Experiment-5 Phasor Analysis, Gain and Phase Response of a RC Circuit

Slides:



Advertisements
Similar presentations
C.L.I.L. MODULE: ANALYSIS AND DESIGN OF FIRST ORDER RC FILTERS
Advertisements

Transition between real sinusoidal signals (“time domain”)
Coupling and Filter Circuits. Filter –a device that removes or “filters” or attenuates unwanted signals, and keeps (and sometimes magnifies) the desired.
1 ELECTRICAL TECHNOLOGY EET 103/4  Define and explain sine wave, frequency, amplitude, phase angle, complex number  Define, analyze and calculate impedance,
Lecture 191 Sinusoids (7.1); Phasors (7.3); Complex Numbers (Appendix) Prof. Phillips April 16, 2003.
1 Frequency Response Methods The system is described in terms of its response to one form of basic signals – sinusoid. The reasons of using frequency domain.
ECE 201 Circuit Theory I1 Passive elements in the frequency domain Consider a resistor, R, in the time domain + v - i.
Lecture 26 Review Steady state sinusoidal response Phasor representation of sinusoids Phasor diagrams Phasor representation of circuit elements Related.
Circuit Lab. Experiment-3 Operating the function generator and digital oscilloscope.
INC 112 Basic Circuit Analysis Week 12 Complex Power Complex Frequency.
Circuit Lab. Experiment-4 Measurement of Time Constant, Rise Time, Step Response of a RC Circuit.
Sinusoids & Phasors. A sinusoidal current is usually referred to as alternating current (ac). Circuits driven by sinusoidal current or voltage sources.
INC 112 Basic Circuit Analysis Week 13 Frequency Response.
INC 112 Basic Circuit Analysis Week 7 Introduction to AC Current.
Lecture 16: Sinusoidal Sources and Phasors Nilsson , App. B ENG17 : Circuits I Spring May 21, 2015.
Lecture 13: Complex Numbers and Sinusoidal Analysis Nilsson & Riedel Appendix B, ENG17 (Sec. 2): Circuits I Spring May 13, 2014.
1 ELECTRICAL CIRCUIT ET 201  Define and explain phasors, time and phasor domain, phasor diagram.  Analyze circuit by using phasors and complex numbers.
1 ECE 3336 Introduction to Circuits & Electronics Note Set #8 Phasors Spring 2013 TUE&TH 5:30-7:00 pm Dr. Wanda Wosik.
RC Circuits Chapter 10 Thomas L. Floyd David M. Buchla DC/AC Fundamentals: A Systems Approach.
INC 111 Basic Circuit Analysis Week 13 Frequency Response.
Logarithmic scale Linear scale A logarithmic scale compresses large values and allows a large range to be covered without losing.
FILTERS. Filter The purpose of a filter is to pass signals of certain frequencies,
 Circuits in which the source voltage or current is time-varying (particularly interested in sinusoidally time-varying excitation, or simply, excitation.
Graphing Trig Functions Review Whiteboard Activity.
ELECTRICAL ENGINEERING: PRINCIPLES AND APPLICATIONS, Fourth Edition, by Allan R. Hambley, ©2008 Pearson Education, Inc. Lecture 17 Fourier Analysis, Low.
V f λ.
LRC circuit Real Imag V  |I| = |1/Z| |V| I = (1/Z)V ext L R C I V ext Z must have amplitude & phase.
1 Eeng 224 Chapter 14 Frequency Response Huseyin Bilgekul Eeng 224 Circuit Theory II Department of Electrical and Electronic Engineering Eastern Mediterranean.
Section 19.2 Graphs of Harmonic Motion. Review Frequency and period are inversely related. The period is the time per cycle. (cycle-unit of repeating.
1 EENG224 Chapter 9 Complex Numbers and Phasors Huseyin Bilgekul EENG224 Circuit Theory II Department of Electrical and Electronic Engineering Eastern.
Plot Diagram.
EE301 Phasors, Complex Numbers, And Impedance. Learning Objectives Define a phasor and use phasors to represent sinusoidal voltages and currents Determine.
Operational Amplifier
Lecture 03: AC RESPONSE ( REACTANCE N IMPEDANCE )
AC POWER & POWER FACTOR.
Ch4 Sinusoidal Steady State Analysis
Electronic Devices Ninth Edition Floyd Chapter 16.
COMPLEX NUMBERS and PHASORS
Quiz: Coherent Sampling and Filtering to Improve SNR and THD TIPL 4303 TI Precision Labs – ADCs Hello, and welcome to the TI Precision Lab discussing.
ppt 0n phase Shift Oscillator
Lecture 6 (III): AC RESPONSE
Phasors, Impedance, SPICE, and Circuit Analysis
EEP Lec 2 Dr. Michael Nasief.
Lecture 5 Spectrum Representation
Plumber’s LCR Analogy Valve P1 P2 Rubber Diaphragm Flywheel
Electronic Circuit-II
Week 9: Series RC Circuit
Electric Circuits Fundamentals
Electric Circuits Fundamentals
Passive elements in the frequency domain
ECE 1270: Introduction to Electric Circuits
Time Domain to Phasor Domain (Linear Transformation)
IR(t) ZR vR(t) iL(t) ZL vL (t) iC (t) ZC vC (t).
Electric Circuits Fundamentals
AC CIRCUIT ANALYSIS USING PHASORS AND EQUIVALENT IMPEDANCE CONCEPT
AC CIRCUIT ANALYSIS Introduction SEE 1003 Section 08 Nik Din Muhamad.
Complex Numbers: Phasors and Capacitors
Voltage Divider and Current Divider Rules
TUTORIAL An inverting amplifier circuit using Op-amp 741 IC, a feedback resistor, Rf = 95 kΩ and input resistance, Rin is used in a feedback oscillator.
Lecture 5: Phasor Addition & Spectral Representation
Chapter 15.
System Arch 2007 (Fire Tom Wada)
OUTLINE Wave Sinusoidal signal review Complex exponential signal
Circuits in the Frequency Domain
Electronic Circuit-II
OUTLINE Wave Sinusoidal signal review Complex exponential signal
Lecture 5A: Operations on the Spectrum
Unless stated otherwise all AC voltage & current values are rms values
Discrete Fourier Transform
BLM Circuit Theory Prof. Dr. Nizamettin AYDIN
Presentation transcript:

