6c.2. The integrate the electron density n is the integral of the density state using the 2D density of states and the Fermi-Dirac distribution, EF = [ƒ¥D(E) · 9(E) de · n = Fermi - Dirac distribution density of state in 2D per unit area → fFD(E): = g²D (E) 1 eß(ε-μ) + 1 1 dN (2D) A dE To show that the chemical potential of a Fermi gas in two dimensions is, H(T) = K₂T \n [exp (™ 7 In nëħ² mkgT || mº πη

icon
Related questions
Question
100%
6c.2. The integrate the electron density n is the integral of the density state using the 2D density of
states and the Fermi-Dirac distribution,
EF
= [ƒ¥D(E) · 9(E) de
·
n =
Fermi - Dirac
distribution
density of state in 2D
per unit area
→ fFD(E): =
g²D (E)
1
eß(ε-μ) + 1
1 dN (2D)
A dE
To show that the chemical potential of a Fermi gas in two dimensions is,
H(T) = k¸T \n [exp (™
47 In [exp (m²) - 1]
mkgT
||
mº
πη
Transcribed Image Text:6c.2. The integrate the electron density n is the integral of the density state using the 2D density of states and the Fermi-Dirac distribution, EF = [ƒ¥D(E) · 9(E) de · n = Fermi - Dirac distribution density of state in 2D per unit area → fFD(E): = g²D (E) 1 eß(ε-μ) + 1 1 dN (2D) A dE To show that the chemical potential of a Fermi gas in two dimensions is, H(T) = k¸T \n [exp (™ 47 In [exp (m²) - 1] mkgT || mº πη
Expert Solution
steps

Step by step

Solved in 2 steps with 2 images

Blurred answer