Sign Up

Captcha Click on image to update the captcha.

Have an account? Sign In Now

Sign In

Captcha Click on image to update the captcha.

Forgot Password?

Need An Account, Sign Up Here

Forgot Password

Lost your password? Please enter your email address. You will receive a link and will create a new password via email.

Captcha Click on image to update the captcha.

Have an account? Sign In Now

Sorry, you do not have a permission to ask a question, You must login to ask question. Please subscribe to paid membership

Captcha Click on image to update the captcha.

Forgot Password?

Don't have account, Sign Up Here
Please subscribe to paid membership

Please briefly explain why you feel this question should be reported.

Please briefly explain why you feel this answer should be reported.

Please briefly explain why you feel this user should be reported.

Sign InSign Up

electricalstudent.com

electricalstudent.com

electricalstudent.com Navigation

  • Contact Us
Search
Ask A Question

Mobile menu

Close
Ask a Question
  • Add group
  • Communities
  • Questions
  • Polls
  • Buy Theme
  • New Questions
  • Trending Questions
  • Must read Questions
  • Hot Questions
  • Contact Us
Home/microelectronics by sedra and smith 8th edition chapter 15

electricalstudent.com Latest Questions

venkyelectrical
venkyelectrical
Asked: March 19, 2022In: microelectronics

16.6A CMOS inverter utilizes VDD = 5 V, Vtn = |Vtp| = 1 V, and μnCox = 2μpCox = 50 µA/V2. Find (W/L)n and (W/L)p so that VM = 2.5 V and so that for vI = VDD, the inverter can sink a current of 0.2 mA with the output voltage not exceeding 0.2 V. (W/L)n Image 5; (W/L)p Image 10

16.6A CMOS inverter utilizes VDD = 5 V, Vtn = |Vtp| = 1 V, and μnCox = 2μpCox = 50 µA/V2. Find (W/L)n and (W/L)p so that VM = 2.5 V and so that for vI = VDD, the inverter ...

microelectronics by sedra and smith 8th edition chapter 15
  • 0
  • 1
  • 2
venkyelectrical
venkyelectrical
Asked: March 19, 2022In: microelectronics

15.46 Design the circuit in Fig. 15.24(a) to obtain symmetrical triangular and square waveforms of 10-kHz frequency. Use the circuit in Fig. 15.22(a) to implement the bistable. Assume that the op amps saturate at ±5 V. The triangular waveform is required to have 2-V peak-to-peak amplitude. Use C = 1 nF and specify the values of the resistors.

15.46 Design the circuit in Fig. 15.24(a) to obtain symmetrical triangular and square waveforms of 10-kHz frequency. Use the circuit in Fig. 15.22(a) to implement the bistable. Assume that the op amps saturate at ±5 V. The triangular waveform is ...

microelectronics by sedra and smith 8th edition chapter 15
  • 0
  • 1
  • 3
venkyelectrical
venkyelectrical
Asked: March 19, 2022In: microelectronics

15.45 Design the circuit in Fig. 15.23(b) to obtain a square waveform of 10-kHz frequency. Use C = 1 nF and R1 = R2. Specify the values of the three resistors.

15.45 Design the circuit in Fig. 15.23(b) to obtain a square waveform of 10-kHz frequency. Use C = 1 nF and R1 = R2. Specify the values of the three resistors.

microelectronics by sedra and smith 8th edition chapter 15
  • 0
  • 1
  • 2
venkyelectrical
venkyelectrical
Asked: March 19, 2022In: microelectronics

15.44 Find the frequency of oscillation of the circuit in Fig. 15.23(b) for the case R1 = 10 kΩ, R2 = 15 kΩ, C = 1 nF, and R = 62 kΩ. 9.518 kHz

15.44 Find the frequency of oscillation of the circuit in Fig. 15.23(b) for the case R1 = 10 kΩ, R2 = 15 kΩ, C = 1 nF, and R = 62 kΩ. 9.518 kHz

microelectronics by sedra and smith 8th edition chapter 15
  • 0
  • 1
  • 2
venkyelectrical
venkyelectrical
Asked: March 19, 2022In: microelectronics

