Model
Experimental data
OM potential
Java blocked?
Inelastic scattering of nuclear particles (one-step excitation of collective state)
Model:
DWBA (based on
DWUCK4
, P.Kunz)
Reaction
Projectile
r
0
fm
R
fm
Target
r
0
fm
R
fm
Energy
MeV
lab
cm
E/A
Inelastic Excitation of
projectile
or target
ground state
J(
π
)
0(+)
0(-)
1/2(+)
1/2(-)
1(+)
1(-)
3/2(+)
3/2(-)
2(+)
2(-)
5/2(+)
5/2(-)
3(+)
3(-)
7/2(+)
7/2(-)
4(+)
4(-)
9/2(+)
9/2(-)
5(+)
5(-)
11/2(+)
11/2(-)
6(+)
6(-)
excited state
J(
π
)
0(+)
0(-)
1/2(+)
1/2(-)
1(+)
1(-)
3/2(+)
3/2(-)
2(+)
2(-)
5/2(+)
5/2(-)
3(+)
3(-)
7/2(+)
7/2(-)
4(+)
4(-)
9/2(+)
9/2(-)
5(+)
5(-)
11/2(+)
11/2(-)
6(+)
6(-)
E
exc
MeV
transferred momenta
j
tr
ħ
l
tr
, s
tr
j-1, 1
j, 0
j+1, 1
ħ
Normalization:
β
l
β
Coul
Coulomb excitation
Transition Form-Factor
(taken as derivative of entrance channel OMP)
include
exclude imaginary part
Experimental data
OM potential in entrance channel
V
0
vol
MeV
r
0
vol
fm
a
vol
fm
W. S. Volume
W. S. Surface
Superposition
Proximity
Folding
V
0
sur
MeV
r
0
sur
fm
a
sur
fm
Proximity: b
fm
r
0
coul
fm
Absorptive potential
W
0
vol
MeV
r
0
vol
fm
a
vol
fm
W. S. Volume
W. S. Surface
Superposition
W
0
sur
MeV
r
0
sur
fm
a
sur
fm
Spin-orbit interaction
Spin
0
1/2
V
0
MeV
W
0
MeV
r
0
fm
a
fm
OM potential in exit channel
V
0
vol
MeV
r
0
vol
fm
a
vol
fm
W. S. Volume
W. S. Surface
Superposition
Proximity
Folding
V
0
sur
MeV
r
0
sur
fm
a
sur
fm
Proximity: b
fm
r
0
coul
fm
Absorptive potential
W
0
vol
MeV
r
0
vol
fm
a
vol
fm
W. S. Volume
W. S. Surface
Superposition
W
0
sur
MeV
r
0
sur
fm
a
sur
fm
Spin-orbit interaction
Spin
0
1/2
V
0
MeV
W
0
MeV
r
0
fm
a
fm
Integration parameters
Initial angle
deg.
Partial waves:
Maximal angle
deg.
L
max
R
max
fm
Step
deg.
Integration step
fm
