The temperature gradient in a rod of `0.5 m` length is `80^(@)C//m`. It the temperature of hotter end of the rod is `30^(@)C`, then the temperature of the cooler end is

The temperature gradient in a rod of 0.5 m long is 80^(@)C//m . If the temperature of hotter end of the rod is 30^(@)C , then the temperature of the colder end is

The temperature gradient in a rod of 0.5 m long is 80° C/m. IF the temperature of hotter end of the rod is 30°C, then the temperature of the cooler end is

The temperature gradient in a rod of 1m long is '100^@' C/m if the temperature of hotter end is '30^@' C, then the temperature of colder end is

The temperature gradient in a rod 0.5 m long is 40^@C per metre. The temperature of the hotter end is 30^@C . What is the temperature of its colder end?

The temperature gradient of a rod of length 1 m is 60^@C//m . If the temperature of the hot end is 30^@C the temperature at the other end is

Value of temperature gradient is 80^(@) C/m on a rod of 0.5 m length. Temperature of hot end is 30^(@)C , then what is the temperature of cold end ?

The ends of a thin bar are maintained at different temperatures. The temperature of the cooler end is 11^(@)C , while the temperature at a point 0.13m from the cooler end is 23^(@)C and the temperature of the warmer end is 48^(@)C . Assuming that heat flows only along the length of the bar ( the sides are insulated), find the length of the bar.

Two rods of same dimensions, but made of different materials are joined end to end to end with their free end being maintained at 100^(@)C and 0^(@)C respectively. The temperature of the junction is 70^(@)C . Then the temperature of the junction if the rods are inerchanged will be equal to T^(@)C Find T :