Difference between revisions of "Plastic Scintillator Calculation"
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Density of polyvinyl toluene (a common scintillator material) <math> = \frac{1.02grams}{cm^3}</math> | Density of polyvinyl toluene (a common scintillator material) <math> = \frac{1.02grams}{cm^3}</math> | ||
− | or is it <math>\rho_{BC408} = \frac{1.032grams}{cm^3}</math> H/C = 11/10 [arxiv.org/pdf/nucl-ex/0502006] (TF) | + | or is it <math>\rho_{BC408} = \frac{1.032grams}{cm^3}</math> H/C = 11/10 [http://arxiv.org/pdf/nucl-ex/0502006] (TF) |
For the sample calculation the thickness will be set to 1 cm just to get probability per cm | For the sample calculation the thickness will be set to 1 cm just to get probability per cm |
Revision as of 02:22, 5 February 2009
Below is the calculations done to determine the probability of pair production depending on thickness of the scintillator.
Molecules per
(NOTE: is just the density of the scintillator material and N[A] is Avogadro's number)Molecules per
Weighted cross-section
Probability of interaction (%)
All cross sections listed here are pair production cross-sections
For carbon
orFor carbon
orFor hydrogen
orFor hydrogen
orAvogadro's number
Density of polyvinyl toluene (a common scintillator material)
or is it [1] (TF)H/C = 11/10
For the sample calculation the thickness will be set to 1 cm just to get probability per cm
So entering all the numbers into the 4 initial equations gives the following answers:
Molecules per
Molecules per
Weighted cross-section
Probability of interaction (%)