Multiple choice questions

Size: px
Start display at page:

Download "Multiple choice questions"

Transcription

1 G. H. Raisoni College of Engineering, Nagpur Department of Electronics & Communication Engineering LINEAR ELECTRONICS CIRCUITS QUESTION BANK Multiple choice questions 1. A differential amplifier amplifies the between two input signals. a) addition b) subtraction c) multiplication 2. The differential amplifier can amplify ac as well as dc signals because it employs a) b) 3. Noise of input signal in differential amplifier a) increases b) decreases c) remains the soul 4. Cascaded differential amplifier requires level translator because of d) impedance matching e) isolating each stage f) d.c.shift. 5. In case of constant current bias,r1 is replaced by diodes D1 & D2 TO g) increase the input impedance h) improve thermal stability i) increase gain 6. If CMRR is high,the wide variation of input within the tolerable limits of the equipment makes output j) high k) low l) the same 7. For a.c analysis of differential amplifier we use m) h-parameters n) r-parameters o) none of above

2 8. In all types of differential amplifier DC operating point p) is not equal q) is equal r) is dependent on application 9. A single supply operational amplifier is a) LM 318 b) MC 414 c) LM The cascode amplifier is composed of direct coupled s) CE-CB configuration t) CC-CC configuration u) CC-CB configuration 11. Input bias current is always is. a) greater b) equal c) less than input offset current 12. If input frequency is exceed the slew rate the output will be. a) distorted b) not distorted c) amplified 13. The operational amplifier can be nulled by. a) using an offset voltage compensating network b) using an error minimizing resistance c) cutting off the power supplies 14. Open loop configuration of operational amplifier is not need for. a) linear operation b) nonlinear operation c) none of above 15. Slew rate is defined by a) dv/dt(max) b) di/dt(max c) none of the above 16. The slew rate has a) positive temperature coefficient b) negative temperature coefficient c) none of the above 17. Operational amplifier offset voltage due to input bias circuit can be significantly reduced if we use

3 a) offset compensatory network b) offset minimizing resistance 18. The standard supply voltage for an ordinary operational amplifier is a) 15 volts b) 13 volts c) 12 volts 19. The input offset voltage with negative feedback. a) increases b) decreases c) does not change 20. Specified value of CMRR for 741 opamp is. a) 30 db b) 40 db c) 90 db opamp is a chip of type. a) industrial b) military c) commercial 22. voltage follower is a special case of. a) inverting configuration b) non-inverting configuration c) difference configuration 23. frequency response of differetiator is same as that of. a) high pass filter b) low pass filter c) band pass filter 24. frequency response of integrator is same as that of. a) high pass filter b) low pass filter c) band pass filter 25. voltage shunt configuration is nothing but a) inverting configuration b) non-inverting configuration c) difference configuration 26. voltage series configuration is nothing but a) inverting configuration b) non-inverting configuration c) c) difference configuration

4 27. the type of feedback used for closed loop configuration is a) positive feedback b) negative feedback c) none of the above 28. instrumentation amplifier is used to amplify the output of. a) speaker b) transducer 29. basic differentiator fails to work at. a) low frequency b) high frequency c) medium frequency 30. basic integrator fails to work at. a) low frequency b) high frequency c) medium frequency 31. In which of the following is an operational amplifier (op-amp) used? a) oscillators b) filters c) instrumentation circuits d) all of the above 32. What is the difference output voltage of any signals applied to the input terminals? a) the differential gain times the difference input voltage b) The common-mode gain times the common input voltage c) the sum of the differential gain times the difference input voltage and the common-mode gain times the common input voltage d) the difference of the differential gain times the difference input voltage and the common-mode gain times the common input voltage 33. What is the difference voltage if the inputs are an ideal inphase signal?

5 signal a) the differential gain times twice the input signal b) the differential gain times the input signal c) the common-mode gain times twice the input d) the common-mode gain times the input signal 34. The larger the value of CMRR, the closer the output voltage is to the difference input times the difference gain with the common-mode signal being rejected a) True b) False 35. What is the voltage gain of the unity follower? a) 0 b) 1 c) 1 d) infinity 36. What is the scale multiplier (factor) of a basic integrator? a) R/C b) C/R c) RC d) 1/RC 37. Which of the following is (are) the result of gain reduction by a feedback? a) The amplifier voltage gain is a more stable and precise value. b) The input impedance of the circuit is increased over that of the op-amp alone. c) The output impedance is reduced over that of the opamp alone. d) all of the above 38. third order Butterworth low pass filter has upper cut off frequency of 1KHz.The gain of the filter drops by if frequency is increased to 2KHz. a) 6db b) 18 db c) 20 db d) 60 db.

6 39. For an Op-amp based wien Bridge Oscillator, if the oscillations stops after a few cycles, then the cause is a) the amplifier gain is too high. b) The loop gain is less than 1. c) The loop gai is equal to 1. d) The loop gain is greater than 1. OBJECTIVE QUESTIONS 1. What are the Four types of differential amplifiers? 2. What is the figure of merit of a differential amplifier? 3. What is the swamping resistor in differential amplifier? 4. The transfer curve of opamp is the graph of versus differential input voltage. 5. Input impedance of DIBO-DA is. 6). The gain reduces in case of feedback. 7)The distortion increases in case of feedback. 8. The specified value for slew rate of 741 opamp is. 9) The specified value for open loop gain of 741 opamp is. 10)The level translator is to shift level down to ground. 11)For emitter coupled amplifier RE->, CMRR-> )The second state of OP_AMP consists of dual input output differential amplifier. 13)Differntial amplifier is coupled amplifier As common mode gain decreases the value of CMRR )Current source is used as element in amplifier 15)Biasing circuit provides stabilization 16)Level shifter of op-amp should have input impedance 17)Differntial amplifier is perfectly balanced if transistors are )Level shifter of op-amp shifts o/p dc level down to )CMRR is proportional to RE 20)Offset voltage compensating network is connected in between pin number ----&----- of OPAMP 21)Output stage of opamp provides o/p resistance 22)1DC voltage is well above the ground potential due to coupling. 23)To overcome noise problem in level shifter is used

