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∙ 15y agoEither the question is misworded, or more information is needed. Compression implies load; in order for a peice of metal to be loaded by a temperature change, it would need to be rigidly restrained by something with a different coefficient of thermal expansion. If you mean what is the dimensional change, that is answerable. It is as follows: (original size) X (coefficient of thermal expansion) X (temperature difference) = (change in length) You need to look up the coefficient of thermal expansion, and make sure you get the units right: /°C or /°F
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∙ 15y agoCarbon Steel is used upto 427 oC or upto 1100 oF.
NO. In a semiconductor the resistance decreases with increase of temperature. It is their natural behavior unlike conductors and insulators. If we decrease the temperature their resistance increases. At 0 degree kelvin all semiconductors will act like perfect insulators.
CLS INPUT "Enter degrees in Celsius:";c INPUT "Enter degrees in Fahrenheit:";f a=(c*1.8)+32 b=5/9(f-32) PRINT c;"degree Celsius=" a;"degree Fahrenheit" PRINT f;"degree Fahrenheit=" b;"degree Celsius" end
It takes approximately 4.184 Joules of heat to raise the temperature of 1 gram of water 1 degree C. 1 Joule is the energy of 1 Watt for 1 second (or 3,600,000 Joules equals 1 Kilowatt-hour). In more real world numbers: It takes 69.7 watts 1 minute to heat a liter of water 1 degree C; or 146.6 watts in 1 minute to heat a gallon of water 1 degree F. A watt is a watt, weather it comes from resistance, radiant or induction. The only variations will come from the efficientcy of the heat source's design and how it is being used.
The degrees (temperature) from the saturated liquid line. One example would be after refrigerant goes through a condenser. T_subcooling = T_sat - T_condenser
LIQUID COOLER THAN THE CONDENSING SATURATION TEMPERATURE (125 degree Fahrenheit ) IS CALLED SUBCOOLED LIQUID
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To calculate the time taken to raise the temperature by 10 degrees, you would need to know the rate at which the temperature is increasing. This can be determined by dividing the change in temperature (10 degrees) by the rate of temperature increase. The result will give you the time it takes to raise the temperature by 10 degrees.
The specific heat capacity of lead is 0.03 cal/g°C. Using the formula Q = mcΔT, where Q is the heat lost, m is the mass, c is the specific heat capacity, and ΔT is the temperature change, we can calculate the initial temperature to be 125.5°C.
Time-temperature transformation (TTT) diagramsmeasure the rate of transformation at a constant temperature. In other words a sample is austenitised and then cooled rapidly to a lower temperature and held at that temperature whilst the rate of transformation is measured.Continuous cooling transformation (CCT) diagramsmeasure the extent of transformation as a function of time for a continuously decreasing temperature. In other words a sample is austenitised and then cooled at a predetermined rate and the degree of transformation is measured,
That's going to depend on the humidity level and size of the area being cooled.
The ambient temperature felt cooler than the 92 degree reading in the swimming pool that night, possibly because the evaporating water cooled my skin.
All metals expand when heated and contract when cooled. It is important, therefore, that the standard metre is kept at some constant temperature. That constant temperature could be any temperature but the triple point of water is a convenient benchmark.
Heating degree day:For each regular temperature measurement in a day write down 0 iftemperature is above heating-balance-temperature. Otherwise write down the difference between balance-temperature and air-temperature. Degree days is the average of all the numbers written down.Cooling degree day:For each regular temperature measurement in a day write down 0 iftemperature is below cooling-balance-temperature. Otherwise write down the difference between balance-temperature and air-temperature. Degree days is the average of all the numbers written down.
The maximum temperature on the sun's surface, known as the photosphere, is around 5,500 degrees Celsius (9,932 degrees Fahrenheit). In the sun's core, where nuclear fusion occurs, the temperature can reach up to 15 million degrees Celsius (27 million degrees Fahrenheit).
The temperature was up by about one degree. The temperature rose about one degree. The temperature dropped about one degree.
A degree is a unit of temperature.