Matter Mass Density Formula - 8.36x10^-33T^4

Thread starter smitty8371
Start date Dec 13, 2011
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Density Formula Mass Matter

In summary, the formula for calculating matter mass density is 8.36x10^-33T^4, where T represents the temperature in Kelvin. Matter mass density is directly proportional to temperature, meaning that as temperature increases, so does the mass density. The exponent (-33) in the formula represents the magnitude of the value, indicating that the value is extremely small. This formula can be used to calculate the mass density of any type of matter, as long as the temperature is known. It is useful in scientific research as it helps in understanding the properties and behavior of matter at different temperatures and can also predict the behavior of matter in extreme conditions.

Dec 13, 2011

smitty8371

does anyone know the formula for matter mass density i know for photon density is row=8.36*10^-33 * T^4

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Dec 13, 2011

gash789

What sort of mass? Without context usual mass density is simply the mass you have over the volume it occupies.

FAQ: Matter Mass Density Formula - 8.36x10^-33T^4

What is the formula for calculating matter mass density?

The formula for calculating matter mass density is 8.36x10^-33T^4, where T represents the temperature in Kelvin.

How is matter mass density related to temperature?

Matter mass density is directly proportional to temperature. As temperature increases, so does the mass density.

What does the exponent (-33) in the formula represent?

The exponent (-33) represents the magnitude of the value. In this case, it indicates that the value is extremely small.

Can this formula be used for all types of matter?

Yes, this formula can be used to calculate the mass density of any type of matter, as long as the temperature is known.

How is this formula useful in scientific research?

This formula is useful in understanding the properties and behavior of matter at different temperatures. It can also help in predicting the behavior of matter in extreme conditions, such as in outer space or in particle accelerators.