7 24)O/p DC level is always than input dc level 25) When same voltage is applied to both the terminals of differential amplifier, it is said to operate in configuration. 26) Summing amplifier can be converted into summer by takin all the resistors of equal value. 27)The gain of voltage follower is. 28) Photodiode is an example of to converter. 29) to has application in tansmission lines. 30) The input resistance of NI configuration is given by -. 31)Average rate of change of offset voltage per unit time is called as )OPAMP has standard slew rate of )CMRR has standard value for 741 IC as )UGB mean gain of opamp at a frequency )Maximum rate of change of o/p voltage is )Ideal OPAMP has voltage gain 37)For ideal opamp when i/p voltage is zero then o/p voltage is )The ideal value of SVRR for 741 opamp is )Algebric difference between two i/p currents of OPAMP is ).Input two-voltage range of for 741 IC is ± ).The average of two-i/p bias current is called as )For DIP package of Operational amplifier DIP means )The input bias current value for 741IC is )The input offset current value for 741IC is )This is the last stage of OPAMP )The circuit in which output current is forced to equal input current is said to be a )What are the different types of adder circuit? 48)What do you mean by scalar adder? 49) Which type of frequency responce of integrator? 50) Which type of frequency response of differentiator? 51) What is difference between practical integrator and ideal integrator? 52)What is difference between practical differentiator and ideal differentiator? 53)What do you mean by average adder? 54)Draw the circuit diagram of subtractor 55) What is importance stability resistor? 56) What is importance of capacitor in integrator? 57) What is importance of resistor in differentiator? 58) What is the effect of noise integartig circuit? 59) What is the effect of noise differentiator circuit? 60)What are the application of integrating circuit? 61)What are the application of differentiating circuit? 62) which type of filter we get from integrator and differentiator 63)What are different application of adder circuit 64)What are different application of buffer circuit 65)What do you mean by quality factor? 66) What is the range of quality factor for band reject filter? 67)What is the range of quality factor for band pass filter? 68) What do you mean by order of filter?

8 69)What do you mean by roll over frequency? 70)What is the importance of higher order filter? 71) What do you mean by cut-off frequency? 72)Is it possible to design band pass filter by using one high pass and one low pass filter? 73)What is difference between active filters and passive filters? 74) What is difference between analog filters and digital filters? 75) Which filters are more useful analog or digital? 76) What are the disadvantages of analog filters? 77) What are the different steps for the designing of low pass filters? 78) What are the different steps for the designing of high pass filters? 79) What is the importance of major and minor lobes in filter response? 80)What happened if order of filter is not increased? 81)What are different application of low pass filter circuit 82)What are different application of high pass filter circuit 83) Define Oscillator &Explain Barkhausain criteria for oscillations? 84) What are the advantages of Active filter over passive one? 85) What is Butter worth Response? 86) What are the advantages of Higher order filters? 87) List the most commonly used filters? 88) What is an all pass filter? Where and why it is needed? 89) How are the Oscillators Classified? 90). What is the difference between comparator & Schmitt trigger? 91) Define Resolution, settling time, Conversion time for D/A Converter? 92) What is comparator? 93) What is Voltage limiting & why it is needed? 94) What is the difference between Clippers & Clampers? 95) What is Sample & hold Circuit? Why it is needed? 96) What is the basic difference between comparator & Schmitt trigger? 97) What is a Multiviberator circuit? 98) What is Phase Locked Loop?

9 100) What is the major difference between Analog & digital PLL? 101)List the applications of PLL? 102)What are the two basic modes of operation of IC 555? 103)List important features of IC 555? 104) What is a Regulator? List four different types of Regulators? 105)What is Switching Regulators? SUBJECTIVE QUESTIONS : 1. Draw four-stage block diagram of OPAMP 2. Discuss single input unbalanced output differential amplifier 3. Why CMRR-> for emitter coupled differential amplifier when RE- > 4. Write a short note on Constant current source 5. Write a short note on current mirror 6. Write a short note on simple current source 7. Write a short note on level shifter 8. Write a short note on level shifter with potential divider 9. Write a short note on level shifter with zener diodes 10. Perform AC analysis over DIBO differential amplifier 11. Perform DC analysis over DIBO differential amplifier 12. What is offset? How it can be eliminated? 13. If differential gain of differential amplifier is 112 & input is 2sin100t V, then determine common mode output if CMRR is 55db 14. What is complementary push pull amplifier? 15. For a DIBO differential amplifier RC=2.2KΩ, RE=4.7KΩ,βac=βdc=100, VBE=0.7V.Calculate operating points, voltage gain & input resistance, if VCC=12V 16. For a DIBO differential amplifier RC=2KΩ, RE=4KΩ,βac=βdc=50, VBE=0.2V.Calculate operating points, voltage gain & input resistance, if VCC=15V 17)Discuss overload protection circuit

10 18)Write a short note on frequency response 19)Write down ideal characteristics of ideal OPAMP 20)Draw ideal voltage transfer curve of )Why negative feedback is desirable in OPAMP 22)Explain virtual ground concept 23)Define CMRR, SVRR, UGB & power consumption 24)What is thermal drift? How affects performance of OPAMP 25)Define slew rate. Derive its expression. 26)Draw offset voltage compensating network 27)Draw pen loop frequency response of 741 IC 28)What is Miller effect compensation? 29)What is the difference between internal & external compensation? 30)How fast the output of OPAMP will change by 20V, if its slew rate is 1V/u sec 31)Explain in detail packages of 741 available in market 32)Explain the concept of virtual ground in detail 33)the integrators used in analog computation has three mode of operation draw the circuit for such an integrators and explain its work. 34) Discus the errors on integrators due to input bias current and in put offset voltage. 35) for the given integrators show the waveforms of out put voltage, Vo and V1 if V1 is in put voltages as shown. 36) Prove that the circuit show in figure is a non-inverting integrators with Vo=2/RC/Vidt. 37) what is the differentiator? What are their limitations? Who they are over come in practical differentiator. 38)List two demerits of differentiator using op- amp. 39) draw the circuit of simple logarithmic amplifier find the expression for its out put. 40) write a short note on multiplier. 41) write a short note on divider. 42)write a short note on differential amplifier configarations. 43)Write a short note on bridge amplifier and its type. 44) For the inverting bridge amplifier, find Vo in terms of bridge deviations bridge power supplies and resistor. 45) If is common particle to employ more than one op-amp to realize differential DC amplifier, instrumentation amplifiers a typical examples sate its two important advantages with the help of the circuit diagrams derive an expression for its gain in terms of the circuit components. 46)For the instrumentation amplifier shown in figure verify that. 47) For the circuit show, derive the expression for Vo in terms of Vs and the circuit parameters. 48)For the differential amplifier show in figure, find conduction so that common mode in put signal dose not contribute to the out put hence derive relation for differential gain. 49)Draw the circuit for full wave precision rectifier and deduce its characterstics 50)Define oscillator.state Barkhausens criteria for oscillator.how are oscillator classified?what is frequency stability?explain its significance 51)Write short note on phase shift oscillator