Experiment-5 Phasor Analysis, Gain and Phase Response of a RC Circuit Circuit Lab. Experiment-5 Phasor Analysis, Gain and Phase Response of a RC Circuit

Quiz A(t)=5.sin(100pt) B(t)=sin(100pt-p) Draw the graphic of signals. Write the phasor forms.

x(t)=A.cos(wt+q) Amplitude Phase Shift Angular Frequency time (variable)

Phasor Diagram Phasor Form: A=A1Ðf

Example 1 Es(t)=10.sin(wt) V(t)=5.sin(wt+30o) V=5Ð30o 5 2 I(t) = 2.sin(wt+120o) I=2Ð120o 5 2 120o 30o

Example 2 A(t)=3.sin(wt+90o) A=3Ð90o Es(t)=10.sin(wt) A(t)=3.cos(wt)

Euler’s Formula ejx=cos(x) + jsin(x)

Example 3 E(t)=10.sin(wt) Vc(t)=? Ic(t)=? Ic(t) Vc(t)=E(t)=10.sin(wt) VC=10Ð0o Ic(t)=C.dVc(t)/dt = 10.C.w.cos(wt)=10.w.C.sin(wt+90o) IC=10.w.CÐ90o

VC=10Ð0o IC=10.w.CÐ90o IC 10wC 10 VC

Circuit Gain and Phase Response

Gain: R=1 kW C=100 nF

Phase: R=1 kW C=100 nF

Example: |Vo|=|Vi|.|H(jw)|=10.(0.8467)=8.467 V (p) R=1 kW, C=100 nF, |Vi|=10 V (p) f=1 kHz Gain ?, Phase? Gain: |Vo|=|Vi|.|H(jw)|=10.(0.8467)=8.467 V (p)

Phase: Time Difference ? 360o  1ms 32.14o  x X = 89.28 ms

Phasor Diagram Vi 10 32.14o 8.46 Vo

Time Domain

Measurement Setup f Hz 1 kW 100 nF 10 V (p) or 5 V (p-p) Vo Vi GDS-1102 SFG-2120 f Hz 50 W OUT Vo Vi 1 kW 100 nF 10 V (p) or 5 V (p-p)

Measure Calculate f (Hz) |Vi| |Vo| Time Diff. Gain Phase 100 750 1200 1600 2000 3000 5000 8000 16000

Plot f vs. Gain f vs. Phase