Tools
Sorted by:
Try your query at:
 |
 |
 |
 |
 |
 |
Results 1 - 10
of
87,434
Table 1: Parameters of Recently Designed Crystal Calorimeters
"... In PAGE 2: ... These include a CsI calorimeter for the KTeV experiment at Fermi Lab [7], two CsI(Tl) calorimeters for B Factory experiments: the BaBar experiment at SLAC [8] and the BELLE experiment at KEK [9], and a lead tungstate (PbWO4) calorimeter for the Compact Muon Solenoid (CMS) experiment at the Large Hadronic Collider (LHC) [10], where the electroweak symmetry breaking physics requires resolution of the crystal calorimetry [11]. Table1 summarizes design parameters for these crystal calorimeters. One notes that each of these calorimeters requires several cubic meters of high quality crystals.... ..."
Table 24.5: Properties of superconducting collider detector solenoids. Experiment{Lab Field Bore Dia Length Energy Thickness
Table 1 Muon uxes of some existing and future facilities, Rutherford Appleton Laboratory (RAL), Japanese Hadron Facility (JHF), a new Neutron Spallation Source (NSS), Muon collider (MC). RAL( +) PSI( +) PSI( ?) JHF( +)y
Table 24.6: Properties of superconducting collider detector solenoids.
in Table 24.1: Typical detector characteristics. Resolution Dead Detector Type Accuracy (rms) Time Time
Table 1. Principle detector components, their radiation or interaction lengths, the proposed de- tector techniques, and their resolution or performance goals. Subdetector Rad. Length Technique Performance goal
"... In PAGE 2: ... 1. Table1 shows the prin- ciple detector subsystems together with the proposed detector type, their resolution and performance goals obtained from physics analyses. The detector magnet will be a superconducting solenoid with a eld of 3T.... In PAGE 7: ...nteraction length is 7.5cm. To achieve a good energy resolution the sampling thickness for active and pas- sive absorber layers are kept as close to that required for compensation (equal electromagnetic and hadronic responses). However, in order to achieve the required electromagnetic resolution (see Table1 ), compensation could not be realized com- pletely. Software energy-weighting will be applied to regain compensation.... ..."
Table 6 formalises these metrics on top of our source representation. This will allow us to project the impact of refactor- ings on program structure - as described in the previous section - in the area of software quality.
"... In PAGE 8: ... Table6 . Formalization of selected metrics on top of our source representation, calculated for the Machine class from the example of section 2.... In PAGE 8: ...2. The formalizations provided in Table6 are defined in terms of our extended tree representation, which is a formal de- scription of program structure. This allows an analysis of the impact of refactorings on internal program quality metrics, by translating the structural changes to the program structure, as described in the impact tables of section 4, into changes on the various metrics.... In PAGE 8: ... In order to illustrate our technique of analysing the impact of refactoring on internal program quality metrics, we elaborate on the most interesting metrics. As the metric formalizations, denoted in Table6 , are constructed out of a number of different terms, we can analyse the impact of a refactoring on the metric value by analysing its impact on these various terms. To do this, we split out the different terms, and use the impact tables provided in section 4 to identify the impact category (nil, positive or negative).... ..."
Results 1 - 10
of
87,434
