AC is better than DC for power transmission and distribution because it can be easily converted to different voltages using Transformers, allowing for efficient long-distance transmission with minimal power loss. Additionally, AC can be easily generated and distributed in large power grids, making it more practical and cost-effective for widespread use.
AC current is considered better than DC current for electrical power distribution and transmission because it can be easily converted to different voltage levels using transformers, allowing for efficient long-distance transmission. Additionally, AC current is able to travel over long distances with minimal power loss, making it more practical for widespread distribution of electricity.
AC is better than DC for electrical power transmission because it can be easily converted to different voltages using transformers, allowing for efficient long-distance transmission with minimal power loss. Additionally, AC can be easily generated and distributed in power grids, making it more practical for widespread use.
AC is generally more efficient than DC for long-distance electrical power transmission because it can be easily converted to higher voltages, reducing energy losses during transmission.
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.
Some disadvantages of conventional power sources include their contribution to air pollution, reliance on finite resources like fossil fuels, and potential for environmental damage from activities like mining and drilling. Additionally, conventional power plants can be inefficient in terms of energy production and distribution.
Generation, transmission, and distribution.
AC current is considered better than DC current for electrical power distribution and transmission because it can be easily converted to different voltage levels using transformers, allowing for efficient long-distance transmission. Additionally, AC current is able to travel over long distances with minimal power loss, making it more practical for widespread distribution of electricity.
distribution of power
distribution of power.
AC is better than DC for electrical power transmission because it can be easily converted to different voltages using transformers, allowing for efficient long-distance transmission with minimal power loss. Additionally, AC can be easily generated and distributed in power grids, making it more practical for widespread use.
AC is generally more efficient than DC for long-distance electrical power transmission because it can be easily converted to higher voltages, reducing energy losses during transmission.
In terms of Sociology, the answer is gender stratification.
In terms of Sociology, the answer is gender stratification.
In terms of Sociology, the answer is gender stratification.
In terms of bulk electricity tranmission and distribution, not at the moment -but who knows what will be possible in the future? At the moment, various small appliances are being designed that can be wirelessly charged within the home and, no doubt, this feature will become more common. But extending this to bulk transmission of electrical energy is completely-different.
univocal terms equivocal terms analogous terms
Transmission and distribution voltages are normally expressed in terms of line voltages, so the answer is that the figure you quote is a line voltage. Incidentally, do you really mean 230 megavolts for a transmission voltage?? And the symbol of kilovolt is 'kV', not 'kv'.