Problem info Geometry model Labelled Objects Results Nonlinear dependencies

Similar documents
Texas A & M University Department of Mechanical Engineering MEEN 364 Dynamic Systems and Controls Dr. Alexander G. Parlos

Chapter 2. Engr228 Circuit Analysis. Dr Curtis Nelson

Exercise 2: Kirchhoff s Current Law/2 Sources

Kirchhoff's Laws and Circuit Analysis (EC 2)

I. Impedance of an R-L circuit.

Chapter 10 AC Analysis Using Phasors

Voltage vs. Current in a Resistor, Capacitor or Inductor

EE-201 Review Exam I. 1. The voltage Vx in the circuit below is: (1) 3V (2) 2V (3) -2V (4) 1V (5) -1V (6) None of above

Introduction to AC Circuits (Capacitors and Inductors)

2005 AP PHYSICS C: ELECTRICITY AND MAGNETISM FREE-RESPONSE QUESTIONS

Series & Parallel Resistors 3/17/2015 1

Exam 2 Fall 2014

Electromagnetic Induction & Inductors

IE1206 Embedded Electronics

ELECTROMAGNETIC OSCILLATIONS AND ALTERNATING CURRENT

Maxwell s Equations:

Lecture #3. Review: Power

1 Phasors and Alternating Currents

PRACTICE EXAM 2 for Midterm 2

IE1206 Embedded Electronics Le2

Basic RL and RC Circuits R-L TRANSIENTS: STORAGE CYCLE. Engineering Collage Electrical Engineering Dep. Dr. Ibrahim Aljubouri

Page 3. - At first glance, this looks just like a resistor, but Impedance is the generic expression that includes time & frequency dependence.

REVIEW EXERCISES. 2. What is the resulting action if switch (S) is opened after the capacitor (C) is fully charged? Se figure 4.27.

QUIZ 1 SOLUTION. One way of labeling voltages and currents is shown below.

Electrical Circuits I

Capacitor Action. 3. Capacitor Action Theory Support. Electronics - AC Circuits

RC Circuits (32.9) Neil Alberding (SFU Physics) Physics 121: Optics, Electricity & Magnetism Spring / 1

Exploring Operations Involving Complex Numbers. (3 + 4x) (2 x) = 6 + ( 3x) + +

R 2, R 3, and R 4 are in parallel, R T = R 1 + (R 2 //R 3 //R 4 ) + R 5. C-C Tsai

PRACTICE EXAM 1 for Midterm 2

Introduction to Electric Circuit Analysis

Introduction to Basic Electronics Lecture -2

Exercise 4 Modeling transient currents and voltages

Homework 2 SJTU233. Part A. Part B. Problem 2. Part A. Problem 1. Find the impedance Zab in the circuit seen in the figure. Suppose that R = 5 Ω.

Module 3 Electrical Fundamentals

Outline. Week 5: Circuits. Course Notes: 3.5. Goals: Use linear algebra to determine voltage drops and branch currents.

Basics of Network Theory (Part-I)

Alternating Current Circuits. Home Work Solutions

PHYSICS ASSIGNMENT ES/CE/MAG. Class XII

Physics for Scientists & Engineers 2

Physics 212. Lecture 9. Electric Current

1. Review of Circuit Theory Concepts

To find the step response of an RC circuit

Physics 212 Midterm 2 Form A

Physics 6B Summer 2007 Final

What happens when things change. Transient current and voltage relationships in a simple resistive circuit.

M. C. Escher: Waterfall. 18/9/2015 [tsl425 1/29]

Complete all the identification fields below or 10% of the lab value will be deduced from your final mark for this lab.

ELECTRONICS E # 1 FUNDAMENTALS 2/2/2011

COOKBOOK KVL AND KCL A COMPLETE GUIDE

Modeling of Electrical Elements

EE292: Fundamentals of ECE

Sinusoidal Steady State Analysis (AC Analysis) Part I

Chapter 3. Steady-State Equivalent Circuit Modeling, Losses, and Efficiency

PHYS 241 EXAM #2 November 9, 2006

Assessment Schedule 2016 Physics: Demonstrate understanding electrical systems (91526)

Chapter 26 & 27. Electric Current and Direct- Current Circuits

Exam 3--PHYS 102--S14

Physics 116A Notes Fall 2004

Circuit Analysis-II. Circuit Analysis-II Lecture # 5 Monday 23 rd April, 18

EE 3120 Electric Energy Systems Study Guide for Prerequisite Test Wednesday, Jan 18, pm, Room TBA

a. Clockwise. b. Counterclockwise. c. Out of the board. d. Into the board. e. There will be no current induced in the wire

