Overview
Particle Detection
A device detects a particle only after the particle transfers energy to the device.
Energy intrinsic to a device depends on the material used in a device
Some device of material with an average atomic number ([math]Z[/math]) is at some temperature ([math]T[/math]). The materials atoms are in constant thermal motion (unless T = zero degrees Klevin).
Statistical Thermodynamics tells us that the canonical energy distribution of the atoms is given by the Maxwell-Boltzmann statistics such that
[math]P(E) = \frac{1}{kT} e^{-\frac{E}{kT}}[/math]
[math]P(E)[/math] represents the probability of any atom in the system having an energy [math]E[/math] where
[math]k= 1.38 \times 10^{-23} \frac{J}{mole \cdot K}[/math]
Note: You may be more familiar with the Maxwell-Boltzmann distribution in the form
[math]N(\nu) = 4 \pi N \frac{m}{2\pi k T}^{3/2}[/math]
The Monte Carlo method
A Unix Primer
A Root Primer
Example 1: Create Ntuple and Draw Histogram
Cross Sections
Deginitions
Example : Elastic Scattering
Lab Frame Cross Sections
Stopping Power
Bethe Equation
Classical Energy Loss
Bethe-Bloch Equation
Energy Straggling
Thick Absorber
Thin Absorbers
Range Straggling
Electron Capture and Loss
Multiple Scattering
Interactions of Electrons and Photons with Matter
Bremsstrahlung
Photo-electric effect
Compton Scattering
Pair Production
Hadronic Interactions
Neutron Interactions
Elastic scattering
Inelasstic Scattering