1. According to Postulate III, entropy is additive meaning that the total entropy of a composite system is the sum of the entropies of the constituent subsystems. Consider the following scenario.
Assume you have two subsystems that are initially separated by an adiabatic wall. The composite system is further isolated from the surroundings by an adiabatic barrier. For simplicity, assume that each subsystem is comprised of 8 “particles” and that each particle can have an energy of either 0 or 1. Initially, let subsystem A have UA = 2 and subsystem B have UB = 4 as depicted in the following figure.
Anybody please help me to get the answer of the above question.
Homework Answers
Add Answer to:
1. According to Postulate III, entropy is additive meaning that
the total entropy of a composite...
Consider two Einstein solids A and B that can exchange energy (but not oscillators/particles) wit...
Using matlab, evaluate the following system:Consider two Einstein solids \(A\) and \(B\) that can exchange energy (but not oscillators/particles) with one another but the combined composite system is isolated from the surroundings. Suppose systems \(A\) and \(B\) have \(N_{A}\) and \(N_{B}\) oscillators, and \(q_{A}\) and \(q_{B}\) units of energy respectively. The total number of microstates for this macrostate for the macrostate \(N_{A}, N_{B}, q, q_{A}\) is given by$$ \Omega\left(N_{A}, N_{B}, q, q_{A}\right)=\Omega\left(N_{A}, q_{A}\right) \Omega\left(N_{B}, q_{B}\right) $$where$$ \Omega\left(N_{i}, q_{i}\right)=\frac{\left(q_{i}+N_{i}-1\right) !}{q_{i} !\left(N_{i}-1\right)...
Using matlab, evaluate the following system:Consider two Einstein solids \(A\) and \(B\) that can exchange energy (but not oscillators/particles) with one another but the combined composite system is isolated from the surroundings. Suppose systems \(A\) and \(B\) have \(N_{A}\) and \(N_{B}\) oscillators, and \(q_{A}\) and \(q_{B}\) units of energy respectively. The total number of microstates for this macrostate for the macrostate \(N_{A}, N_{B}, q, q_{A}\) is given by$$ \Omega\left(N_{A}, N_{B}, q, q_{A}\right)=\Omega\left(N_{A}, q_{A}\right) \Omega\left(N_{B}, q_{B}\right) $$where$$ \Omega\left(N_{i}, q_{i}\right)=\frac{\left(q_{i}+N_{i}-1\right) !}{q_{i} !\left(N_{i}-1\right)...
Most questions answered within 3 hours.
-
Explain the differences between FIND and FINDSTR command in
windows:
[write in a few sentences]
asked 6 minutes ago -
A 200g block attached to a horizontal spring is oscillating with
an amplitude of 2.0cm and...
asked 9 minutes ago -
When solving for an optimal bundle using the Hicksian and
Marshallian demand, should you get the...
asked 10 minutes ago -
1. The standard width between rails on North American and most
European railroads is 5 ft...
asked 7 minutes ago -
Which of these is a pure compound, which is an element, and
which is neither?
helium...
asked 13 minutes ago -
How much energy is required to vaporize 175 g of butane at its
boiling point? The...
asked 24 minutes ago -
X has a normal distribution with the given mean and
standard deviation. Find the indicated probability....
asked 26 minutes ago -
Calculate the probability that a particle will be found in a
tiny slice of space between...
asked 29 minutes ago -
Developed countries with some of the highest GDPs per
capita:
a)are not found outside of Europe...
asked 31 minutes ago -
draw a diagram illustrating the three ways of genetic
information flow
asked 47 minutes ago -
CASE 3-1 YOU CAN’T GET THERE FROM HERE: UBER SLOW ON
DIVERSITY
Established in 2009, Uber...
asked 46 minutes ago -
A local AM radio station broadcasts at an energy of
4.39×10-31 kJ/photon.
Calculate the frequency at...
asked 1 hour ago