A temperature of \(100^{\circ}\text {F}\) (Fahrenheit scale) is equal to \(T~\text{K}\) (Kelvin scale). The value of \(T\) is:
1. \(310.9\)
2. \(37.8\)
3. \(100\)
4. \(122.4\)
The temperature of a body on Kelvin scale is found to be X K. When it is measured by a Fahrenheit thermometer, it is found to be X0F. Then X is
1. 301.25
2. 574.25
3. 313
4. 40
On a new scale of temperature (which is linear) and called the W scale, the freezing and boiling points of water are and respectively. What will be the temperature on the new scale, corresponding to a temperature of on the Celsius scale?
1.
2.
3.
4.
At what temperature do both the Centigrade and Fahrenheit thermometers show the same reading
1. –20
2. –40
3. 42
4. 0
The temperature of substance increases by 27°C this increases is equal to (in kelvin)
1. 300 K
2. 2.46 K
3. 27 K
4. 7 K
The temperature of a substance increases by . On the Kelvin scale, this increase is equal to
1. 300 K
2. 2.46 K
3. 27 K
4. 7 K
In a new temperature scale, freezing point of water is given a value and boiling point of water is . Reading of new temperature scale for a temperature equal to is
1.
2.
3.
4.
The temperature of a body on the Kelvin scale is found to be \(x^\circ~\text K.\) When it is measured by a Fahrenheit thermometer, it is found to be \(x^\circ~\text F,\) then the value of \(x\) is:
1. \(40\)
2. \(313\)
3. \(574.25\)
4. \(301.25\)
The fundamental interval, that is the number of division between LFP & UFP on the two scales X and Y are 50 and 150 respectively. The ice point on both the scales is . If the temperature on the X-scale is , then what is the temperature on the Y-scale ?
Recently, the phenomenon of super conductivity has been observed at 73 K. This temperature is nearly equal to
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2.
3.
4.
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