4. The radial part of the Schrödinger equation for a system of two particles, of charges +e and -e, interacting through a Coulombic potential is: -h² d 2μr² dr 2 dR(r) e² R(r) h2 + dr Απερτ 2μr2 l(l+1)R(r) = ER(r). (a) Show that the function: 1 R(r): = 4√2π (+1) 32² (2- - ao r exp 200 with 0, is a solution of the radial Schrödinger equation with the energy eigenvalue E = - нег 8h2 (4πeo)2 Take ao h² (4πEO) μελ (b) Find the expectation value of the radial separation between the two parti- cles. (c) Briefly explain what the physical significance of this expectation value is. (d) A muonic atom consists of a proton and a muon, which has the same charge as the electron. What is the value of μ the reduced mass for this system. You may take the mass of the proton mp = 1.67 × 10-27 kg and the mass of the muon to be mμ = 1.88 × 10-28 kg. (e) Given that the energy levels of the hydrogen atom scale as 12 and that the principal quantum number for the state considered in part(a) is n = 2, what is wavelength of a transition between the n = 2 state and a state with n = 3?

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4.
The radial part of the Schrödinger equation for a system of two particles, of
charges +e and -e, interacting through a Coulombic potential is:
-h² d
2μr² dr
2
dR(r)
e² R(r)
h2
+
dr
Απερτ
2μr2
l(l+1)R(r) = ER(r).
(a) Show that the function:
1
R(r):
=
4√2π
(+1) 32² (2-
-
ao
r
exp
200
with 0, is a solution of the radial Schrödinger equation with the energy
eigenvalue E = -
нег
8h2 (4πeo)2
Take ao
h² (4πEO)
μελ
(b) Find the expectation value of the radial separation between the two parti-
cles.
(c) Briefly explain what the physical significance of this expectation value is.
(d) A muonic atom consists of a proton and a muon, which has the same charge
as the electron. What is the value of μ the reduced mass for this system.
You may take the mass of the proton mp = 1.67 × 10-27 kg and the mass
of the muon to be mμ = 1.88 × 10-28 kg.
(e) Given that the energy levels of the hydrogen atom scale as 12 and that
the principal quantum number for the state considered in part(a) is n = 2,
what is wavelength of a transition between the n = 2 state and a state
with n = 3?
Transcribed Image Text:4. The radial part of the Schrödinger equation for a system of two particles, of charges +e and -e, interacting through a Coulombic potential is: -h² d 2μr² dr 2 dR(r) e² R(r) h2 + dr Απερτ 2μr2 l(l+1)R(r) = ER(r). (a) Show that the function: 1 R(r): = 4√2π (+1) 32² (2- - ao r exp 200 with 0, is a solution of the radial Schrödinger equation with the energy eigenvalue E = - нег 8h2 (4πeo)2 Take ao h² (4πEO) μελ (b) Find the expectation value of the radial separation between the two parti- cles. (c) Briefly explain what the physical significance of this expectation value is. (d) A muonic atom consists of a proton and a muon, which has the same charge as the electron. What is the value of μ the reduced mass for this system. You may take the mass of the proton mp = 1.67 × 10-27 kg and the mass of the muon to be mμ = 1.88 × 10-28 kg. (e) Given that the energy levels of the hydrogen atom scale as 12 and that the principal quantum number for the state considered in part(a) is n = 2, what is wavelength of a transition between the n = 2 state and a state with n = 3?
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