tipp2014

tipp2014@nikhef.nl

1261 discussions

[Tipp2014] [Indico] New abstract submission: PARAMATTI, Riccardo
by noreply-indico-team＠cern.ch 19 Feb '14

19 Feb '14

The following email has been sent to PARAMATTI, Riccardo: === Dear Riccardo Paramatti, The submission of your abstract has been successfully processed. Abstract submitted: <https://indico.cern.ch/event/192695/call-for- abstracts/my-abstracts>. Status of your abstract: <https://indico.cern.ch/event/192695/call- for-abstracts/246/>. See below a detailed summary of your submitted abstract: Conference: Tipp 2014 - Third International Conference on Technology and Instrumentation in Particle Physics Submitted by: PARAMATTI, Riccardo Submitted on: 19 February 2014 14:39 Title: Evolution studies of the CMS endcap calorimeter response and implications for the High-Luminosity LHC upgrade Abstract content Calorimetry for the CMS detector is currently performed at the LHC with a lead tungstate crystal electromagnetic calorimeter (ECAL) and a brass/scintillator hadronic calorimeter (HCAL), both divided into barrel and endcap regions. High-Luminosity running at the LHC, which is planned for 2022 and beyond, will imply an order of magnitude increase in radiation levels and particle fluences with respect to the present LHC running conditions. The performance evolution of the CMS calorimeters indicates that an upgrade of the endcap calorimeters will be needed to ensure adequate performance during HL-LHC running. Results from LHC collision periods, beam tests and laboratory measurements are combined to predict the performance of the current detector at the HL-LHC and motivate the need for an upgrade of the endcap calorimeters. Summary Primary Authors: PARAMATTI, Riccardo (INFN Roma1) <riccardo.paramatti(a)roma1.infn.it> Co-authors: Abstract presenters: PARAMATTI, Riccardo Track classification: Sensors: 1a) Calorimetry Presentation type: --not specified-- Comments: Riccardo Paramatti on behalf of CMS Collaboration

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[Tipp2014] TIPP2014: Acceptance of contribution
by tipp2014＠nikhef.nl 19 Feb '14

19 Feb '14

Dear , We are pleased to inform you that your contribution: A Zero Ion Backflow electron multiplier operating in noble gases has been accepted for an Oral presentation in the track Sensors: 1c) Gaseous Detectors. We are looking forward to see you in Amsterdam, Niels van Bakel, On behalf of the track conveners and the local organizing committee

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[Tipp2014] TIPP2014: Acceptance of contribution
by tipp2014＠nikhef.nl 19 Feb '14

19 Feb '14

Dear Laktineh Laktineh, We are pleased to inform you that your contribution: High rate, fast timing RPC for future LHC experiments upgrade has been accepted for an Oral presentation in the track Sensors: 1c) Gaseous Detectors. We are looking forward to see you in Amsterdam, Niels van Bakel, On behalf of the track conveners and the local organizing committee

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[Tipp2014] TIPP2014: Acceptance of contribution
by tipp2014＠nikhef.nl 19 Feb '14

19 Feb '14

Dear Alhussain abuhoza, We are pleased to inform you that your contribution: Construction and commissioning of a setup to study ageing phenomena in high rate gas detectors has been accepted for an Oral presentation in the track Sensors: 1c) Gaseous Detectors. We are looking forward to see you in Amsterdam, Niels van Bakel, On behalf of the track conveners and the local organizing committee

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[Tipp2014] TIPP2014: Acceptance of contribution
by tipp2014＠nikhef.nl 19 Feb '14

19 Feb '14

Dear Andrew White, We are pleased to inform you that your contribution: Micro Pattern Gas Detector Technologies and Applications - the work of the RD51 Collaboration has been accepted for an Oral presentation in the track Sensors: 1c) Gaseous Detectors. We are looking forward to see you in Amsterdam, Niels van Bakel, On behalf of the track conveners and the local organizing committee

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[Tipp2014] TIPP2014: Acceptance of contribution
by tipp2014＠nikhef.nl 19 Feb '14

