Copper loss is the term often given to heat produced by electrical currents in the conductors of transformer windings, or other electrical devices
Thermal decomposition and loss of water are chemical changes.
Copper is a highly efficient material for transmitting electricity due to its low resistance, which allows for minimal energy loss during transmission.
Copper is an ideal material for connection wires due to its excellent electrical conductivity, corrosion resistance, and ability to easily be formed into wires. These properties make copper wires efficient in transmitting electricity with minimal energy loss and ensuring a reliable connection in various applications.
Copper is used in plugs because it is an excellent conductor of electricity, meaning it allows electricity to flow easily through the plug without significant resistance. This helps to ensure efficient transfer of electrical current without causing overheating or power loss. Additionally, copper is a durable and malleable metal, making it ideal for creating the intricate shapes of plugs.
The color change of copper sulfate crystals on heating is due to the loss of water molecules from the crystal lattice. The blue color of hydrated copper sulfate is due to the presence of water molecules within the crystal structure. When heated, these water molecules are driven off, leading to a white color (anhydrous copper sulfate) as the crystal becomes dehydrated.
Copper loss electrons.
Copper Loss at 75 C = Copper Loss at Ambient Temperature C * (310/(235+Ambient Temperature C))
Iron loss it includes the core loss is partically the same at all loads and copper loss the value of cu loss is found from short circuit test
stray loss copper loss
Iron Loss Copper Loss Frictional loss
Cu loss means I^2*R loss so it depends on R and I.If we make wire more resistive it means it will increase the value of R so copper loss will be increase.So to concentrate on wire size we can vary the R value and can protect the copper loss.So it is called variable loss.
Copper loss varies with the load.
Copper loss electrons.
Yes.
100 is to 800 as 75 is to X. Cross multiply, 100 x X and 800 x 75, 100X = 60000. To get rid of the 100 divide it into both sides of the equation. X = 600. If the copper loss is linear, at 75 percent the copper loss will be 600 watts.
Maximum efficiency of a power transformer occurs when copper loss equals to iron losses. Decrease in current does not result in increase in efficiency unless the copper loss was more than iron loss and the decreased current made the copper loss is reduced and became equal to iron loss at some point.
Copper loss means the loss due to the resistance of conductor of any device. Core loss means the loss due to eddy current and hysterisis of flux. So the total loss of a transformer menas copper loss+core loss. Therefore just knowing the core loss the copper loss can not be deduced. These are being two different and not interrelated losses the value of one of them will not make way to find the other. I hope the answer is clear enough otherwise please write again