11 52)Draw a wein bridge oscillator circuit using op-amp.explain its working 53)Explain how the problem of growing oscillator in a wein bridge oscillator is overcomed 54)Write short note on RMS to DC conversion 55)Write a short note on unidirectional current source and sinks. 56)Define communication filter.how are the filter classified 57) With neat sketches explain the operation of the active low pass filter. 58)State the advantages of active filters over passive filters. Draw the circuit of second order low pass filter 59)Draw the first order high pass butterworth filter.derive its equation 60)Ahigh pass butterworth filter is to be designed to have 3-db bandwidth of 200Hz and an attenuation of 30 db for less than 100Hz.Find the order of the filter. 61)What is the Band pass filter?how do you define the measure of selectivity of band pass filter?what are the various types of band pass filter?how do you identify the type of filter? 62) Design a phase shift oscillator to oscillate at 100 Hz. 63)For voltage to current convertor shown in figure,determine expression for I L 64) Design wide band pass filter with Fl=400 Hz,Fh=2 Khz and passband gain 4 using op-amp 65)Using the frequency scaling technique,convert the 1 khz cut-off frequency of low pass filter of above question to a cut-off frequency of 1.6 khz 66)What is a filter ckt? Why it is necessary in electronics ckt? 67)Compare active filter with passive filters? 68)State advantages and limitations of active filter over passive filter. 69)Give the name of different types of filter. 70)Explain 2 nd order Butterworth filter in detail. 71)Show the difference between frequency response of different order filters. 72)Explain a)low pass active filter b) High pass active filter c) Band pass active filter d)band reject active filter. 73)Design a Notch filter for the notch frequency of 100 Hz. 74)Design a second order narrow band pass filter. 75)Design a band-pass active filter with center frequency of 750hz, gain of 1.5 and Q = 5. 76)State different types of oscillators. 77)Explain RC phase shift oscillator. 78)Explain wein bridge oscillator And give its two application. 79)Explain Quadrature oscillator. 80)Describe the application of oscillators and filters in analog ckt. 81)Design oscillator for generating oscillations of 1mhz and the phase shift of 360 degree. 82)Design a 2 nd order filter which allow the frequency of range 1.4khz to 90.8khz. 83)What is PLL? Explain in detail.? 84)Explain a)lock Range b) center frequency c)capture range d) Loop gain

12 i. e)free running frequency. 85)List the desirable characteristics of VCO. 86)Explain the application of IC565 as a a) FM demodulator b)freuquency multiplier 87)What do you mean by voltage regulator.explain in detail. 88)Draw a block schematic of PLL IC NE/SE 565and describe its functions. 89)Explain different modes of operation of IC )Draw and explain ckt diagram for monostable Multivibrator. 91)Draw and explain ckt diagram for astable Multivibrator. 92)Draw and explain ckt diagram for bistable Multivibrator. 93)Give the block diagram of IC 566 VCO and explain its operation. 94)Draw the ckt of PLL AM detector and explain its operation. 95)Discuss FSK generator using IC555 timer. 96)Draw and explain block diagram of frequency multiplier. 97)Draw and explain the ckt of scmitt trigger using Ic 555 timer.and explain its operation. 98)Design symmetrical square wave generator of 10khz. Also give its application. 99)Draw and explain characteristics of three terminal IC regulators. 100)Explain the application of IC565 as a a) FM demodulator b)freuquency multiplier 101)What do you mean by voltage regulator.explain in detail. 102)Draw a block schematic of PLL IC NE/SE 565and describe its functions. 103)Explain different modes of operation of IC )Draw and explain ckt diagram for monostable Multivibrator. 105)Draw and explain ckt diagram for astable Multivibrator. 106)Draw and explain ckt diagram for bistable Multivibrator. 107)Give the block diagram of IC 566 VCO and explain its operation. 108)Draw the ckt of PLL AM detector and explain its operation. 109)Discuss FSK generator using IC555 timer. 110)Draw and explain block diagram of frequency multiplier. 111)Draw and explain the ckt of scmitt trigger using Ic 555 timer.and explain its operation. 112)Design symmetrical square wave generator of 10khz. Also give its application. 113)Draw and explain characteristics of three terminal IC regulators. 114)An amplifier system has the following input and output signals

13 (i)what is the voltage gain of the system? (ii)draw a circuit diagram, based on a single op-amp, for a voltage amplifier which could be used for this system. Give suitable values for any components. 115) An extract from the data sheet of an op-amp is shown in the following table. The following diagram shows the op-amp set up as a voltage amplifier. The op-amp is powered from a ±15 V power supply and saturation occurs at ±12 V

14 a) Calculate the voltage gain of the amplifier b) Complete the following graph to show how the output voltage VouT varies as the input voltage VIN is increased from -2 V to +2 V. c) Calculate the bandwidth of the amplifier for this value of voltage gain d) In response to a step input, the output voltage of the amplifier changes from -5 V to +5 V. Calculate the time taken for this change in output voltage to occur. 116) Design a zener constant current bias circuit for the following specifications a) emitter current Ie = 10 ma b) zener diode with Vz = 4.7 V and Iz = 53 ma c) Bac = Bdc = 100, Vbe = V d) Supply voltge Vee = -9 V 117) Design the DIBO-DA using the diode constant current bias to meet the following specifications a) supply voltage = 12V b) Ie = 1.5 ma and Vbe = 0.7V. c) voltage gain less than equal to ) A differential amplifier has an output voltage given by Vo = 9 V2-10 V1. The two inputs are V1 = 10 mv and V2 = 20 mv. Determine common mode input voltage, common mode gain, the differential gain, common mode output and CMRR..An opamp has slew rate of 0.5 V/Us.what is the maximum frequency for which the amplifier will give an undistorted sinusoidal output signal of (a) 30Vp-p (b) 50Vp-p.

15 119)For inverting amplifier with following specifications find total output offset voltage due to Voi and input bias current Ib. Rf = 100 k, R1 = 1K, Vio = 7.5mV, Ib = 250Ma 120) The opamp used as NI amplifier has following specifications, dvio/dt = 30 uv/ C,dIio/dt = 10 na/ C the amplifier is nulled at 25 C and uses R1 = 100 ohms and Rf = 8.2 K ohms.if a 20 mv peak sine wave 100 Hz is applied at input. (1) Calculate error voltage & output voltage at 45 C. (2) Draw output voltage waveform at 25 C & 45 C. 121)Find R1 and Rf in the lossy integrator so that peak gain is 20 db down from its peak value when w = rad/sec. Use capacitance of 0.01 uf. 122) (a) Design a differentiator to differentiate an input signal that varies frequency from 10 Hz to 1KHz. (b) if a sine wave of 1V peak at 1000 Hz is applied to this differentiator draw its output waveform. 123) Find the expression of output Vo for differential amplifier with 3 opamps or instrumentation amplifier. Find the value of the variable resistor such that the amplifier is supposed to offer the gain of 1300 and R4 = 10K and R1 = 10K and Rf =1M.

Chapter 12: The Operational Amplifier

Chapter 12: The Operational Amplifier Chapter 12: The Operational Amplifier 12.1: Introduction to Operational Amplifier (Op-Amp) Operational amplifiers (op-amps) are very high gain dc coupled amplifiers with differential inputs; they are used

More information

LM 358 Op Amp. If you have small signals and need a more useful reading we could amplify it using the op amp, this is commonly used in sensors.

