The following thresholds were used for transport:

Electrons-positrons 1 MeV
Photons  0.1 MeV
Neutrons  10-11 MeV
Antineutrons  50 MeV 
All other particles 0.1 MeV

 
The results of simulations are presented in 2 tables:

  1. Table 1. Fluences and doses.
  2. Table 2. Particle spectra.


Fluences of neutrons, charged hadrons, electrons-positrons, high-energy hadrons (Ekin > 20 MeV) and 1MeV-neutrons equivalent fluence for Si are shown in units of particles per square cm per collision. 

Dose is presented in units of Gy per collision. 

Conversion factor per second with a luminosity L = 2*1032  is  equal to 1.6*107

Each cell of table 1 represents a 2D map of fluence of particular type of particles or dose for particular plane crossing the detector. 

Below the list of planes is shown with their positions and dimensions (in cm). 

Name   

x-positions, no of bins y-positions, no of bins z-position, no of bins
HCAL  20 – 600, 29  20 – 500, 24  1333.0 – 1333.07, 1
ECAL    20 – 600, 29 20 – 500, 24 1248.5 – 1248.57, 1
SPD-PS    20 – 600, 29 20 – 500, 24 1230.5 – 1230.57, 1
RICH1 * 5-150, 29  5-125, 24  100.0 – 101.0, 1
RICH2  20 – 600, 29  20 – 500, 24  1147.0 – 1147.07, 1
OT2   10 – 350, 34  10 – 300, 29 228.0 – 228.07, 1
OT3 *   10 – 350, 34 10 – 300, 29  346.0 – 346.07, 1
OT4 * 10 – 350, 34 10 – 300, 29 604.0 – 604.07, 1
OT5 *   10 – 350, 34 10 – 300, 29 704.0 – 704.07, 1
OT6 *   10 – 350, 34 10 – 300, 29 783.0 – 783.07, 1
OT7    10 – 350, 34 10 – 300, 29 829.0 – 829.07, 1
OT8    10 – 350, 34 10 – 300, 29 875.0 – 875.07, 1
OT9    10 – 350, 34 10 – 300, 29 921.0 – 921.07, 1
IT2   5 – 55, 50  5 – 55, 50 228.0 – 228.07, 1
IT3  *  5 – 55, 50  5 – 55, 50  346.0 – 346.07, 1
IT7    5 – 55, 50  5 – 55, 50  829.0 – 829.07, 1
IT8   5 – 55, 50  5 – 55, 50  875.0 – 875.07, 1
IT9   5 – 55, 50  5 – 55, 50  921.0 – 921.07, 1
X-Section @ x=0.0* 0.0 – 1.0, 1   10 – 400, 39 100 – 2000, 38
X-Section @ x=200*  200.0 – 201.0, 1  10 – 400, 39  100 – 2000, 38
X-Section @ x=600    600.0 – 600.07, 1 10 – 400, 39 100 – 2000, 38
Floor -550.0 – 2000.0, 51 -606.07 - -606.0, 1  300 – 1900, 32 
X-Section @ x=0.0*(Vertex) 0.0 - 1.0, 1 5.0 - 200.0, 39 -200.0 - 600.0, 80.0 
X-section @ y=0.0*(Vertex) 5.0 - 200.0, 39 0.0 - 1.0, 1 -200.0 - 600.0, 80.0 
X-section @ z=70*   0.0 - 300.0, 60 5.0 - 250.0, 49 70.0 - 71.0, 1.0 
X-section @ z=20*   0.0 - 300.0, 60 5.0 - 250.0, 49 20.0 - 21.0, 1.0
X-section @ z=0*   0.0 - 300.0, 60 5.0 - 250.0, 49 0.0 - 1.0, 1.0
X-section @ z=-20*   0.0 - 300.0, 60 5.0 - 250.0, 49 -20.0 - 21.0, 1.0
VELO Sensor @~70cm   0.0 - 5.0, 25 0.0 - 5.0, 25 73.47 - 73.5, 1
VELO Sensor @~20cm   0.0 - 5.0, 25 0.0 - 5.0, 25 21.47 - 21.5, 1
VELO Sensor @~0cm   0.0 - 5.0, 25 0.0 - 5.0, 25 0.47 - 0.5, 1
VELO Sensor @~-20cm   0.0 - 5.0, 25 0.0 - 5.0, 25 -17.5 - -17.53, 1
VELO Support @ ~70cm*  5.0 - 50.0, 49 0.0 - 11.0, 22 73.6 - 73.7, 1 
VELO Support @ ~20cm*  5.0 - 50.0, 49 0.0 - 11.0, 22  21.6 - 21.7, 1 
VELO Support @ ~0cm*  5.0 - 50.0, 49 0.0 - 11.0, 22  0.6 - 0.7, 1 
VELO Support @ ~-20cm*  5.0 - 50.0, 49 0.0 - 11.0, 22  -17.4 - -17.3, 1 


Material of all scoring volumes except of the cases, marked with * in the table , is silicon. In the cross-sections at X=0 and X=200 no special material is introduced. The dose is scored in the actual material of the detector present in each point of the scoring volume. For the rest of the cases material is air.

Each map is presented in the form of color figure (ps-file) and text file (2D PAW vector). See above for the binning.

Accuracy of the data on fluences and doses depends on particles statistics in particular locations. No systematic analysis was performed regarding this issue. In practice one can estimate the statistical accuracy from the map itself. It varies from ~30% for neutron fluence in the central part of calorimeters to factor 10 for hadron fluence in the cavern. Particular care has to be taken when analysing data on  doses. In case of small binning large dose fluctuations are possible due to heavily ionising particles (see for example doses for Inner tracker locations).   


Particle spectra in table 2 are presented in two forms:

  1. As differential spectrum multiplied by the energy (EdF/dE), if represented in this 
    way spectrum shape does not depend on the particular binning. 
  2. As cumulative spectrum (for neutrons only), where the dependence of fluence of 
    particles with energy lower than a certain threshold as a function of this threshold is shown. 

The list of the volumes where particle spectra are scored with their positions and dimensions (in cm) is shown below:

Name  

x-pos y-pos  z-pos
Floor  1000 – 2000  -606.07 - -606.0  300 – 1900
OT2   10 – 350  10 – 300 228.0 – 228.07
OT3   10 – 350 10 – 300  346.0 – 346.07
OT9    10 – 350 10 – 300 921.0 – 921.07
HCAL   0 – 420 340 – 500  1333.0 – 1333.07
RICH2   0 – 380  320 – 500 1147.0 – 1147.07


Spectra of electrons-positrons, charged hadrons and charged pions have 12 bins in logarithmic scale from 0.1 MeV to 100GeV. Spectra of neutrons have 80 bins in log scale from 10-11 MeV to 100 GeV. 
Each EdF/dE spectrum is represented in the form of figure (ps-file) combining data for neutrons, charged hadrons, charged pions and electrons-positrons. Corresponding text file (2D PAW vector) combines data for charged hadrons (column 2), charged pions (column 3) and electron-positrons (column 3). The first column is energy in GeV. Dimensions of the vector are 4*12. 
Each cumulative spectrum is represented in the form of figure (ps-file) and text file (2D PAW vector) that combines cumulative data (column 2) and EdF/dE data (column 3) for neutrons. The first column is energy in GeV. Dimensions of the vector are 3*80.