thể transformer-coupled filter bridge circuit show, answer the following questions: ملاحظة: يمكن الحصول على قيمة المقاومة )R( من الجدول المرفق في الصفحة الأولى حسب رقم التعجيل RA=600 120 V m Output 60 Hz RA O If the secondary voltage is 30 Vrms, Vrpp = 0.4 V, determine the value of the capacitor C. ) Calculate the de output voltage VDc and the ripple factor r. O Determine PIV. Which of the following PIV rating values is considered to be a suitable one to be used fi e diodes in this circuit: 40 V or 60 V. Explain your answer. Draw the output waveform indicating clearly: the ripple voltage, the de output voltage, and the peak ectifled voltage. What is the effect of increasing the load resistance of a capacitor-filtered full-wave rectifier on the r oltage? Also, compare the ripple factor of half-wave to the ripple factor of full wave rectifier? lllee

thể transformer-coupled filter bridge circuit show, answer the following questions: ملاحظة: يمكن الحصول على قيمة المقاومة )R( من الجدول المرفق في الصفحة الأولى حسب رقم التعجيل RA=600 120 V m Output 60 Hz RA O If the secondary voltage is 30 Vrms, Vrpp = 0.4 V, determine the value of the capacitor C. ) Calculate the de output voltage VDc and the ripple factor r. O Determine PIV. Which of the following PIV rating values is considered to be a suitable one to be used fi e diodes in this circuit: 40 V or 60 V. Explain your answer. Draw the output waveform indicating clearly: the ripple voltage, the de output voltage, and the peak ectifled voltage. What is the effect of increasing the load resistance of a capacitor-filtered full-wave rectifier on the r oltage? Also, compare the ripple factor of half-wave to the ripple factor of full wave rectifier? lllee

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...

See similar textbooks

Similar questions

. At a 12.47 kV (line to line) distribution system the communication interference (CI) was observed due to 5% of 5th harmonic currents generated by a 3000 kVA arc furnace. In order to avoid CI it is required to convert an existing 600 kVAr capacitor to 5th harmonic filter considering the total kVAr should not exceed 135%. Calculate the following: (i) Capacitor reactance (ii) Reactance of the series reactor (iii) Fundamental frequency current (iv) 5th harmonic frequency current (v) Tuned frequency voltage (vi) Total rms current (vii) Fundamental frequency voltage (viii) Voltage (rms) across the capacitor bank (ix) Check whether the filter kVAr rating is within limit? (x) Comment how the existing capacitor bank is converted to filter
We want to build an impedance matching transformer that matches the output impedance of an amplifier connected to the primary, with a number of turns Np, whose impedance is 600 Ω, with an 8Ω speaker connected to the secondary, with a number of turns Ns. The Np/Ns transformation ratio of the matcher is: answer:8,66
If the turn on and turn off energy losses in a transmitter are 51 mJ and 76.8 mJ respectively and the mean power loss is limited to 200 W, what is the maximum switching rate that can be achieved ? A)15649 cycles/sec B)156.49 cycles/sec C)1564.9 cycles/sec D)15.649 cycles/sec
Given that the SAIFI of a distribution system is 0.33 and the SAIDI is 35.7 (in minutes), compute for the CAIDI.
You are given a transmission line with a characteristic impedance Zo of 40 + j60 ohms. The line is connected to a generator with a voltage of Vg = 20∠30° V and an internal impedance Zg of 0 ohms. The line is matched to the load with an impedance ZL of 40 + j60 ohms. You are asked to calculate the input voltage Vin and the input current Iin in the transmission line.
A 6.9 kV/600 V, multi-tap, single-phase distribution transformer is connected to the far end of a distribution line for which the rear end voltage is maintained at 6.9 kV. The equivalent impedance of the transformer referred to low voltage side is 0.05 + j0.25 Ω per phase. The impedance of each line is 1 + j2 Ω. It is required to maintain a terminal voltage of 600 V when the line current of 300 A at 80% pf lagging is delivered to the load. What approximate percentage tapping is required in the primary side? Neglect the changes in impedance due to changes in turns ratio. A. 94 % B. 92 % C. 90 % D. 88 %
A 6.9 kV/600 V, multi-tap, single-phase distribution transformer is connected to the far end of a distribution line for which the rear end voltage is maintained at 6.9 kV. The equivalent impedance of the transformer referred to low voltage side is 0.05 + j0.25 Ω per phase. The impedance of each line is 1 + j2 Ω. It is required to maintain a terminal voltage of 600 V when the line current of 300 A at 80% pf lagging is delivered to the load. What approximate percentage tapping is required in the primary side? Neglect the changes in impedance due to changes in turns ratio.
An industrial plant is powered with a delta delta system, along with a transformer bank made up of single-phase transformers of 20KVA, 2300/230 V each. The bank supplies a 40 KVA load with a power factor of 0.7 (-). If a damaged transformer is removed for repair, calculate:a) The load in KVA that each transformer has.b) The nominal load of the transformer bank W.
2.2 The parameters of a PV module are Voc=25V, Imp=10.5, Isc=15.5A, Vmp=18.8V. The array is configured to have 4 parallel strings of 6 series modules each. Note:correct to 2 decimal places 1.Determine the maximum output power (kW) 2.Determine the output array current (A) 3.Determine the output voltage (V).
dbis 35 For the network of the Figure shown below:(a)Determine re. (b) Find Zi and Av. (c) Calculate Ai
RA = 17.32 ohms, LA = 0.0318 H, ZB = 5ohms, XB = j4 ohms in series connected A and B coils. When a voltage of U = 240 V, 50 Hz is applied to this circuit; a) How many Amps will the Circuit Current be? b) Active and reactive powers of A and B coils Calculate.
2.2 The parameters of a PV module are Voc=25V, Imp=10.5, Isc=15.5A, Vmp=18.8V.The array is configured to have 4 parallel strings of 6 series modules each.1.Determine the maximum output power (kW) 2.Determine the output array current (A) 3.Determine the output voltage (V).