LM 358 Op Amp. If you have small signals and need a more useful reading we could amplify it using the op amp, this is commonly used in sensors. LM 358 Op Amp S k i l l L e v e l : I n t e r m e d i a t e OVERVIEW The LM 358 is a duel single supply operational amplifier. As it is a single supply it eliminates the need for a duel power supply, thus

More information

Op Amp Circuit Collection

Op Amp Circuit Collection Op Amp Circuit Collection Note: National Semiconductor recommends replacing 2N2920 and 2N3728 matched pairs with LM394 in all application circuits. Section 1 Basic Circuits Inverting Amplifier Difference

More information

OPERATIONAL AMPLIFIERS. o/p

OPERATIONAL AMPLIFIERS. o/p OPERATIONAL AMPLIFIERS 1. If the input to the circuit of figure is a sine wave the output will be i/p o/p a. A half wave rectified sine wave b. A fullwave rectified sine wave c. A triangular wave d. A

More information

Precision Diode Rectifiers

Precision Diode Rectifiers by Kenneth A. Kuhn March 21, 2013 Precision half-wave rectifiers An operational amplifier can be used to linearize a non-linear function such as the transfer function of a semiconductor diode. The classic

More information

Basic Op Amp Circuits

Basic Op Amp Circuits Basic Op Amp ircuits Manuel Toledo INEL 5205 Instrumentation August 3, 2008 Introduction The operational amplifier (op amp or OA for short) is perhaps the most important building block for the design of

More information

QUESTION BANK FOR. S. Y. B. Sc. ELECTRONICS

QUESTION BANK FOR. S. Y. B. Sc. ELECTRONICS SCIENCE FACULTY NORTH MAHARASHTRA UNIVERSITY, JALGAON QUESTION BANK FOR S. Y. B. Sc. ELECTRONICS (With effect from June, 28) 2 Board of Studies in Electronics Board of Studies in Electronics, in its meeting

More information

OPERATIONAL AMPLIFIER

OPERATIONAL AMPLIFIER MODULE3 OPERATIONAL AMPLIFIER Contents 1. INTRODUCTION... 3 2. Operational Amplifier Block Diagram... 3 3. Operational Amplifier Characteristics... 3 4. Operational Amplifier Package... 4 4.1 Op Amp Pins

More information

Operating Manual Ver.1.1

Operating Manual Ver.1.1 Class B Amplifier (Push-Pull Emitter Follower) Operating Manual Ver.1.1 An ISO 9001 : 2000 company 94-101, Electronic Complex Pardesipura, Indore- 452010, India Tel : 91-731- 2570301/02, 4211100 Fax: 91-731-

More information

Chapter 19 Operational Amplifiers

Chapter 19 Operational Amplifiers Chapter 19 Operational Amplifiers The operational amplifier, or op-amp, is a basic building block of modern electronics. Op-amps date back to the early days of vacuum tubes, but they only became common

More information

6.101 Final Project Report Class G Audio Amplifier

6.101 Final Project Report Class G Audio Amplifier 6.101 Final Project Report Class G Audio Amplifier Mark Spatz 4/3/2014 1 1 Introduction For my final project, I designed and built a 150 Watt audio amplifier to replace the underpowered and unreliable

More information

Frequency Response of Filters

Frequency Response of Filters School of Engineering Department of Electrical and Computer Engineering 332:224 Principles of Electrical Engineering II Laboratory Experiment 2 Frequency Response of Filters 1 Introduction Objectives To

More information

LM118/LM218/LM318 Operational Amplifiers

LM118/LM218/LM318 Operational Amplifiers LM118/LM218/LM318 Operational Amplifiers General Description The LM118 series are precision high speed operational amplifiers designed for applications requiring wide bandwidth and high slew rate. They

More information

LABORATORY 2 THE DIFFERENTIAL AMPLIFIER

LABORATORY 2 THE DIFFERENTIAL AMPLIFIER LABORATORY 2 THE DIFFERENTIAL AMPLIFIER OBJECTIVES 1. To understand how to amplify weak (small) signals in the presence of noise. 1. To understand how a differential amplifier rejects noise and common

More information

Analog Signal Conditioning

Analog Signal Conditioning Analog Signal Conditioning Analog and Digital Electronics Electronics Digital Electronics Analog Electronics 2 Analog Electronics Analog Electronics Operational Amplifiers Transistors TRIAC 741 LF351 TL084

More information

Reading: HH Sections 4.11 4.13, 4.19 4.20 (pgs. 189-212, 222 224)

Reading: HH Sections 4.11 4.13, 4.19 4.20 (pgs. 189-212, 222 224) 6 OP AMPS II 6 Op Amps II In the previous lab, you explored several applications of op amps. In this exercise, you will look at some of their limitations. You will also examine the op amp integrator and

More information

LM101A LM201A LM301A Operational Amplifiers

LM101A LM201A LM301A Operational Amplifiers LM101A LM201A LM301A Operational Amplifiers General Description The LM101A series are general purpose operational amplifiers which feature improved performance over industry standards like the LM709 Advanced

More information

Operational Amplifier - IC 741

Operational Amplifier - IC 741 Operational Amplifier - IC 741 Tabish December 2005 Aim: To study the working of an 741 operational amplifier by conducting the following experiments: (a) Input bias current measurement (b) Input offset

More information

www.jameco.com 1-800-831-4242

www.jameco.com 1-800-831-4242 Distributed by: www.jameco.com 1-800-831-4242 The content and copyrights of the attached material are the property of its owner. LF411 Low Offset, Low Drift JFET Input Operational Amplifier General Description

More information

OBJECTIVE QUESTIONS IN ANALOG ELECTRONICS

OBJECTIVE QUESTIONS IN ANALOG ELECTRONICS 1. The early effect in a bipolar junction transistor is caused by (a) fast turn-on (c) large collector-base reverse bias (b)fast turn-off (d) large emitter-base forward bias 2. MOSFET can be used as a

More information

MAS.836 HOW TO BIAS AN OP-AMP

MAS.836 HOW TO BIAS AN OP-AMP MAS.836 HOW TO BIAS AN OP-AMP Op-Amp Circuits: Bias, in an electronic circuit, describes the steady state operating characteristics with no signal being applied. In an op-amp circuit, the operating characteristic

More information

Operational Amplifiers

Operational Amplifiers Module 6 Amplifiers Operational Amplifiers The Ideal Amplifier What you ll learn in Module 6. Section 6.0. Introduction to Operational Amplifiers. Understand Concept of the Ideal Amplifier and the Need

More information

TL082 Wide Bandwidth Dual JFET Input Operational Amplifier

TL082 Wide Bandwidth Dual JFET Input Operational Amplifier TL082 Wide Bandwidth Dual JFET Input Operational Amplifier General Description These devices are low cost high speed dual JFET input operational amplifiers with an internally trimmed input offset voltage

More information

PIN CONFIGURATION FEATURES ORDERING INFORMATION ABSOLUTE MAXIMUM RATINGS. D, F, N Packages

PIN CONFIGURATION FEATURES ORDERING INFORMATION ABSOLUTE MAXIMUM RATINGS. D, F, N Packages DESCRIPTION The µa71 is a high performance operational amplifier with high open-loop gain, internal compensation, high common mode range and exceptional temperature stability. The µa71 is short-circuit-protected

More information

Description. 5k (10k) - + 5k (10k)

Description. 5k (10k) - + 5k (10k) THAT Corporation Low Noise, High Performance Microphone Preamplifier IC FEATURES Excellent noise performance through the entire gain range Exceptionally low THD+N over the full audio bandwidth Low power

More information

Digital to Analog Converter. Raghu Tumati

Digital to Analog Converter. Raghu Tumati Digital to Analog Converter Raghu Tumati May 11, 2006 Contents 1) Introduction............................... 3 2) DAC types................................... 4 3) DAC Presented.............................

