626
Appendix: Problem Index
In decay π → μν, relation for E ν in terms of γ , E π , m μ , m π and θ 9.31
Transport of sigma hyperon beam
9.32
Total decay width of muon from electron energy spectrum,
E e (max) and muon helicity
9.33
Disparity in lifetimes of π
+ and π
0 , equality of masses of π
+ and
π
− but difference in masses of
Σ
+ and Σ
− , lifetime of Σ
0 much smaller than Λ and Ξ
0
9.34
Identification of a neutral unstable particle from momenta and
angular measurements of decay products
9.35
9.2.5 Ionization Chamber, GM Counter and Proportional Counters
Dead time of counting system
9.36, 45
Energy of α source and ion pairs in ionization chamber
9.37
Rate of entry of beta particles in ionization chamber
9.38
Gas multiplication in proportional counter
9.39
Pulse height in proportional counter
9.40
Plateau of G.M. counter
9.41
Maximum radial field of a G.M. tube and its lifetime
9.42
Distance from anode at which electron gains enough energy to
ionize
Argon in one MFP.
9.43
Difference in efficiency of G.M. and scintillation counters
9.44
Leakage resistance in a dosimeter
9.46
Maximum voltage for avalanche
9.47
Potential of an electrometer
9.48
9.2.6 Scintillation Counter
Time of flight method
9.49
Discovery of antiproton
9.50
Pulse height
9.51
Average size and standard deviation
9.52
Dead time of multichannel pulse height analyser
9.53
Electron multiplication per stage
9.54
Gamma ray spectrum of
22 Na
9.55
Half-width at half-maximum of photopeak
9.56
Standard deviation of energy and coefficient of variation of energy 9.57
9.2.7 Cerenkov Counter
Identification of kaons and pions of same energy
9.58, 61
Speed of electron
9.59
mc
2 in terms of p and θ
9.60
Number of Cerenkov photons produced
9.62
Length of gas counter
9.63
Threshold Cerenkov counter
9.64
9.2.8 Solid State Detector
Potential from alpha particle absorption
9.65
Appendix: Problem Index
In decay π → μν, relation for E ν in terms of γ , E π , m μ , m π and θ 9.31
Transport of sigma hyperon beam
9.32
Total decay width of muon from electron energy spectrum,
E e (max) and muon helicity
9.33
Disparity in lifetimes of π
+ and π
0 , equality of masses of π
+ and
π
− but difference in masses of
Σ
+ and Σ
− , lifetime of Σ
0 much smaller than Λ and Ξ
0
9.34
Identification of a neutral unstable particle from momenta and
angular measurements of decay products
9.35
9.2.5 Ionization Chamber, GM Counter and Proportional Counters
Dead time of counting system
9.36, 45
Energy of α source and ion pairs in ionization chamber
9.37
Rate of entry of beta particles in ionization chamber
9.38
Gas multiplication in proportional counter
9.39
Pulse height in proportional counter
9.40
Plateau of G.M. counter
9.41
Maximum radial field of a G.M. tube and its lifetime
9.42
Distance from anode at which electron gains enough energy to
ionize
Argon in one MFP.
9.43
Difference in efficiency of G.M. and scintillation counters
9.44
Leakage resistance in a dosimeter
9.46
Maximum voltage for avalanche
9.47
Potential of an electrometer
9.48
9.2.6 Scintillation Counter
Time of flight method
9.49
Discovery of antiproton
9.50
Pulse height
9.51
Average size and standard deviation
9.52
Dead time of multichannel pulse height analyser
9.53
Electron multiplication per stage
9.54
Gamma ray spectrum of
22 Na
9.55
Half-width at half-maximum of photopeak
9.56
Standard deviation of energy and coefficient of variation of energy 9.57
9.2.7 Cerenkov Counter
Identification of kaons and pions of same energy
9.58, 61
Speed of electron
9.59
mc
2 in terms of p and θ
9.60
Number of Cerenkov photons produced
9.62
Length of gas counter
9.63
Threshold Cerenkov counter
9.64
9.2.8 Solid State Detector
Potential from alpha particle absorption
9.65