15.43 Consider a bistable circuit having a noninverting transfer characteristic with L+ = −L− = 5 V, VTL = −1 V, and VTH = +1 V. (a)For a 0.5-V-amplitude sine-wave input having zero average, what is the output? (b)Describe the output if a sinusoid of frequency f and amplitude of 1.1 V is applied at the input. By how much can the average of this sinusoidal input shift before the output becomes a constant value? (a) either +5 V or −5 V; (b) symmetric square wave of frequency f, lagging the sine wave by 65.4°, having ±5 V swing; 0.1 V

15.43 Consider a bistable circuit having a noninverting transfer characteristic with L+ = −L− = 5 V, VTL = −1 V, and VTH = +1 V. (a)For a 0.5-V-amplitude sine-wave input having zero average, what is the output? (b)Describe the output if ...

microelectronics by sedra and smith 8th edition chapter 15
  • 0
  • 1
  • 2
venkyelectrical
venkyelectrical
Asked: March 19, 2022In: microelectronics

15.42 Consider the circuit of Fig. P15.41 with R1 eliminated and R2 short-circuited. Sketch and label the transfer characteristic vO−vI. Assume that the diodes have a constant 0.7-V drop when conducting and that the op amp saturates at ±5V.

15.42 Consider the circuit of Fig. P15.41 with R1 eliminated and R2 short-circuited. Sketch and label the transfer characteristic vO−vI. Assume that the diodes have a constant 0.7-V drop when conducting and that the op amp saturates at ±5V.

microelectronics by sedra and smith 8th edition chapter 15
  • 0
  • 1
  • 2
venkyelectrical
venkyelectrical
Asked: March 19, 2022In: microelectronics

15.41 For the circuit in Fig. P15.41, sketch and label the transfer characteristic vO−vI. The diodes are assumed to have a constant 0.7-V drop when conducting, and the op amp saturates at ±5 V. What is the maximum diode current?

15.41 For the circuit in Fig. P15.41, sketch and label the transfer characteristic vO−vI. The diodes are assumed to have a constant 0.7-V drop when conducting, and the op amp saturates at ±5 V. What is the maximum diode current?

microelectronics by sedra and smith 8th edition chapter 15
  • 0
  • 1
  • 2
venkyelectrical
venkyelectrical
Asked: March 19, 2022In: microelectronics

15.40 Consider the bistable circuit of Fig. 15.22(a) with the op amp’s negative-input terminal disconnected from ground and connected to a reference voltage VR. (a)Derive expressions for the threshold voltages VTL and VTH in terms of the op amp’s saturation levels L+ and L−, R1, R2, and VR. (b)Let L+ = −L− = V and R1 = 10 kΩ. Find R2 and VR that result in threshold voltages of 0 and V/10.

15.40 Consider the bistable circuit of Fig. 15.22(a) with the op amp’s negative-input terminal disconnected from ground and connected to a reference voltage VR. (a)Derive expressions for the threshold voltages VTL and VTH in terms of the op amp’s saturation levels ...

microelectronics by sedra and smith 8th edition chapter 15
  • 0
  • 1
  • 2
venkyelectrical
venkyelectrical
Asked: March 19, 2022In: microelectronics

15.39 For the circuit in Fig. 15.22(a), let L+ = −L− = 5 V and R1 = 10 kΩ. Find R2 that results in threshold voltages of +1 V and −1 V.

15.39 For the circuit in Fig. 15.22(a), let L+ = −L− = 5 V and R1 = 10 kΩ. Find R2 that results in threshold voltages of +1 V and −1 V.

microelectronics by sedra and smith 8th edition chapter 15
  • 0
  • 1
  • 2
venkyelectrical
venkyelectrical
Asked: March 19, 2022In: microelectronics

15.38 Consider the bistable circuit of Fig. 15.21(a) with the op amp’s positive input terminal connected to a positive-voltage source V through a resistor R3. (a)Derive expressions for the threshold voltages VTL and VTH in terms of the op amp’s saturation levels L+ and L−, R1, R2, R3, and V. (b)Let L+ = −L− = 5 V, V = 5 V, and R1 = 10 kΩ. Find the values of R2 and R3 that result in VTL = +1.9 V and VTH = +2.1 V.