More information

Description. Output Stage. 5k (10k) - + 5k (10k)

Description. Output Stage. 5k (10k) - + 5k (10k) THAT Corporation Low Noise, High Performance Audio Preamplifier IC FEATURES Low Noise: 1 nv/hz input noise (60dB gain) 34 nv/hz input noise (0dB gain) (1512) Low THD+N (full audio bandwidth): 0.0005% 40dB

More information

TS321 Low Power Single Operational Amplifier

TS321 Low Power Single Operational Amplifier SOT-25 Pin Definition: 1. Input + 2. Ground 3. Input - 4. Output 5. Vcc General Description The TS321 brings performance and economy to low power systems. With high unity gain frequency and a guaranteed

More information

The 2N3393 Bipolar Junction Transistor

The 2N3393 Bipolar Junction Transistor The 2N3393 Bipolar Junction Transistor Common-Emitter Amplifier Aaron Prust Abstract The bipolar junction transistor (BJT) is a non-linear electronic device which can be used for amplification and switching.

More information

Current vs. Voltage Feedback Amplifiers

Current vs. Voltage Feedback Amplifiers Current vs. ltage Feedback Amplifiers One question continuously troubles the analog design engineer: Which amplifier topology is better for my application, current feedback or voltage feedback? In most

More information

Lock - in Amplifier and Applications

Lock - in Amplifier and Applications Lock - in Amplifier and Applications What is a Lock in Amplifier? In a nut shell, what a lock-in amplifier does is measure the amplitude V o of a sinusoidal voltage, V in (t) = V o cos(ω o t) where ω o

More information

Section 3. Sensor to ADC Design Example

Section 3. Sensor to ADC Design Example Section 3 Sensor to ADC Design Example 3-1 This section describes the design of a sensor to ADC system. The sensor measures temperature, and the measurement is interfaced into an ADC selected by the systems

More information

Use and Application of Output Limiting Amplifiers (HFA1115, HFA1130, HFA1135)

Use and Application of Output Limiting Amplifiers (HFA1115, HFA1130, HFA1135) Use and Application of Output Limiting Amplifiers (HFA111, HFA110, HFA11) Application Note November 1996 AN96 Introduction Amplifiers with internal voltage clamps, also known as limiting amplifiers, have

More information

Bipolar Transistor Amplifiers

Bipolar Transistor Amplifiers Physics 3330 Experiment #7 Fall 2005 Bipolar Transistor Amplifiers Purpose The aim of this experiment is to construct a bipolar transistor amplifier with a voltage gain of minus 25. The amplifier must

More information

Single Supply Op Amp Circuits Dr. Lynn Fuller

Single Supply Op Amp Circuits Dr. Lynn Fuller ROCHESTER INSTITUTE OF TECHNOLOGY MICROELECTRONIC ENGINEERING Single Supply Op Amp Circuits Dr. Lynn Fuller Webpage: http://people.rit.edu/lffeee 82 Lomb Memorial Drive Rochester, NY 146235604 Tel (585)

More information

Transistor Amplifiers

Transistor Amplifiers Physics 3330 Experiment #7 Fall 1999 Transistor Amplifiers Purpose The aim of this experiment is to develop a bipolar transistor amplifier with a voltage gain of minus 25. The amplifier must accept input

More information

LM3900. AN-72 The LM3900: A New Current-Differencing Quad of Plus or Minus Input. Amplifiers. Literature Number: SNOA653

LM3900. AN-72 The LM3900: A New Current-Differencing Quad of Plus or Minus Input. Amplifiers. Literature Number: SNOA653 LM3900 AN-72 The LM3900: A New Current-Differencing Quad of Plus or Minus Input Amplifiers Literature Number: SNOA653 The LM3900 A New Current-Differencing Quad of g Input Amplifiers National Semiconductor

More information

Design of op amp sine wave oscillators

Design of op amp sine wave oscillators Design of op amp sine wave oscillators By on Mancini Senior Application Specialist, Operational Amplifiers riteria for oscillation The canonical form of a feedback system is shown in Figure, and Equation

More information

Content Map For Career & Technology

Content Map For Career & Technology Content Strand: Applied Academics CT-ET1-1 analysis of electronic A. Fractions and decimals B. Powers of 10 and engineering notation C. Formula based problem solutions D. Powers and roots E. Linear equations

More information

Transistor Characteristics and Single Transistor Amplifier Sept. 8, 1997

Transistor Characteristics and Single Transistor Amplifier Sept. 8, 1997 Physics 623 Transistor Characteristics and Single Transistor Amplifier Sept. 8, 1997 1 Purpose To measure and understand the common emitter transistor characteristic curves. To use the base current gain

More information

Regulated D.C. Power Supply

Regulated D.C. Power Supply 442 17 Principles of Electronics Regulated D.C. Power Supply 17.1 Ordinary D.C. Power Supply 17.2 Important Terms 17.3 Regulated Power Supply 17.4 Types of Voltage Regulators 17.5 Zener Diode Voltage Regulator

More information

LF412 Low Offset Low Drift Dual JFET Input Operational Amplifier

LF412 Low Offset Low Drift Dual JFET Input Operational Amplifier LF412 Low Offset Low Drift Dual JFET Input Operational Amplifier General Description These devices are low cost high speed JFET input operational amplifiers with very low input offset voltage and guaranteed

More information

High Speed, Low Power Monolithic Op Amp AD847

High Speed, Low Power Monolithic Op Amp AD847 a FEATURES Superior Performance High Unity Gain BW: MHz Low Supply Current:.3 ma High Slew Rate: 3 V/ s Excellent Video Specifications.% Differential Gain (NTSC and PAL).9 Differential Phase (NTSC and

More information

Lab 7: Operational Amplifiers Part I

Lab 7: Operational Amplifiers Part I Lab 7: Operational Amplifiers Part I Objectives The objective of this lab is to study operational amplifier (op amp) and its applications. We will be simulating and building some basic op amp circuits,

More information

Experiment # (4) AM Demodulator

Experiment # (4) AM Demodulator Islamic University of Gaza Faculty of Engineering Electrical Department Experiment # (4) AM Demodulator Communications Engineering I (Lab.) Prepared by: Eng. Omar A. Qarmout Eng. Mohammed K. Abu Foul Experiment

More information

Physics 623 Transistor Characteristics and Single Transistor Amplifier Sept. 13, 2006

Physics 623 Transistor Characteristics and Single Transistor Amplifier Sept. 13, 2006 Physics 623 Transistor Characteristics and Single Transistor Amplifier Sept. 13, 2006 1 Purpose To measure and understand the common emitter transistor characteristic curves. To use the base current gain

