Power to be transmiteed is calculated by using following formula
P= (E1*E2/ X)*sin(delta)
X= Line reactance = XL-Xc
XL= Inductive Reactance
Xc=Capacitive Reactance
P= Power to be transmitted.
Thus ,
Increament in delta increase P
Decreament in X increases P
For this we use series, parallel, Combination of both compensation
FACTS Devices.
The secondary constants of a transmission line are the surge impedance, propagation constant, attenuation constant, and phase constant. These constants determine the behavior of signals traveling through the transmission line and are important for analyzing the performance of the line in terms of signal integrity and power transmission.
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The formula for calculating power loss in transmission lines is Ploss I2 R, where Ploss is the power loss, I is the current flowing through the transmission line, and R is the resistance of the transmission line.
Standing waves occur on an open transmission line when there is a mismatch between the line impedance and the load impedance. This causes some of the incident wave to reflect back along the line, interfering with the incident wave and creating areas of constructive and destructive interference known as nodes and antinodes. The presence of standing waves can lead to signal distortion and power losses in the transmission line.
The formula for calculating power loss in a transmission line is Ploss I2 R, where Ploss is the power loss in watts, I is the current flowing through the line in amperes, and R is the resistance of the line in ohms.
By increasing Vr,Reducing in series inductance,increase capacitance
Think of a river getting fed by streams and creeks. These feeders increase the water flowing in the river like electrical feeders increase the current in the transmission line.
Usage of such high voltages will increase the efficiency of the transmission lines and decreases the losses in the line. It also reduces the requirement of conductor size.
Yes. Because... If we connect an alternator to a transmission line of high capacitance the line voltage will increase and caused a line voltage difference, which does not satisfied the condition of parallel operation of same voltage rating. [By Akhtaruzzaman08]
Due to corona effect virtually conductor size is increase and therefor resistance in transmission line is decreases.so I2R losses will decreases...
Actually surge impedance is present in a transmission line due to the capacitance of transmission line. Now this capacitor attends the reactive power of the transmission line to energise its magnetic flux. now due to the flux the impedance will increase and the power is reactive too. due to the impedance loss is more.
you punch then in the face!
The major Problems in the distribution and transmission of power are: 1. Power Thefts - biggest problem 2. voltage Control 3. Line/ Cable Faults 4. Heavy/ Over Loading on the feeders
how to fix a transmission without taking it a part how to fix a transmission line
It is dangerous because with capacitive load line voltage will increase which cause the line voltage difference and it will not satisfy the parallel operation of the same voltage rating.
Only if it is a DC transmission line.
If this vehicle has a transmission cooler then it will have one line to the cooler then another for the return line to the transmission.