Butterworth active high pass filter 4th order

Question

Question

Design active butterworth high pass filter of 4th order (n=4) if Fc=7.2 khz, A( min )=14dB, all capacitors equal to 0.22uF..

Find all R values

Av(gain)

Q

Electrical-Engineering

Answer 1

Similar Homework Help Questions

Design a second-order Butterworth low-pass filter to satisfy the specifications a. The dc gain is...

Design a second-order Butterworth low-pass filter to satisfy the specifications a. The dc gain is unity (zero dB); b. The gain is no smaller than -1 dB for frequencies between 0 and 2,000 Hz; and c. The gain is no larger than -40 dB for frequencies larger than 40 kHz. Determine a circuit realization as a series RLC low-pass filter. Pick reasonable values of R, L, and C. Design a second-order Butterworth low-pass filter to satisfy the specifications a. The...
Active Low-pass and High-pass Filters for Crossover Circuitry (PSPICE) Design a first order active high-pass filter...

Active Low-pass and High-pass Filters for Crossover Circuitry (PSPICE) Design a first order active high-pass filter with cut-off frequency of 1 kHz & gain 20dB. Design a first order active low-pass filter with cut-off frequency of 1 kHz & gain 20dB. Plot the magnitude and phase responses of the active high-pass and low-pass filters you have designed using PSpice (Use UA741 Op amp and ±12V dual supply). Connect your active low-pass and high-pass filters as shown in Fig. 1-b. Assume...
Find the Butterworth polynomial of a 6th order filter.

.1. Find the Butterworth polynomial of a 6th order filter. 2. Consider a low-pass Butterworth active filter that has a passband gain of 20 and a cutoff frequency of 3 kHz. Compute the minimum order of the filter required such that GdB @30k ≤-40

Filter1 is: 2nd Order - High-Pass filter - Butterworth filter a.) Design Filter1 with a corner/center...

Filter1 is: 2nd Order - High-Pass filter - Butterworth filter a.) Design Filter1 with a corner/center frequency of about Freq: 1.2 kHz and a load resistance of about RL: 50 ohms. b.) Draw the circuit diagram.
Design a second-order Butterworth low-pass filter with a DC gain of 0 dB and a -3...

Design a second-order Butterworth low-pass filter with a DC gain of 0 dB and a -3 dB frequency of 5.24 kHz. (include circuit design w/ component values)
Design a first order high-pass Butterworth filter that achieves the following specifications: Cutoff frequency = 770...

Design a first order high-pass Butterworth filter that achieves the following specifications: Cutoff frequency = 770 Hz Stop-band corner frequency = 132 Hz dB slope = 20dB / decade Gain at 132 Hz ≈ -14.9 dB Show working for all determined values of R and C

7. Smooth as Butter! (10 Points) The frequency response magnitude of a normalised Butterworth filter of order n is give...

7. Smooth as Butter! (10 Points) The frequency response magnitude of a normalised Butterworth filter of order n is given by: 1 V A. Please determine the transfer function of a 2nd-order, high-pass Butterworth filter with cut-in frequency equal to 6 kHz B. At what frequency is the gain of this filter -3 dB? -30dB? 7. Smooth as Butter! (10 Points) The frequency response magnitude of a normalised Butterworth filter of order n is given by: 1 V A. Please...
13.6 Design a first-order active high-pass filter with a response of +12 dB in the high-frequency...

13.6 Design a first-order active high-pass filter with a response of +12 dB in the high-frequency limit and -20 dB at 1.2 kHz. Let C 1 nF 13.6 Design a first-order active high-pass filter with a response of +12 dB in the high-frequency limit and -20 dB at 1.2 kHz. Let C 1 nF
13.12 Design an active Butterworth low-pass filter with +16 dB in the dc limit, -40 dB...

13.12 Design an active Butterworth low-pass filter with +16 dB in the dc limit, -40 dB at 20 kHz, and fo4 kHz.

Design an active band-pass filter such that the center frequency is Fo-2.5 kHz, bandwidth is BW...

Design an active band-pass filter such that the center frequency is Fo-2.5 kHz, bandwidth is BW 400 Hz and gain is K-3 for Figure 10.5. Find the values for the capacitors, and resistors. Compute the theoretical values of Vout and |Av Vout / V l and record the results in Table 10.5-A. VEE -15V C1 R3 C2 R1 R2 Vout +VCC +15V Figure 10.5