15.38 Consider the bistable circuit of Fig. 15.21(a) with the op amp’s positive input terminal connected to a positive-voltage source V through a resistor R3. (a)Derive expressions for the threshold voltages VTL and VTH in terms of the op amp’s saturation ...

microelectronics by sedra and smith 8th edition chapter 15
  • 0
  • 1
  • 2
1 2 … 7

Sidebar

Ask A Question

Stats

  • Questions 2k
  • Answers 1k
  • Best Answers 52
  • Users 35
  • Popular
  • Answers
  • venkyelectrical

    10. a. Xis a Gaussian random variable with EMI = ...

    • 1 Answer
  • venkyelectrical

    1.1 For the signal-source representations shown in Figs. 1.1(a) and ...

    • 1 Answer
  • venkyelectrical

    1.2 A signal source has an open-circuit voltage of 10 ...

    • 1 Answer
  • venkyelectrical
    venkyelectrical added an answer May 24, 2022 at 3:55 pm
  • venkyelectrical
    venkyelectrical added an answer May 24, 2022 at 3:53 pm
  • venkyelectrical
    venkyelectrical added an answer May 24, 2022 at 3:52 pm

Top Members

hwmadeeasy

hwmadeeasy

  • 1 Question
  • 51 Points
mycala

mycala

  • 0 Questions
  • 20 Points
https://lokt.page.link/Gidr <- PRACTICE BLACKJACK

https://lokt.page.link/Gidr <- PRACTICE BLACKJACK

  • 0 Questions
  • 20 Points

Trending Tags

. bjt pnp block diagram redction technique question block diagram reduction block diagram reduction methods block diagram reductions rules and determine the transfer function co-plot using matlab compensator designing using frequency response method compensator design using frequency response compensator design using root locus control systems control systems engineering control systems enginnering convolution digital signals discrete sequence ece355l ece 401: communication systems electrical & computer engineering electrical and computer engineering electrical computers electrical cumputers find the equivalent transfer function of the following system find the ovorall system transfer function for the system below find the transfer function y/r lag lead compensator design lawrence tech linear equations solving matlab matlab basics matlab equations solve matlab plot matrix operations on matlab microelectronic by sedra and smith 8th edition chapter 9 microelectronics by sedra ad smith 8th edition chapter 9 microelectronics by sedra and smit 8th edition chapter 9 microelectronics by sedra and smith 8t edition chapter 9 microelectronics by sedra and smith 8th edition chapter 1 microelectronics by sedra and smith 8th edition chapter 2 microelectronics by sedra and smith 8th edition chapter 3 microelectronics by sedra and smith 8th edition chapter 4 microelectronics by sedra and smith 8th edition chapter4 microelectronics by sedra and smith 8th edition chapter 5 microelectronics by sedra and smith 8th edition chapter 6 microelectronics by sedra and smith 8th edition chapter 7 microelectronics by sedra and smith 8th edition chapter 8 microelectronics by sedra and smith 8th edition chapter 9 microelectronics by sedra and smith 8th edition chapter 10 microelectronics by sedra and smith 8th edition chapter 11 microelectronics by sedra and smith 8th edition chapter 12 microelectronics by sedra and smith 8th edition chapter 13 microelectronics by sedra and smith 8th edition chapter 14 microelectronics by sedra and smith 8th edition chapter 15 microelectronics by sedra and smith 8th edition chapter 16 microelectronics by sedra and smith 8th edition chapter 17 microelectronics by sedra and smith 8th edition chapter 18 microelectronics by sedra and smith 8tth edition chapter 2 microelectronics by sedra ans smith 8th edition chapter 2 microelectronics by sedra nd smith 8th edition chapter 9 microelectronics y sedra and smith 8th edition chapter 9 minor loop rate feedback compensation noise figure sampling frequency signal energy signals and system ece 355l spring 2022 lab 7 signal scaling signal shifting topic: block diagram reduction topic: block diagram reduction technique topic: block reduction techniques translational system transfer function using block diagram reduction determine the transfer function for the below system using block diagram reduction technique find the equivalent transfer function of the following system using block diagram reduction to obtain the transfer function of the following feedback system using mason's rule reducing the block diagram to find the transfer function

Explore

  • Add group
  • Communities
  • Questions
  • Polls
  • Buy Theme
  • New Questions
  • Trending Questions
  • Must read Questions
  • Hot Questions
 

Loading Comments...