More information

Positive Feedback and Oscillators

Positive Feedback and Oscillators Physics 3330 Experiment #6 Fall 1999 Positive Feedback and Oscillators Purpose In this experiment we will study how spontaneous oscillations may be caused by positive feedback. You will construct an active

More information

PowerAmp Design. PowerAmp Design PAD135 COMPACT HIGH VOLATGE OP AMP

PowerAmp Design. PowerAmp Design PAD135 COMPACT HIGH VOLATGE OP AMP PowerAmp Design COMPACT HIGH VOLTAGE OP AMP Rev G KEY FEATURES LOW COST SMALL SIZE 40mm SQUARE HIGH VOLTAGE 200 VOLTS HIGH OUTPUT CURRENT 10A PEAK 40 WATT DISSIPATION CAPABILITY 200V/µS SLEW RATE APPLICATIONS

More information

CHAPTER 10 OPERATIONAL-AMPLIFIER CIRCUITS

CHAPTER 10 OPERATIONAL-AMPLIFIER CIRCUITS CHAPTER 10 OPERATIONAL-AMPLIFIER CIRCUITS Chapter Outline 10.1 The Two-Stage CMOS Op Amp 10.2 The Folded-Cascode CMOS Op Amp 10.3 The 741 Op-Amp Circuit 10.4 DC Analysis of the 741 10.5 Small-Signal Analysis

More information

Fully Differential CMOS Amplifier

Fully Differential CMOS Amplifier ECE 511 Analog Electronics Term Project Fully Differential CMOS Amplifier Saket Vora 6 December 2006 Dr. Kevin Gard NC State University 1 Introduction In this project, a fully differential CMOS operational

More information

5B5BBasic RC Oscillator Circuit

5B5BBasic RC Oscillator Circuit 5B5BBasic RC Oscillator Circuit The RC Oscillator which is also called a Phase Shift Oscillator, produces a sine wave output signal using regenerative feedback from the resistor-capacitor combination.

More information

TDA2040. 20W Hi-Fi AUDIO POWER AMPLIFIER

TDA2040. 20W Hi-Fi AUDIO POWER AMPLIFIER 20W Hi-Fi AUDIO POWER AMPLIFIER DESCRIPTION The TDA2040 is a monolithic integrated circuit in Pentawatt package, intended for use as an audio class AB amplifier. Typically it provides 22W output power

More information

*For stability of the feedback loop, the differential gain must vary as

*For stability of the feedback loop, the differential gain must vary as ECE137a Lab project 3 You will first be designing and building an op-amp. The op-amp will then be configured as a narrow-band amplifier for amplification of voice signals in a public address system. Part

More information

Design of a TL431-Based Controller for a Flyback Converter

Design of a TL431-Based Controller for a Flyback Converter Design of a TL431-Based Controller for a Flyback Converter Dr. John Schönberger Plexim GmbH Technoparkstrasse 1 8005 Zürich 1 Introduction The TL431 is a reference voltage source that is commonly used

More information

High Voltage Current Shunt Monitor AD8212

High Voltage Current Shunt Monitor AD8212 High Voltage Current Shunt Monitor AD822 FEATURES Adjustable gain High common-mode voltage range 7 V to 65 V typical 7 V to >500 V with external pass transistor Current output Integrated 5 V series regulator

More information

Understanding Power Impedance Supply for Optimum Decoupling

Understanding Power Impedance Supply for Optimum Decoupling Introduction Noise in power supplies is not only caused by the power supply itself, but also the load s interaction with the power supply (i.e. dynamic loads, switching, etc.). To lower load induced noise,

More information

Op-Amp Simulation EE/CS 5720/6720. Read Chapter 5 in Johns & Martin before you begin this assignment.

Op-Amp Simulation EE/CS 5720/6720. Read Chapter 5 in Johns & Martin before you begin this assignment. Op-Amp Simulation EE/CS 5720/6720 Read Chapter 5 in Johns & Martin before you begin this assignment. This assignment will take you through the simulation and basic characterization of a simple operational

More information

Pulse Width Modulation (PWM) LED Dimmer Circuit. Using a 555 Timer Chip

Pulse Width Modulation (PWM) LED Dimmer Circuit. Using a 555 Timer Chip Pulse Width Modulation (PWM) LED Dimmer Circuit Using a 555 Timer Chip Goals of Experiment Demonstrate the operation of a simple PWM circuit that can be used to adjust the intensity of a green LED by varying

More information

Kit 106. 50 Watt Audio Amplifier

Kit 106. 50 Watt Audio Amplifier Kit 106 50 Watt Audio Amplifier T his kit is based on an amazing IC amplifier module from ST Electronics, the TDA7294 It is intended for use as a high quality audio class AB amplifier in hi-fi applications

More information

11: AUDIO AMPLIFIER I. INTRODUCTION

11: AUDIO AMPLIFIER I. INTRODUCTION 11: AUDIO AMPLIFIER I. INTRODUCTION The properties of an amplifying circuit using an op-amp depend primarily on the characteristics of the feedback network rather than on those of the op-amp itself. A

More information

Since any real component also has loss due to the resistive component, the average power dissipated is 2 2R

Since any real component also has loss due to the resistive component, the average power dissipated is 2 2R Quality factor, Q Reactive components such as capacitors and inductors are often described with a figure of merit called Q. While it can be defined in many ways, it s most fundamental description is: Q

More information

SINGLE-SUPPLY OPERATION OF OPERATIONAL AMPLIFIERS

SINGLE-SUPPLY OPERATION OF OPERATIONAL AMPLIFIERS SINGLE-SUPPLY OPERATION OF OPERATIONAL AMPLIFIERS One of the most common applications questions on operational amplifiers concerns operation from a single supply voltage. Can the model OPAxyz be operated

More information

Programmable-Gain Transimpedance Amplifiers Maximize Dynamic Range in Spectroscopy Systems

Programmable-Gain Transimpedance Amplifiers Maximize Dynamic Range in Spectroscopy Systems Programmable-Gain Transimpedance Amplifiers Maximize Dynamic Range in Spectroscopy Systems PHOTODIODE VOLTAGE SHORT-CIRCUIT PHOTODIODE SHORT- CIRCUIT VOLTAGE 0mV DARK ark By Luis Orozco Introduction Precision

More information

Making Accurate Voltage Noise and Current Noise Measurements on Operational Amplifiers Down to 0.1Hz

Making Accurate Voltage Noise and Current Noise Measurements on Operational Amplifiers Down to 0.1Hz Author: Don LaFontaine Making Accurate Voltage Noise and Current Noise Measurements on Operational Amplifiers Down to 0.1Hz Abstract Making accurate voltage and current noise measurements on op amps in

More information

PIEZO FILTERS INTRODUCTION

PIEZO FILTERS INTRODUCTION For more than two decades, ceramic filter technology has been instrumental in the proliferation of solid state electronics. A view of the future reveals that even greater expectations will be placed on

