The following figure shows the distribution of speeds for two samples of N 2 gas. One sample is at 300 K and the other is 1000 K. Which curve represents which temperature should be explained. Concept introduction: Theory which explains the macroscopic nature of gases and which can be utilized to explain and understand the gas laws is known as Kinetic Molecular Theory. Though, for one mole of ideal gas, it is not possible to determine the velocity for each of the molecule at every instant. Thus, the Maxwell-Boltzmann distribution is utilized to calculate the number of molecules, which are moving among the v and v + dv velocities. Presumptuous that the single-dimensional distributions are not dependent on each other, that the y and z directions velocity doesn't disturb the x velocity, for illustration, the Maxwell-Boltzmann distribution is given as follows: dN N = 4πv 2 ( m 2πkt ) 3 / 2 e − mv 2 2 kt Here, dN N is the fraction of molecules moving at velocity v to v + dv, m is the mass of the molecule,kb is the Boltzmann constantandT is the absolute temperature.
The following figure shows the distribution of speeds for two samples of N 2 gas. One sample is at 300 K and the other is 1000 K. Which curve represents which temperature should be explained. Concept introduction: Theory which explains the macroscopic nature of gases and which can be utilized to explain and understand the gas laws is known as Kinetic Molecular Theory. Though, for one mole of ideal gas, it is not possible to determine the velocity for each of the molecule at every instant. Thus, the Maxwell-Boltzmann distribution is utilized to calculate the number of molecules, which are moving among the v and v + dv velocities. Presumptuous that the single-dimensional distributions are not dependent on each other, that the y and z directions velocity doesn't disturb the x velocity, for illustration, the Maxwell-Boltzmann distribution is given as follows: dN N = 4πv 2 ( m 2πkt ) 3 / 2 e − mv 2 2 kt Here, dN N is the fraction of molecules moving at velocity v to v + dv, m is the mass of the molecule,kb is the Boltzmann constantandT is the absolute temperature.
Solution Summary: The author illustrates the Maxwell-Boltzmann distribution for two samples of N 2 gas.
Definition Definition Any of various laws that describe the ways in which volume, temperature, pressure, and other conditions correlate when matter is in a gaseous state. At a constant temperature, the pressure of a particular amount of gas is inversely proportional with its volume (Boyle's Law) In a closed system with constant pressure, the volume of an ideal gas is in direct relation with its temperature (Charles's Law) At a constant volume, the pressure of a gas is in direct relation to its temperature (Gay-Lussac's Law) If the volume of all gases are equal and under the a similar temperature and pressure, then they contain an equal number of molecules (Avogadro's Law) The state of a particular amount of gas can be determined by its pressure, volume and temperature (Ideal Gas law)
Chapter 5, Problem 5.81PAE
Interpretation Introduction
Interpretation:
The following figure shows the distribution of speeds for two samples of N2 gas. One sample is at 300 K and the other is 1000 K. Which curve represents which temperature should be explained.
Concept introduction:
Theory which explains the macroscopic nature of gases and which can be utilized to explain and understand the gas laws is known as Kinetic Molecular Theory. Though, for one mole of ideal gas, it is not possible to determine the velocity for each of the molecule at every instant. Thus, the Maxwell-Boltzmann distribution is utilized to calculate the number of molecules, which are moving among the v and v + dv velocities. Presumptuous that the single-dimensional distributions are not dependent on each other, that the y and z directions velocity doesn't disturb the x velocity, for illustration, the Maxwell-Boltzmann distribution is given as follows:
dNN = 4πv2(m2πkt)3/2e−mv22kt
Here, dNN is the fraction of molecules moving at velocity v to v + dv, m is the mass of the molecule,kb is the Boltzmann constantandT is the absolute temperature.
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