
Question 10 Assume the Phase angle of the source is zero. Load Lload 3 160 mH...
clear handwrite and step by step solution please
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Q2. For the single-phase voltage controller of Fig. 2, the source is 120 Vrms at 60 Hz, andthe load is a series Rしcombination with R-20 Ω and L-50 mH. The delay angle α is 90°. Determine (a) an expression for load current for the first half-period, b) the rms loadcurrent, (c) the rms SCR current, (d) the average SCR current, (e) the power delivered tothe load, and (f)...
A 240 volts 50 Hz single phase ac source supplies a series load consisting of a resistor (40 ohms), a reactor (127.324 mH) and a capacitor (318.3 μF). Calculate the current and real power delivered by the source. Calculate the voltage developed across each the three load circuit components.
Exercise 16 Three-Phase Circuit Calculators Computing true power, or watts, in a 3 system Given: 1212,3% wye connected load, 208v line Ephase = Eine/ 1.732 Ephese = 208v/1.732 = 120V Iphase = 120v/1212 Iphase = 10A Method 1 In a balanced 3 system total power use is 3 x power used by a single phase. Therefore, by using phase values, power is found P: 3 x Ephase * Iphose x PF P= 3 120v x 10A x 1 P =...
Please answer ALL PARTS of this question.
1) Calculate the three line
currents . Enter its magnitude in A
2) Calculate the three line currents . Enter its phase angle in degrees
3) Calculate the phase voltage at terminal of the load. Enter its
magnitude in V
4) Calculate the phase voltage at terminal of the load. Enter its phase
angle in degrees
5) Calculate the line voltage at the load. Enter its magnitude in V
6) Calculate the line...
A load having impedance Z is fed by a 2-kV, 60-Hz, 3-phase
source. The load receives a current of 10 A which lags the voltage
by 45˚.
a) Draw the power triangle for this circuit with proper
labels.
b) Determine the Reactive Power and the Working Power. Provide
proper units.
Please show all work and be as neat as possible. Thank you.
CurrentI 2-KV 60 Hz Z Load
Questions 1 to 3 relate to a three-phase SCR rectifier supplied from a 415 Vrms, 50 Hz ac source. For a 100 Ω resistive load, determine the peak, minimum and average load current for SCR firing angles of: (a) a-0° (5.87 A, 5.08 A, 5.6 A) (b) α = 45° (5.67 A, 1.52 A, 3.96 A) (c) α-70° (4.5 A, 0 A, 2.0 A) How will your answers change if a very large inductance (zero resistance) is added in series...
1. A 3-phase load consumes 90 kW of power at a leading PF of 0.6. Assume a standard frequency of 60 Hz and the load voltage (in each phase) to be 120-Vrms- a. (6) Calculate the 3-phase complex power. b. (4) Draw the 3-phase power triangle and label all sides numerically. c. (5) Calculate the rms load current magnitude for current in each phase.
A controlled full bridge recetifier
Ti Ty Ts T: Figure P5 A controlled full-wave bridge converter has a source of 120 Vrms at 60 Hz, R-25 Ω, L- 10 mH. Assuming that the load constant voltage source E = OV and the gate pulse firing angle is α-45°, determine whether the converter operates in the continuous (CCM) or discontinuous (DCM) conduction mode;
Ti Ty Ts T: Figure P5 A controlled full-wave bridge converter has a source of 120 Vrms at...
(20pts) Assume a three-phase load of(120+j40) MVA is supplied at rated voltage of69 kV generation source through the below network. The three-phase 138/69 kV transformer has a se impedance of (5.06+ 23.7a equivalent on the high voltage side. The distribution feeder that connects the load has a series impedance ofJ4 Ω. Using perunítanalysis with SB키00MVA, 2. determine: (a) The voltage (kV) and the current (A) at the generation source terminal (b) The total complex power provided by the generation source....
In a balanced three-phase system, the source is wye-connected and the source voltage of phase A is Van = ∠ 120 20 V. The load consists of two balanced wyes in parallel with phase impedances of 8 + j6 Ω and 12 + j8 Ω. If the line impedance is zero, find the line currents and the phase currents in each load. (Hint: use per phase analysis, then do angle shift for each phase.)