More information

Application of Rail-to-Rail Operational Amplifiers

Application of Rail-to-Rail Operational Amplifiers Application Report SLOA039A - December 1999 Application of Rail-to-Rail Operational Amplifiers Andreas Hahn Mixed Signal Products ABSTRACT This application report assists design engineers to understand

More information

LM139/LM239/LM339 A Quad of Independently Functioning Comparators

LM139/LM239/LM339 A Quad of Independently Functioning Comparators LM139/LM239/LM339 A Quad of Independently Functioning Comparators INTRODUCTION The LM139/LM239/LM339 family of devices is a monolithic quad of independently functioning comparators designed to meet the

More information

High Common-Mode Rejection. Differential Line Receiver SSM2141. Fax: 781/461-3113 FUNCTIONAL BLOCK DIAGRAM FEATURES. High Common-Mode Rejection

High Common-Mode Rejection. Differential Line Receiver SSM2141. Fax: 781/461-3113 FUNCTIONAL BLOCK DIAGRAM FEATURES. High Common-Mode Rejection a FEATURES High Common-Mode Rejection DC: 00 db typ 60 Hz: 00 db typ 20 khz: 70 db typ 40 khz: 62 db typ Low Distortion: 0.00% typ Fast Slew Rate: 9.5 V/ s typ Wide Bandwidth: 3 MHz typ Low Cost Complements

More information

Diode Applications. by Kenneth A. Kuhn Sept. 1, 2008. This note illustrates some common applications of diodes.

Diode Applications. by Kenneth A. Kuhn Sept. 1, 2008. This note illustrates some common applications of diodes. by Kenneth A. Kuhn Sept. 1, 2008 This note illustrates some common applications of diodes. Power supply applications A common application for diodes is converting AC to DC. Although half-wave rectification

More information

How To Calculate The Power Gain Of An Opamp

How To Calculate The Power Gain Of An Opamp A. M. Niknejad University of California, Berkeley EE 100 / 42 Lecture 8 p. 1/23 EE 42/100 Lecture 8: Op-Amps ELECTRONICS Rev C 2/8/2012 (9:54 AM) Prof. Ali M. Niknejad University of California, Berkeley

More information

Scaling and Biasing Analog Signals

Scaling and Biasing Analog Signals Scaling and Biasing Analog Signals November 2007 Introduction Scaling and biasing the range and offset of analog signals is a useful skill for working with a variety of electronics. Not only can it interface

More information

ARRL Morse Code Oscillator, How It Works By: Mark Spencer, WA8SME

ARRL Morse Code Oscillator, How It Works By: Mark Spencer, WA8SME The national association for AMATEUR RADIO ARRL Morse Code Oscillator, How It Works By: Mark Spencer, WA8SME This supplement is intended for use with the ARRL Morse Code Oscillator kit, sold separately.

More information

School of Engineering Department of Electrical and Computer Engineering

School of Engineering Department of Electrical and Computer Engineering 1 School of Engineering Department of Electrical and Computer Engineering 332:223 Principles of Electrical Engineering I Laboratory Experiment #4 Title: Operational Amplifiers 1 Introduction Objectives

More information

Fig. 1 :Block diagram symbol of the operational amplifier. Characteristics ideal op-amp real op-amp

Fig. 1 :Block diagram symbol of the operational amplifier. Characteristics ideal op-amp real op-amp Experiment: General Description An operational amplifier (op-amp) is defined to be a high gain differential amplifier. When using the op-amp with other mainly passive elements, op-amp circuits with various

More information

LINEAR INTEGRATED-CIRCUIT FUNCTION GENERATOR

LINEAR INTEGRATED-CIRCUIT FUNCTION GENERATOR ~. c EXPERIMENT 9 Name: LINEAR INTEGRATED-CIRCUIT FUNCTION GENERATOR OBJECTIVES: INTRODUCTION: 1. To observe the operation of a linear integrated-circuit function generator. 2. To observe the frequency-versus-timing

More information

ENEE 307 Electronic Circuit Design Laboratory Spring 2012. A. Iliadis Electrical Engineering Department University of Maryland College Park MD 20742

ENEE 307 Electronic Circuit Design Laboratory Spring 2012. A. Iliadis Electrical Engineering Department University of Maryland College Park MD 20742 1.1. Differential Amplifiers ENEE 307 Electronic Circuit Design Laboratory Spring 2012 A. Iliadis Electrical Engineering Department University of Maryland College Park MD 20742 Differential Amplifiers

More information

WHY DIFFERENTIAL? instruments connected to the circuit under test and results in V COMMON.

WHY DIFFERENTIAL? instruments connected to the circuit under test and results in V COMMON. WHY DIFFERENTIAL? Voltage, The Difference Whether aware of it or not, a person using an oscilloscope to make any voltage measurement is actually making a differential voltage measurement. By definition,

More information

LM741. Single Operational Amplifier. Features. Description. Internal Block Diagram. www.fairchildsemi.com

LM741. Single Operational Amplifier. Features. Description. Internal Block Diagram. www.fairchildsemi.com Single Operational Amplifier www.fairchildsemi.com Features Short circuit protection Excellent temperature stability Internal frequency compensation High Input voltage range Null of offset Description

More information

MAINTENANCE & ADJUSTMENT

MAINTENANCE & ADJUSTMENT MAINTENANCE & ADJUSTMENT Circuit Theory The concept of PLL system frequency synthesization is not of recent development, however, it has not been a long age since the digital theory has been couplet with

More information

Lecture 18: Common Emitter Amplifier. Maximum Efficiency of Class A Amplifiers. Transformer Coupled Loads.

Lecture 18: Common Emitter Amplifier. Maximum Efficiency of Class A Amplifiers. Transformer Coupled Loads. Whites, EE 3 Lecture 18 Page 1 of 10 Lecture 18: Common Emitter Amplifier. Maximum Efficiency of Class A Amplifiers. Transformer Coupled Loads. We discussed using transistors as switches in the last lecture.

More information

DESCRIPTIO. LT1226 Low Noise Very High Speed Operational Amplifier

DESCRIPTIO. LT1226 Low Noise Very High Speed Operational Amplifier FEATRES Gain of Stable GHz Gain Bandwidth V/µs Slew Rate.6nV/ Hz Input Noise Voltage V/mV Minimum DC Gain, R L = Ω mv Maximum Input Offset Voltage ±V Minimum Output Swing into Ω ide Supply Range ±.V to

More information

LM139/LM239/LM339/LM2901/LM3302 Low Power Low Offset Voltage Quad Comparators

LM139/LM239/LM339/LM2901/LM3302 Low Power Low Offset Voltage Quad Comparators Low Power Low Offset Voltage Quad Comparators General Description The LM139 series consists of four independent precision voltage comparators with an offset voltage specification as low as 2 mv max for

More information

Low Cost Instrumentation Amplifier AD622

Low Cost Instrumentation Amplifier AD622 Data Sheet FEATURES Easy to use Low cost solution Higher performance than two or three op amp design Unity gain with no external resistor Optional gains with one external resistor (Gain range: 2 to 000)

More information

NTE923 & NTE923D Integrated Circuit Precision Voltage Regulator

NTE923 & NTE923D Integrated Circuit Precision Voltage Regulator NTE923 & NTE923D Integrated Circuit Precision Voltage Regulator Description: The NTE923 and NTE923D are voltage regulators designed primarily for series regulator applications. By themselves, these devices

More information

Chapter 8 Differential and Multistage Amplifiers. EE 3120 Microelectronics II

Chapter 8 Differential and Multistage Amplifiers. EE 3120 Microelectronics II 1 Chapter 8 Differential and Multistage Amplifiers Operational Amplifier Circuit Components 2 1. Ch 7: Current Mirrors and Biasing 2. Ch 9: Frequency Response 3. Ch 8: Active-Loaded Differential Pair 4.