LECTURE 8 RC AND RL FIRST-ORDER CIRCUITS (PART 1)

Alternating Current Circuits

Physics 122, Fall November 2012

Physics 102 Spring 2006: Final Exam Multiple-Choice Questions

r where the electric constant

Transient Analysis of First-Order Circuits: Approaches and Recommendations

ENGR 2405 Class No Electric Circuits I

PHY 131 Review Session Fall 2015 PART 1:

/20 /20 /20 /60. Dr. Galeazzi PHY207 Test #3 November 20, I.D. number:

CURRENT SOURCES EXAMPLE 1 Find the source voltage Vs and the current I1 for the circuit shown below SOURCE CONVERSIONS

Electromagnetic Field Theory Chapter 9: Time-varying EM Fields

Exercise 1: RC Time Constants

Resistance, Ohm s Law and Kirchoff s Laws

Inductors. Hydraulic analogy Duality with capacitor Charging and discharging. Lecture 12: Inductors

AP Physics C. Electric Circuits III.C

Physics 102 Spring 2007: Final Exam Multiple-Choice Questions

Mansfield Independent School District AP Physics C: Electricity and Magnetism Year at a Glance

QUESTION BANK SUBJECT: NETWORK ANALYSIS (10ES34)

E E 2320 Circuit Analysis. Calculating Resistance

Chapter 10: Sinusoidal Steady-State Analysis

Electric Circuits I. Nodal Analysis. Dr. Firas Obeidat

Do not fill out the information below until instructed to do so! Name: Signature: Section Number:

Electricity and Light Pre Lab Questions

MAY/JUNE 2006 Question & Model Answer IN BASIC ELECTRICITY 194

Electromagnetic Oscillations and Alternating Current. 1. Electromagnetic oscillations and LC circuit 2. Alternating Current 3.

Magnetic Fields

EE301 RESISTANCE AND OHM S LAW

Midterm Exam 2. Prof. Miloš Popović

ELECTRICITY AND MAGNETISM

Electric Circuit Theory

Automatic Formulation of Circuit Equations

MEP 382: Design of Applied Measurement Systems Lecture 3: DC & AC Circuit Analysis

Lecture # 2 Basic Circuit Laws

Sinusoidal Steady-State Analysis

Ohm s Law and Electronic Circuits

ET4119 Electronic Power Conversion 2011/2012 Solutions 27 January 2012

Alternating Current. Chapter 31. PowerPoint Lectures for University Physics, Twelfth Edition Hugh D. Young and Roger A. Freedman

Objective Type Questions Instrumentation System & Devices (IDS)

Transcription:

Problem info Problem type: Transient Magnetics (integration time: 9.99999993922529E-09 s.) Geometry model class: Plane-Parallel Problem database file names: Problem: circuit.pbm Geometry: Circuit.mod Material Data: Circuit.dms Material Data 2 (library): none Electric circuit: circuit.qcr Results taken from other problems: none

Geometry model

Table 1. Geometry model statistics With Label Total Blocks 1 1 Edges 1 3 Vertices 0 3 Number of nodes: 3.

Electric circuit Coupled electric circuit Circuit elements: Inductor L1=0.00000000237 [H] Voltage source V1=2*impulse(t,0.75e-9,6e-9) [V] Resistor R=95.5 [Ohm] Resistor Load=50 [Ohm] Resistor R1=100000 [Ohm] Capacitor C1=0.00000000000026 [F]

Inductor L2=0.00000000237 [H] Capacitor C2=0.00000000000026 [F] Inductor L3=0.00000000237 [H] Capacitor C3=0.00000000000026 [F] Inductor L4=0.00000000237 [H] Capacitor C4=0.00000000000026 [F] Inductor L5=0.00000000237 [H] Capacitor C5=0.00000000000026 [F] Inductor L6=0.00000000237 [H] Capacitor C6=0.00000000000026 [F] Inductor L7=0.00000000237 [H] Capacitor C7=0.00000000000026 [F] Inductor L8=0.00000000237 [H] Capacitor C8=0.00000000000026 [F] Inductor L9=0.00000000237 [H] Capacitor C9=0.00000000000026 [F] Inductor L10=0.00000000237 [H] Capacitor C10=0.00000000000026 [F] Inductor L11=0.00000000237 [H] Capacitor C11=0.00000000000026 [F] Inductor L12=0.00000000237 [H] Capacitor C12=0.00000000000026 [F] Inductor L13=0.00000000237 [H] Capacitor C13=0.00000000000026 [F] Inductor L14=0.00000000237 [H] Capacitor C14=0.00000000000026 [F] Inductor L15=0.00000000237 [H] Capacitor C15=0.00000000000026 [F] Inductor L16=0.00000000237 [H] Capacitor C16=0.00000000000026 [F] Inductor L17=0.00000000237 [H]

