W1 R1 4.7kOhm ww 1uF LM224N 5V 1UF) |+ R2 470kOhm 5V w Vout Figure 4: Non-Inverting Amp Schematic After setting up your circuit shown in Figure 4, you will be repeating Part One from above, but changing your op-amp to be a non-inverting amp. 1. Derive an expression for Yout as a function of Vin, where Vin is the nodes connected to the Waveform Generator signal. Show your equations below, either typed or a picture of your handwritten work. Derivation of Yout {insert here}

W1 R1 4.7kOhm ww 1uF LM224N 5V 1UF) |+ R2 470kOhm 5V w Vout Figure 4: Non-Inverting Amp Schematic After setting up your circuit shown in Figure 4, you will be repeating Part One from above, but changing your op-amp to be a non-inverting amp. 1. Derive an expression for Yout as a function of Vin, where Vin is the nodes connected to the Waveform Generator signal. Show your equations below, either typed or a picture of your handwritten work. Derivation of Yout {insert here}

Introductory Circuit Analysis (13th Edition)

13th Edition

ISBN:9780133923605

Author:Robert L. Boylestad

Publisher:Robert L. Boylestad

Chapter1: Introduction

Section: Chapter Questions

Problem 1P: Visit your local library (at school or home) and describe the extent to which it provides literature...

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If the ideal design for op-Amp circuit generate 200 mV at the output, Then practically with 26 mV offset voltage the output voltage of the circuit will be equal to .............. mV
(c) (d) Figure Figure Q1b shows an Op-amp with a bias current compensating resistor (Rp). R₁ V₂. Vp IB. R₂ W A • V₂ Figure Olb (i) Derive an expression for V. to quantify the effect of bias currents IB+ and IB-. [3] (ii) Explain how you would choose a value for Rp to reduce the output error due to the bias currents, IB+ and IB.. [3] Referring to an op-amp define what is meant by common-mode rejection ratio (CMRR) and explain the effect a finite CMRR would have on high-precision applications. [4] Page 2 of 7 Continued overleaf
1- Mention any two non linear applications of op- amp. 2- For the circuit given below : Vin is a sine wave Vinpp=9 V and Vref=2.4 V , Assume Vsat=±12V Name the circuit and draw the input and output waveforms . Vo Vin Vref 3- Explain why open-loop op-amp configurations are not used in linear applications? Draw the block diagram of opamp and define the function of each block
Q1 (a) (b) Considering an op-amp, define what is meant by input offset voltage (Vos) and explain what causes it. Figure Qla shows an integrating amplifier with zero input. Derive an expression for the output voltage, Vo, and explain the effect that Vos will have on its operation. R W Vos C Figure Qla A •V₂
TRUE/FALSE QUIZ Answers can be found at www.pearsonhighered.com/floyd. 1. An ideal op-amp has an infinite input impedance. 2. An ideal op-amp has a very high output impedance. 3. The op-amp can operate in both the differential mode or the common mode. 4. Common-mode rejection means that a signal appearing on both inputs is effectively cancelled. 5. CMRR stands for common-mode rejection reference. 6. Slew rate determines how fast the output can change in response to a step input. 7. Negative feedback reduces the gain of an op-amp from its open-loop value. 8. Negative feedback reduces the bandwidth of an op-amp from its open-loop value. 9. A noninverting amplifier uses negative feedback. 10. The gain of a voltage-follower is very high. 11. Negative feedback affects the input and output impedances of an op-amp. 12. A compensated op-amp has a gain roll-off of -20 dB/decade above the critical frequency. 13. The gain-bandwidth product equals the unity-gain frequency. 14. If the feedback…
Draw an op amp symbol including sources to account for offset voltage, offset current, and bias current. What is the principal effect of these sources in an amplifier circuit?
The two input terminals of an op-amp are connected to voltage signals of strength 745µV and 740µV repectively. The gain of the op-amp in common mode is 50 and CMMR is 8&IB. Calculate the output voltage and % of error due to common mode.
You are hired as a technical consultant to model, design and analyze an efficient DC-DC buck converter for a solar PV battery charger as shown in the below figure. PV DC-DC Battery system Converter | MPPT algorithm Charge controller Given the following specifications for the design and analysis of a DC-DC Buck Converter: An input voltage of 15V < Vin < 20V and an output of Vout = 10V over a load range of 5w < Pout < 200W. Switching frequency is few = 500kHz. a) Design the inductor (L) and capacitor (C). The current ripple AiL should be below 5% of the average inductor current IL at the maximum load. The steady state ripple AVout is below 0.5 % of the steady-state value of the output voltage. For the designed L, find the value of Iout,crit at the boundary of DCM and CCM and then Plot Iout,crit vs. Vin . b) Design the rated values for switch, diode, and capacitor. Research and determine a manufacturer part number for your switch, diode, and capacitor. Provide data sheets for each. c)…
10 V(p-p),1KHz sinusoidal voltage is applied to op-amp input and non-inverting input isgrounded. What is the gain of this op-amp and why?
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A certain op-amp has three internal amplifier stages, with midrange gains of 30 dB, 40 dB, and 20 dB. Each stage also has a critical frequency associated with it as follows: f= 600 Hz, fcz = 50 kHz, and fc3 = 200 kHz. a. What is the midrange open-loop gain of the op-amp expressed in dB? b. What is the total phase shift through the amplifier, including inversion, when the signal frequency is 10 kHz?