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We add here a set of preliminary results produced with this code, focusing
on neutron and pion production. Given that we
are still in the process of writing up the paper, we apologize for the at
release time still less then publication quality plots.
Figure 25.1:
Double differential cross-section for neutrons produced in proton
scattering off Aluminum. Proton incident energy was 113 MeV.
 |
Figure 25.2:
Double differential cross-section for neutrons produced in proton
scattering off Aluminum. Proton incident energy was 256 MeV. The points
are data, the histogram is Binary Cascade prediction.
 |
Figure 25.3:
Double differential cross-section for neutrons produced in proton
scattering off Aluminum. Proton incident energy was 597 MeV. The points
are data, the histogram is Binary Cascade prediction.
 |
Figure 25.4:
Double differential cross-section for neutrons produced in proton
scattering off Aluminum. Proton incident energy was 800 MeV. The points
are data, the histogram is Binary Cascade prediction.
 |
Figure 25.5:
Double differential cross-section for neutrons produced in proton
scattering off Iron. Proton incident energy was 113 MeV. The points
are data, the histogram is Binary Cascade prediction.
 |
Figure 25.6:
Double differential cross-section for neutrons produced in proton
scattering off Iron. Proton incident energy was 256 MeV. The points
are data, the histogram is Binary Cascade prediction.
 |
Figure 25.7:
Double differential cross-section for neutrons produced in proton
scattering off Iron. Proton incident energy was 597 MeV. The points
are data, the histogram is Binary Cascade prediction.
 |
Figure 25.8:
Double differential cross-section for neutrons produced in proton
scattering off Iron. Proton incident energy was 800 MeV. The points
are data, the histogram is Binary Cascade prediction.
 |
Figure 25.9:
Double differential cross-section for neutrons produced in proton
scattering off Lead. Proton incident energy was 113 MeV. The points
are data, the histogram is Binary Cascade prediction.
 |
Figure 25.10:
Double differential cross-section for neutrons produced in proton
scattering off Lead. Proton incident energy was 256 MeV. The points
are data, the histogram is Binary Cascade prediction.
 |
Figure 25.11:
Double differential cross-section for neutrons produced in proton
scattering off Lead. Proton incident energy was 597 MeV. The points
are data, the histogram is Binary Cascade prediction.
 |
Figure 25.12:
Double differential cross-section for neutrons produced in proton
scattering off Lead. Proton incident energy was 800 MeV. The points
are data, the histogram is Binary Cascade prediction.
 |
Figure 25.13:
Double differential cross-section for pions produced at
in proton
scattering off various materials. Proton incident energy was 597 MeV in each
case. The points are data, the histogram is Binary Cascade prediction.
 |
Next: Bibliography
Up: The GEANT4 Binary Cascade
Previous: Modeling overview
Contents