Capacitor C17=0.00000000000026 [F] Inductor L18=0.00000000237 [H] Capacitor C18=0.00000000000026 [F] Inductor L19=0.00000000237 [H] Capacitor C19=0.00000000000026 [F] Inductor L20=0.00000000237 [H] Capacitor C20=0.00000000000026 [F] Inductor L21=0.00000000237 [H] Capacitor C21=0.00000000000026 [F] Inductor L22=0.00000000237 [H] Capacitor C22=0.00000000000026 [F] Inductor L23=0.00000000237 [H] Capacitor C23=0.00000000000026 [F] Inductor L24=0.00000000237 [H] Capacitor C24=0.00000000000026 [F] Inductor L25=0.00000000237 [H] Capacitor C25=0.00000000000026 [F] Inductor L26=0.00000000237 [H] Capacitor C26=0.00000000000026 [F] Inductor L27=0.00000000237 [H] Capacitor C27=0.00000000000026 [F] Inductor L28=0.00000000237 [H] Capacitor C28=0.00000000000026 [F] Inductor L29=0.00000000237 [H] Capacitor C29=0.00000000000026 [F] Inductor L30=0.00000000237 [H] Capacitor C30=0.00000000000026 [F]

Labelled objects There are following labelled objects in the geometry model (Material Data file could contain more labels, but only those labels that assigned to geometric objects are listed) Blocks: a1 Edges: a0 Vertices: Detailed information about each label is listed below.

Labelled objects: block "a1" There are (1) objects with this label Relative magnetic permeability: mu_x=1, mu_y=1 Current density: j=0 [A/m2] Conductor's connection: in parallel

Labelled objects: edge "a0" There are (1) objects with this label Magnetic potential: A=0 [Wb/m]

Results Field lines

Results Electric circuit currents Circuit elements: L1. I=0.0000030662 [A] V1. I=0.0000030633 [A] R. I=0.0000030633 [A] Load. I=0.0000018916 [A]

R1. I=0.0000000029254 [A] C1. I=0.00000024878 [A] L2. I=0.0000028174 [A] C2. I=0.00000021683 [A] L3. I=0.0000026006 [A] C3. I=0.00000018859 [A] L4. I=0.000002412 [A] C4. I=0.00000016365 [A] L5. I=0.0000022484 [A] C5. I=0.00000014166 [A] L6. I=0.0000021067 [A] C6. I=0.00000012226 [A] L7. I=0.0000019845 [A] C7. I=0.00000010515 [A] L8. I=0.0000018793 [A] C8. I=0.00000009003 [A] L9. I=0.0000017893 [A] C9. I=0.00000007662 [A] L10. I=0.0000017127 [A] C10. I=0.0000000647 [A] L11. I=0.000001648 [A] C11. I=0.00000005404 [A] L12. I=0.0000015939 [A] C12. I=0.00000004443 [A]

L13. I=0.0000015495 [A] C13. I=0.00000003571 [A] L14. I=0.0000015138 [A] C14. I=0.000000027715 [A] L15. I=0.0000014861 [A] C15. I=0.000000020312 [A] L16. I=0.0000014658 [A] C16. I=0.000000013381 [A] L17. I=0.0000014524 [A] C17. I=0.000000006821 [A] L18. I=0.0000014456 [A] C18. I=0.0000000005441 [A] L19. I=0.000001445 [A] C19. I=0.000000005521 [A] L20. I=0.0000014505 [A] C20. I=0.000000011434 [A] L21. I=0.000001462 [A] C21. I=0.000000017244 [A] L22. I=0.0000014792 [A] C22. I=0.000000022987 [A] L23. I=0.0000015022 [A] C23. I=0.000000028692 [A] L24. I=0.0000015309 [A] C24. I=0.00000003438 [A]

L25. I=0.0000015653 [A] C25. I=0.00000004007 [A] L26. I=0.0000016053 [A] C26. I=0.00000004577 [A] L27. I=0.0000016511 [A] C27. I=0.00000005148 [A] L28. I=0.0000017026 [A] C28. I=0.00000005722 [A] L29. I=0.0000017598 [A] C29. I=0.00000006298 [A] L30. I=0.0000018228 [A] C30. I=0.00000006877 [A]

Results Color map of Strength H [A/m] 0.00101 0.000808 0.000606 0.000404 0.000202 0-0.000202-0.000404-0.000606-0.000808-0.00101

Nonlinear dependencies No non-linear dependencies are used in this problem data