Temperature

To determine the time this will take, you need to know the rate at which heat is being added to the system. The specific heat capacity of a substance is the amount of energy required to raise the temperature of one gram of a substance one degree centigrade. For water at 25oC, the specific heat capacity is 4.184 J*g-1*oC-1. That is, if you have one gram of water, you must add 4.184 Joules of energy (heat) to raise the temperature one one degree centigrade.

The time it takes for the temperature increase to happen depends on how quickly you add the 4.184 J. Adding heat at a rate of 1 Joule/second (which is equivalent to 1 Watt), it is easy to see that it will take 4.814 seconds to raise the temperature of the gram of water one degree centigrade.

The first step to solving your problem, then, is to make your data units compatible with your known constants. We need to convert volume to mass. We do this by means of density. The density of liquid water at standard temperature and pressure is 1g/mL.

1L H2O *1000mL/1L *1g H2O/mL H2O= 1000g H2O

Then, to find the amount of energy required to change the temperature of the mass, we use the specific heat.

1000g H2O *4.184J/(g*K)= 4184 J/oC

Note the units on this last value. They give the amount of energy needed required per degree centigrade of change in the temperature. That is, it requires 4814J to change the temperature of 1000g H2O one degree centigrade. Given the time rate of heat transfer into the system, you can find the time required to make the change. If, for instance, your heat exchange rate is 5 Watts (J/s), you would have

4184 J/oC * 1 second/5 Joules = 836.8 s/oC

This value allows you to calculate the time required for any change in temperature simply by multiplying the number of degrees centigrade temperature change. For one degree, we find

836.8 s/oC *1oC = 836.8s

The freezing point of linolenic acid, a polyunsaturated fatty acid, is approximately -11 degrees Celsius (12 degrees Fahrenheit).

There is no common substance that boils at negative 196 degrees Celsius under standard atmospheric pressure. At such low temperatures, most substances are in a solid or a frozen state rather than a boiling liquid state.

You would likely want to wear light and breathable clothing to stay cool in 39 degrees Celsius. Opt for loose-fitting, light-colored clothes made of natural fabrics like cotton to help you stay comfortable in hot weather. Consider wearing a hat and sunglasses to protect yourself from the sun's rays.

77 degrees Fahrenheit = 25 degrees Celsius.
25 degrees Celsius.

Yes it does. Something boils when its vapor pressure equals the atmospheric pressure. The higher one goes the lower the pressure. If the pressure is lower then the water does not need as much vapor pressure in order to boil, and thus the temperature is lower.

The lowest possible temperature than can ever occur in the universe is the Absolute Zero.

It is 0 kelvin or -273 degrees celcius, and occurs when the internal energy of the body is zero. Scientists have not, at the moment, been able to achieve this temperature, but they have cooled atoms to a temperature close to the Absolute Zero by using lasers to stop their motions.

The principle involved in boiling point is that when a liquid is heated, the vapor pressure of the liquid equals the atmospheric pressure, causing the liquid to change into a gas. This is the temperature at which the vapor pressure of the liquid equals the atmospheric pressure.

1600

Simply find the DIFFERENCE between 75 and -51, then divide that number by 3.6.

75-(-51)

75+51

126

126/3.6=35

since its elevation gains by 1000 multiply by that number

Your finall answer will be 35,000FT

56 degrees Fahrenheit is approximately 13.3 degrees Celsius. This can be calculated by subtracting 32 from 56, then multiplying the result by 5/9 to convert from Fahrenheit to Celsius.

The hottest temperature ever recorded in Coober Pedy, Australia was 53.9°C (129°F) on 2 January 1960.

Start by taking the number in Celsius and multiply it by 9. Then divide that number by 5, and then add 32. This is how you convert Celsius to Fahrenheit or use the equation F = (9/5)C + 32
In this case, the answer is about 89.6 degrees Fahrenheit.

Are you sure a scale with the name "degree Peterson" was ever used? I can't find any reference to it.

59 degrees Fahrenheit is equivalent to 15 degrees Celsius. You can convert Fahrenheit to Celsius using the formula: (Fahrenheit - 32) x 5/9.

The rapid cooling of the can causes the water vapor inside to condense, creating a vacuum. The external atmospheric pressure then crushes the can due to the pressure difference between the inside and outside of the can. This demonstrates the powerful force exerted by atmospheric pressure on objects.

On average, the temperature drops about 1 degree Celsius for every 100 meters of elevation gain. This relationship is known as the environmental lapse rate. So, to lower the temperature by 1 degree Celsius, you would need to climb approximately 100 meters.

Nineteen degrees Celsius is a measure of temperature. It falls between the freezing point of water (0 degrees Celsius) and room temperature (around 20-25 degrees Celsius).

Boiling point of coconut oil is approximately 177°C, melting point is around 24°C. Viscosity of coconut oil is typically low when warmed, and higher when cooled. The surface tension of coconut oil is around 28.3 mN/m.

Yes, 7 Celsius is 6 degrees warmer than 1 Celsius.

43 degrees Celsius is equal to 109.4 degrees Fahrenheit.

The diatomic molecule with stronger intermolecular forces, such as hydrogen bonding or dipole-dipole interactions, will have a higher boiling point. The molecule with weaker intermolecular forces will have a lower boiling point. Therefore, the molecule with the higher boiling point is likely to have stronger intermolecular forces, while the molecule with the lower boiling point is likely to have weaker intermolecular forces.

250 degrees Fahrenheit is equal to 121.11 degrees Celsius.