More information

Isolated AC Sine Wave Input 3B42 / 3B43 / 3B44 FEATURES APPLICATIONS PRODUCT OVERVIEW FUNCTIONAL BLOCK DIAGRAM

Isolated AC Sine Wave Input 3B42 / 3B43 / 3B44 FEATURES APPLICATIONS PRODUCT OVERVIEW FUNCTIONAL BLOCK DIAGRAM Isolated AC Sine Wave Input 3B42 / 3B43 / 3B44 FEATURES AC averaging technique used to rectify, amplify, and filter 50 Hz to 400 Hz sine-wave signals. Accepts inputs of between 20 mv to 550 V rms to give

More information

100V - 100W DMOS AUDIO AMPLIFIER WITH MUTE/ST-BY THERMAL SHUTDOWN STBY-GND

100V - 100W DMOS AUDIO AMPLIFIER WITH MUTE/ST-BY THERMAL SHUTDOWN STBY-GND TDA7294 100V - 100W DMOS AUDIO AMPLIFIER WITH MUTE/ST-BY VERY HIGH OPERATING VOLTAGE RANGE (±40V) DMOS POWER STAGE HIGH OUTPUT POWER (UP TO 100W MU- SIC POWER) MUTING/STAND-BY FUNCTIONS NO SWITCH ON/OFF

More information

OP-AMP AND ITS APPLICATIONS

OP-AMP AND ITS APPLICATIONS C H A P T E R68 Learning Objectives What is an OP-AMP? OP-AMP Symbol Polarity Conventions Ideal Operational Amplifier Virtual Ground and Summing Point Why V i is Reduced to Almost Zero? OP-AMP Applications

More information

isim ACTIVE FILTER DESIGNER NEW, VERY CAPABLE, MULTI-STAGE ACTIVE FILTER DESIGN TOOL

isim ACTIVE FILTER DESIGNER NEW, VERY CAPABLE, MULTI-STAGE ACTIVE FILTER DESIGN TOOL isim ACTIVE FILTER DESIGNER NEW, VERY CAPABLE, MULTI-STAGE ACTIVE FILTER DESIGN TOOL Michael Steffes Sr. Applications Manager 12/15/2010 SIMPLY SMARTER Introduction to the New Active Filter Designer Scope

More information

DIODE CIRCUITS LABORATORY. Fig. 8.1a Fig 8.1b

DIODE CIRCUITS LABORATORY. Fig. 8.1a Fig 8.1b DIODE CIRCUITS LABORATORY A solid state diode consists of a junction of either dissimilar semiconductors (pn junction diode) or a metal and a semiconductor (Schottky barrier diode). Regardless of the type,

More information

Electronics. Discrete assembly of an operational amplifier as a transistor circuit. LD Physics Leaflets P4.2.1.1

Electronics. Discrete assembly of an operational amplifier as a transistor circuit. LD Physics Leaflets P4.2.1.1 Electronics Operational Amplifier Internal design of an operational amplifier LD Physics Leaflets Discrete assembly of an operational amplifier as a transistor circuit P4.2.1.1 Objects of the experiment

More information

EXPERIMENT NUMBER 5 BASIC OSCILLOSCOPE OPERATIONS

EXPERIMENT NUMBER 5 BASIC OSCILLOSCOPE OPERATIONS 1 EXPERIMENT NUMBER 5 BASIC OSCILLOSCOPE OPERATIONS The oscilloscope is the most versatile and most important tool in this lab and is probably the best tool an electrical engineer uses. This outline guides

More information

Precision, Unity-Gain Differential Amplifier AMP03

Precision, Unity-Gain Differential Amplifier AMP03 a FEATURES High CMRR: db Typ Low Nonlinearity:.% Max Low Distortion:.% Typ Wide Bandwidth: MHz Typ Fast Slew Rate: 9.5 V/ s Typ Fast Settling (.%): s Typ Low Cost APPLICATIONS Summing Amplifiers Instrumentation

More information

A Low-Cost VCA Limiter

A Low-Cost VCA Limiter The circuits within this application note feature THAT218x to provide the essential function of voltage-controlled amplifier (VCA). Since writing this note, THAT has introduced a new dual VCA, as well

More information

LAB 12: ACTIVE FILTERS

LAB 12: ACTIVE FILTERS A. INTRODUCTION LAB 12: ACTIVE FILTERS After last week s encounter with op- amps we will use them to build active filters. B. ABOUT FILTERS An electric filter is a frequency-selecting circuit designed

More information

LF442 Dual Low Power JFET Input Operational Amplifier

LF442 Dual Low Power JFET Input Operational Amplifier LF442 Dual Low Power JFET Input Operational Amplifier General Description The LF442 dual low power operational amplifiers provide many of the same AC characteristics as the industry standard LM1458 while

More information

Op amp DC error characteristics and the effect on high-precision applications

Op amp DC error characteristics and the effect on high-precision applications Op amp DC error characteristics and the effect on high-precision applications Srudeep Patil, Member of Technical Staff, Maxim Integrated - January 01, 2014 This article discusses the DC limitations of

More information

Objectives The purpose of this lab is build and analyze Differential amplifiers based on NPN transistors (or NMOS transistors).

Objectives The purpose of this lab is build and analyze Differential amplifiers based on NPN transistors (or NMOS transistors). 1 Lab 03: Differential Amplifiers (BJT) (20 points) NOTE: 1) Please use the basic current mirror from Lab01 for the second part of the lab (Fig. 3). 2) You can use the same chip as the basic current mirror;

More information

BSNL TTA Question Paper-Instruments and Measurement Specialization 2007

BSNL TTA Question Paper-Instruments and Measurement Specialization 2007 BSNL TTA Question Paper-Instruments and Measurement Specialization 2007 (1) Instrument is a device for determining (a) the magnitude of a quantity (b) the physics of a variable (c) either of the above

More information

Laboratory 4: Feedback and Compensation

Laboratory 4: Feedback and Compensation Laboratory 4: Feedback and Compensation To be performed during Week 9 (Oct. 20-24) and Week 10 (Oct. 27-31) Due Week 11 (Nov. 3-7) 1 Pre-Lab This Pre-Lab should be completed before attending your regular

More information