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The Detector Control Systems for the CMS Resistive Plate Chamber at LHC
The RPC Detector Control System (RCS) is the main subject of this PhD work. The project, involving the Lappeenranta University of Technology, the Warsaw University and INFN of Naples, is aimed to integrate the different subsystems for the RPC detector and its trigger chain in order to develop a comm...
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Lenguaje: | eng |
Publicado: |
2009
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Materias: | |
Acceso en línea: | http://cds.cern.ch/record/2265314 |
Sumario: | The RPC Detector Control System (RCS) is the main subject of this PhD work. The
project, involving the Lappeenranta University of Technology, the Warsaw University
and INFN of Naples, is aimed to integrate the different subsystems for the RPC detector
and its trigger chain in order to develop a common framework to control and monitoring
the different parts. In this project, I have been strongly involved during the last three
years on the hardware and software development, construction and commissioning as
main responsible and coordinator.
The CMS Resistive Plate Chambers (RPC) system consists of 912 double-gap chambers
at its start-up in middle of 2008. A continuous control and monitoring of the detector, the
trigger and all the ancillary sub-systems (high voltages, low voltages, environmental, gas,
and cooling), is required to achieve the operational stability and reliability of a so large
and complex detector and trigger system. Role of the RPC Detector Control System is
to monitor the detector conditions and performance, control and monitor all subsystems
related to RPC and their electronics and store all the information in a dedicated database,
called Condition DB. Therefore the RPC DCS system has to assure the safe and correct
operation of the sub-detectors during all CMS life time (more than 10 year), detect
abnormal and harmful situations and take protective and automatic actions to minimize
consequential damages.
The analysis of the requirements and project challenges, the architecture design and its development
as well as the calibration and commissioning phases represent the main tasks of
the work developed for this PhD thesis. Different technologies, middleware and solutions
has been studied and adopted in the design and development of the different components
and a big challenging consisted in the integration of these different parts each other and
in the general CMS control system and data acquisition framework.
Therefore, the RCS installation and commissioning phase as well as its performance and
the first results, obtained during the last three years CMS cosmic runs, will be described
in this thesis. |
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