronics
Chapter 3 Resistive Network Analysis Electrical Engineering/GIEE
Techniques of Circuit Analysis
Exercise 1 In Fig. 1, run the analysis, and verify that the overall voltage gain Av=V0/Vs=-25.74, input resistance at VS = 15.44K, output resistance at.
Thevenin Theorem Any combination of batteries and resistances with two terminals can be replaced by a single voltage source e and a single series resistor.
THEVENIN THEOREM & NORTON
ECE 3301 General Electrical Engineering
THEVENIN THEOREM & NORTON
Fundamentals of Electric Circuits
Ch. 4B – Circuit Theorems II
Ch. 4B – Circuit Theorems II
Thevenin and Norton “Equivalent” Circuits
ELL100: INTRODUCTION TO ELECTRICAL ENGG.
Electric Circuits Fundamentals
Thevenin and Norton “Equivalent” Circuits
Part II : Basic Circuit Concepts
Lecture 03 - Thévenin and Norton Equivalent Circuits
C H A P T E R 3 Resistive Network Analysis.
Network Theorems Presented by- Dr. Kakade K.P Rayat Shikshan Sanstha’s
Announcement Next class: 10 min Quiz Material: Book Chapter 10
Thevenin and Norton “Equivalent” Circuits
Example We want to calculate the current I0. By
Chapter 8.
Circuit Theorems.
Ch. 4 – Circuit Theorems Linearity
ECE 4991 Electrical and Electronic Circuits Chapter 3
Presentation transcript:

1 Analysis and Simulation Exercises ~DC Circuit Analysis (1) Basic Circuit Laws (Kirchhoff ’ s Voltage/ Current Law) Thévenin’s Theorem Norton ’ s Theorem

2 Circuit with three meshes 1

3 Spice file Bridge Circuit for use with Basic Circuit Laws V v R R R R R R OP.PRINT DC I(R1) I(R2) I(R3).PRINT DC I(R4) I(R5) I(R6).DC V 25V 25V 25V.OPT nopage.END

4 Output file (1) **** 09/19/02 11:39:09 ************** PSpice Lite (Mar 2000) ***************** Bridge Circuit for use with Basic Circuit Laws **** CIRCUIT DESCRIPTION******************************************** V v R R R R R R OP.PRINT DC I(R1) I(R2) I(R3).PRINT DC I(R4) I(R5) I(R6).DC V 25V 25V 25V.OPT nopage.END

5 Output file (2) **** DC TRANSFER CURVES TEMPERATURE = DEG C V I(R1) I(R2) I(R3) 2.500E E E E-01 **** DC TRANSFER CURVES TEMPERATURE = DEG C V I(R4) I(R5) I(R6) 2.500E E E E-03 * SMALL SIGNAL BIAS SOLUTION TEMPERATURE = DEG C NODE VOLTAGE NODE VOLTAGE ( 1) ( 2) ( 3) ( 4)

6 Output file (3) VOLTAGE SOURCE CURRENTS NAME CURRENT V E-01 TOTAL POWER DISSIPATION 4.32E+00 WATTS **** OPERATING POINT INFORMATION TEMPERATURE = DEG C JOB CONCLUDED TOTAL JOB TIME.07

7 Verify Kirchhoff ’ s Voltage Law Check V 12 +V 23 +V 30 +V 01 =0 ?? V 1 = V 2 = V 3 = V 4 = V 12 =V 1 -V 2 = , V 23 =V 2 -V 3 =-8.632, V 30 =V 3 =25.000, V 01 =-V 1 = V 12 +V 23 +V 30 +V 01 = =0

8 Verify Kirchhoff ’ s Current Law Finding the sum of the currents entering node 1. For node 1, I 21 +I 01 +I 41 =0. I 21 = -I(R 1 )= 97.04mA, I 01 = -I(R 2 )=-88.85mA, I 41 = -I(R 6 )=-8.184mA I 21 +I 01 +I 41 = = 0.0

9 THÉVENIN’S Theorem Circuit to illustrate Thévenin’s theorem

10 Thévenin voltage and series

11 Spice file Thevenin Circuit for spice V v R R R RL 3 0 1E12.OP.OPT nopage.TF V(3) V.END

12 Simulation Output File (Partial) NODE VOLTAGE NODE VOLTAGE NODE VOLTAGE ( 1) ( 2) ( 3) **** SMALL-SIGNAL CHARACTERISTICS V(3)/V = 6.667E-01 INPUT RESISTANCE AT V = 3.000E+02 OUTPUT RESISTANCE AT V(3) = 2.167E+02

13 Norton ’ s Theorem T Circuit for Norton analysis

14 Spice File Find the short-current for R 4 Norton's Theorem; Find Isc V V R K R K R K R DC V 48V 48V 48V.OP.OPT nopage.PRINT DC I(R4) V(1,2).END

15 Simulation Output File **** DC TRANSFER CURVES TEMPERATURE = DEG C V I(R4) V(1,2) 4.800E E E+01 **** SMALL SIGNAL BIAS SOLUTION TEMPERATURE = DEG C NODE VOLTAGE NODE VOLTAGE NODE VOLTAGE ( 1) ( 2) ( 3) 1.600E-06

16 Question & Answer