Readiness Paper (Eur. Phys. J. C 70 (2010) 1193-1236) | |
Physics signal pulse shapes used as reference for the Optimal Filtering weights calculation. The pulse shapes are slightly different for high-gain and low-gain, they were obtained with testbeam data. Contact: maja.tylmad@cern.ch Reference: CERN-PH-EP-2010-024 ![]() Date: May 2010 | ![]() |
A cut-away drawing of the ATLAS inner detector and calorimeters. Tile Calorimeter consists of one barrel and two extended barrel sections and surrounds the LAr barrel electromagnetic and endcap hadronic calorimeters. Reference: Figure 1 | ![]() EPS PDF |
Flow diagram of the readout signal path of the difference TileCal calibration tools. The paths are partially overlapping, allowing for cross-checks and an easier identification of component failures Reference: Figure 12 | ![]() EPS PDF |
Detector Reference Figures and Schematics from Atlas Detector Paper (2008 Jinst 3 S08003) | A complete archive of the figures in this paper is available here |
Schematic showing how the mechanical assembly and the the optical readout of the tile calorimeter are integrated together. The various components of the optical readout, namely the tiles, the fibres and the photomultipliers, are shown.
Contact: James Proudfoot jxp@anlmailNOSPAMPLEASE.anl.gov Date: 2008 Ref: Figure 5.9 Correction The original figure was incorrect, since Cs pipes run through the holes at the higher radii in each tile. Corrected figure uploaded (T.Davidek) |
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Azimuthal view of the tile-calorimeter module-to-module interface showing the bearing locations at the inner and outer radii, and the azimuthal gap with a nominal width at the inner radius of 1.5mm, in which the readout fibres are routed to the photomultipliers inside the girder.
Contact: James Proudfoot jxp@anlmailNOSPAMPLEASE.anl.gov Date: 2008 Ref: Figure 5.10 |
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Radial view, looking inwards towards the interaction point, showing the fibre routing in the barrel modules. The fibre shown outside the channel accepts the light for the tile onto which it is pressed. Further along the channel, this fibre is routed through a slot in the channel, into the interior region, while one of the other fibres is routed outside to view the next series of scintillator tiles in depth.
Contact: James Proudfoot jxp@anlmailNOSPAMPLEASE.anl.gov Date: 2008 Ref: Figure 5.11 |
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Segmentation in depth and in $\eta$ of the tile-calorimeter modules in the central (left) and extended (right) barrels. The bottom of the picture corresponds to the inner radius of the tile calorimeter. The tile calorimeter is symetric about the interaction point at the origin.
The colored version was added in 2019 by Henric. Check if you don't need the Run 3 version below
Contact: James Proudfoot jxp@anlmailNOSPAMPLEASE.anl.gov Date: 2008 Ref: TDR Figure 5.12 |
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Run3 version of the plots above, with E3 to eta=1.6, E4 to eta 1.72
Contact: Henric Wilkens Henric.Wilkens@cernNOSPAMPLEASE.ch Date: 2022 |
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Block diagram of the tile-calorimeter readout electronics.
Contact: James Proudfoot jxp@anlmailNOSPAMPLEASE.anl.gov Date: 2008 Ref: Figure 5.39 |
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Cesium monitoring system for the ATLAS Tile Hadron Calorimeter (NIM A494 pp381-384,2002) | |
Calibration data treatment. The accuracy of a single tile response value is close to 1.8%.
Contact: Jenya Starchenko Evgueni.Startchenko@cern.chDate: 2002 Ref: Figure 6 |
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Technical Design Report | |
Conceptual diagram of signal path for the Tile Calorimeter and calibration entry points (see text for definitions of the functions L and Q).
Contact: Ilias Efthymiopoulos Date: 1996 Ref: Figure 7-1 |
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Mechanical concept of the source calibration system.
Contact: Ilias Efthymiopoulos Date: 1996 Ref: Figure 7-5 |
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