Application of Maxwell Boltzmann velocity distribution to nanoscale systems

In summary, the conversation discusses the validity of the Maxwell-Boltzmann velocity distribution in nanoscale systems. It is concluded that while it is possible to obtain a Maxwell-Boltzmann distribution in systems with less than 1000 molecules, it is not expected in systems with less than 100 molecules. This is due to the system being below the thermodynamic limit and still being able to reach thermal equilibrium.
  • #1
jeetu
1
0
Dear All
I have a question about the validity of Maxwell Boltzmann velocity distribution in the case of nanoscale systems.

When you consider a nanoscale system such as flow of water molecules (less than 100 molecules) through a carbon nanotube or graphene sheet, is it possible to expect a maxwell distribution for the water molecules?

or in other words

When the actual size of the system is much lesser than the thermodynamic limit (less than 1000 molecules), is it possible to obtain a maxwell velocity distribution for the molecules?

Thanking you

Jeetu
 
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  • #2
jeetu said:
Dear All
I have a question about the validity of Maxwell Boltzmann velocity distribution in the case of nanoscale systems.

When you consider a nanoscale system such as flow of water molecules (less than 100 molecules) through a carbon nanotube or graphene sheet, is it possible to expect a maxwell distribution for the water molecules?

or in other words

When the actual size of the system is much lesser than the thermodynamic limit (less than 1000 molecules), is it possible to obtain a maxwell velocity distribution for the molecules?

Thanking you

Jeetu

Those are two different questions. Answers:
1) No, you would not expect a Maxwell-Boltzmann distribution.
2) Yes, it can obtain that distribution (translation: an ideal Maxwell-Boltzmann distribution can be approached by a system below the thermodynamic limit).
Reasons:
1) It's below the thermodynamic limit.
2) You can still have thermal equilibrium.
 

1. What is the Maxwell Boltzmann velocity distribution?

The Maxwell Boltzmann velocity distribution is a probability distribution that describes the distribution of particle velocities in a gas at a given temperature. It is based on the principles of statistical mechanics and is often used to analyze the behavior of particles in a gas or liquid.

2. How is the Maxwell Boltzmann velocity distribution applied to nanoscale systems?

The Maxwell Boltzmann velocity distribution can be applied to nanoscale systems by considering the velocities of individual particles within the system. This can be used to predict the behavior of these particles and understand how they interact with each other and with their environment.

3. What are the key assumptions made when applying the Maxwell Boltzmann velocity distribution to nanoscale systems?

The key assumptions made include that the particles are in thermal equilibrium, that they are non-interacting, and that the system is in a steady state. Additionally, the particles are assumed to be point masses with no internal structure.

4. How does the Maxwell Boltzmann velocity distribution affect the properties of nanoscale systems?

The Maxwell Boltzmann velocity distribution can affect the properties of nanoscale systems by influencing factors such as diffusion, heat transfer, and chemical reactions. It can also impact the stability and behavior of nanoscale materials and structures.

5. What are some real-world applications of the Maxwell Boltzmann velocity distribution in nanoscale systems?

The Maxwell Boltzmann velocity distribution has numerous real-world applications in nanoscale systems, including in the design of nano-devices and materials, in the study of molecular dynamics, and in understanding the behavior of gases and liquids at the nanoscale. It also has applications in fields such as nanotechnology, biophysics, and materials science.

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