The speed of sound in gases can be calculated using the formula v = √(γRT/M), where v is the speed of sound, γ is the adiabatic constant, R is the gas constant, T is the temperature, and M is the molar mass of the gas.
Theoretical treatment involves using mathematical equations and principles to calculate the speed of sound, while experimental methods involve conducting physical experiments to measure the speed of sound in gases.
Theoretical treatment is generally very accurate, as long as the assumptions made in the calculations are valid and the input values are precise. However, experimental methods may provide more accurate results due to the various factors that can affect the speed of sound in gases.
Yes, the theoretical treatment can be used for all types of gases as long as the adiabatic constant and gas constant are known, and the input values are accurate. However, the accuracy of the results may vary depending on the specific properties of the gas being studied.
Theoretically, as temperature increases, the speed of sound in gases also increases. This is because the molecules in the gas have more kinetic energy, leading to faster movement and collisions, which in turn increases the speed of sound. However, other factors such as gas density and composition can also affect the speed of sound at different temperatures.