Design Report on a 'Swimming Pool' Hadron Calorimeter for Fermilab Experiment 288

Brown, B.

doi:10.2172/1155366

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2004

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“…Figure 11 shows the response of the same MPMT channel to the light-emitting diode (LED) signals that were significantly attenuated with grey optical filters in order to obtain a single electron spectrum. The analysis of these plots shows that the MPMT peak in figure 10 corresponds to ∼12 photoelectrons per MIP per cell [9].…”

Section: Dhc Prototypementioning

confidence: 99%

Small scintillating cells as the active elements in a digital hadron calorimeter for the e⁺elinear collider detector

Dyshkant¹,

Beznosko²,

Blazey³

et al. 2004

J. Phys. G: Nucl. Part. Phys.

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The ability to distinguish between hadronic W and Z decays is one of the most challenging requirements for the future linear collider detector. Such sensitivity requires unprecedented jet energy resolution, which may be possible with energy-flow algorithms. A calorimeter that is optimized for energy-flow must have fine lateral and longitudinal segmentation. Small scintillating cells with wavelength shifting fibre readout represent an attractive basis for a digital hadron calorimeter that trades dynamic range for superior granularity, at an affordable price. We present the expected jet resolution for such a device, based on Monte Carlo simulations. Then we describe the initial prototyping studies. In particular, detailed studies are presented on cell performance under different combinations of manufacture and assembly.

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Section: Dhc Prototypementioning

confidence: 99%

Small scintillating cells as the active elements in a digital hadron calorimeter for the e⁺elinear collider detector

Dyshkant¹,

Beznosko²,

Blazey³

et al. 2004

J. Phys. G: Nucl. Part. Phys.

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Design Report on a 'Swimming Pool' Hadron Calorimeter for Fermilab Experiment 288

Cited by 1 publication

References 1 publication

Small scintillating cells as the active elements in a digital hadron calorimeter for the e⁺elinear collider detector

Small scintillating cells as the active elements in a digital hadron calorimeter for the e⁺elinear collider detector

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Design Report on a 'Swimming Pool' Hadron Calorimeter for Fermilab Experiment 288

Cited by 1 publication

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Small scintillating cells as the active elements in a digital hadron calorimeter for the e+e linear collider detector

Small scintillating cells as the active elements in a digital hadron calorimeter for the e+e linear collider detector

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Small scintillating cells as the active elements in a digital hadron calorimeter for the e⁺elinear collider detector

Small scintillating cells as the active elements in a digital hadron calorimeter for the e⁺elinear collider detector