14 research outputs found

    Mechanical construction and installation of the ATLAS tile calorimeter

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    This paper summarises the mechanical construction and installation of the Tile Calorimeter for the ATLAS experiment at the Large Hadron Collider in CERN, Switzerland. The Tile Calorimeter is a sampling calorimeter using scintillator as the sensitive detector and steel as the absorber and covers the central region of the ATLAS experiment up to pseudorapidities +/- 1.7. The mechanical construction of the Tile Calorimeter occurred over a period of about 10 years beginning in 1995 with the completion of the Technical Design Report and ending in 2006 with the installation of the final module in the ATLAS cavern. During this period approximately 2600 metric tons of steel were transformed into a laminated structure to form the absorber of the sampling calorimeter. Following instrumentation and testing, which is described elsewhere, the modules were installed in the ATLAS cavern with a remarkable accuracy for a structure of this size and weight

    The proposal for the TILECAL submodule surface protection with DISKOR V2076-7

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    The results of extensive tests - according to DIN standards for the 12 iron surface protection agents against corrosion are summarised. We describe full size tests of horizontal and vertical dipping for two TILECAL submodules performed at CERN in 1997-8. The possibilities to improve optical properties of the light collection system for submodules are suggested. Contents 1 Introduction 2 2 Comparison of the tested protection agents against corrosion 2 3 DISKOR properties and thickness of paint vs emerging speed 3 4 Vertical vs horizontal dipping of submodules 3 5 Painting of the two submodules at CERN 4 6 Dimensions of tank, technical characteristics of pump, comments 5 7 Conclusion 6 1 Introduction The Tile Calorimeter will be constructed from the 3x64 independent iron modules over a period of 5 years in 9 laboratories with different climates. Each barrel module is built from 19 individual submodules constructed in 6 different laboratories and then transported to module assembly l..

    Advances in technology for high-energy subnuclear physics: Contribution of the LAA project

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    Advances in technology for high-energy subnuclear physics: contribution of the LAA project

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    Mechanical construction and installation of the ATLAS tile calorimeter

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    This paper summarises the mechanical construction andinstallation of the Tile Calorimeter for the ATLASexperiment at the Large Hadron Collider in CERN, Switzerland. The TileCalorimeter is a sampling calorimeter using scintillator as the sensitivedetector and steel as the absorber and covers the central region of the ATLASexperiment up to pseudorapidities ±1.7. The mechanical construction ofthe Tile Calorimeter occurred over a periodof about 10 years beginning in 1995 with the completionof the Technical Design Report and ending in 2006 with the installationof the final module in the ATLAS cavern. Duringthis period approximately 2600 metric tons of steel were transformedinto a laminated structure to form the absorber of the sampling calorimeter.Following instrumentation and testing, which is described elsewhere, themodules were installed in the ATLAS cavern with a remarkable accuracy fora structure of this size and weight

    Mechanical construction and installation of the ATLAS tile calorimeter

    No full text
    This paper summarises the mechanical construction and installation of the Tile Calorimeter for the ATLAS experiment at the Large Hadron Collider in CERN, Switzerland. The Tile Calorimeter is a sampling calorimeter using scintillator as the sensitive detector and steel as the absorber and covers the central region of the ATLAS experiment up to pseudorapidities ±1.7. The mechanical construction of the Tile Calorimeter occurred over a period of about 10 years beginning in 1995 with the completion of the Technical Design Report and ending in 2006 with the installation of the final module in the ATLAS cavern. During this period approximately 2600 metric tons of steel were transformed into a laminated structure to form the absorber of the sampling calorimeter. Following instrumentation and testing, which is described elsewhere, the modules were installed in the ATLAS cavern with a remarkable accuracy for a structure of this size and weight. © CERN 2013 for the benefit of the ATLAS collaboration

    Advances in technology for high-energy subnuclear physics Contribution of the LAA project

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