19 Feb '14

Dear David Attié, We are pleased to inform you that your contribution: Study of a Large Prototype TPC using Micro-Pattern Gas Detectors has been accepted for an Oral presentation in the track Sensors: 1c) Gaseous Detectors. We are looking forward to see you in Amsterdam, Niels van Bakel, On behalf of the track conveners and the local organizing committee

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[Tipp2014] TIPP2014: Acceptance of contribution
by tipp2014＠nikhef.nl 19 Feb '14

19 Feb '14

Dear Robert Klanner, We are pleased to inform you that your contribution: Characterization and X-Ray Damage of Silicon Photomultipliers has been accepted for an Oral presentation in the track Sensors: 1d) Photon Detectors. We are looking forward to see you in Amsterdam, Niels van Bakel, On behalf of the track conveners and the local organizing committee

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[Tipp2014] [Indico] New abstract submission: MILANOVIC, Borislav
by noreply-indico-team＠cern.ch 19 Feb '14

19 Feb '14

The following email has been sent to MILANOVIC, Borislav: === Dear Borislav Milanovic, The submission of your abstract has been successfully processed. Abstract submitted: <https://indico.cern.ch/event/192695/call-for- abstracts/my-abstracts>. Status of your abstract: <https://indico.cern.ch/event/192695/call- for-abstracts/245/>. See below a detailed summary of your submitted abstract: Conference: Tipp 2014 - Third International Conference on Technology and Instrumentation in Particle Physics Submitted by: MILANOVIC, Borislav Submitted on: 19 February 2014 11:04 Title: A prototype for the data aquisition of the CBM Micro Vertex Detector Abstract content The Compressed Baryonic Matter Experiment (CBM) will be installed at the SIS-100/SIS-300 accelerators of the FAIR facility, which is currently under construction at Darmstadt, Germany. Its purpose is the study of hadronic matter in the region of highest net baryon density with rare probes, e.g. open charm particles. To reconstruct those particles, a Micro Vertex Detector (MVD) with a spatial resolution of few micrometers and high frame rate capability ($> 33\ \rm kHz$) is required. This MVD will rely on CMOS Monolithic Active Pixel Sensors (MAPS) developed by the PICSEL group of IPHC Strasbourg. Integrating the MAPS into the global strategy of CBM requires a free streaming, dead-time free DAQ which is able to synchronize up to $300$ sensors and to handle a continuous data stream of $\sim 30\ \rm GB/s$. We introduce our concept for a readout system fulfilling those requirements and discuss results from a test run at the CERN-SPS. This work is supported by BMBF ($\rm 05P12RFFC7$), HIC for FAIR, EU-FP7 HadronPhysics3 and GSI. Summary CMOS Monolithic Active Pixel Sensors (MAPS) provide an excellent spatial resolution in the order of few micrometer in combination with a low material budget (50 micrometer thickness have been demonstrated) and high radiation hardness. The active volume of the devices is formed by the epitaxial layer of standard CMOS wafers. This allows the integration of pixels together with analogue and digital data processing circuits on-chip. The MIMOSA-26 MAPS integrates functionalities like pedestal correction, correlated double sampling, discrimination and a data sparsification based on zero suppression combined with a pixel matrix of $2\ \rm cm^2$. The pixel array composed of $576$ lines of $1152$ pixels is read out in a column-parallel rolling-shutter mode. One discriminator per column and the digital data processing circuits are located on the same chip in a $3\ \rm mm$ wide area beneath the pixel matrix allowing for binary hit encoding. This area also contains the circuits for pedestal correction and the configuration memory, which is programmed via JTAG. The preprocessed digital data is read out via two digital $80\ \rm Mbit/s$ data links per sensor, which push their data based on a low-level protocol. The first CBM Micro Vertex Detector (MVD) prototype based on MIMOSA-26 sensors was recently assembled. To study its tracking performance, it is built as a dual-layer micro-tracking device with four additional sensors arranged in a line as a beam telescope device. The micro-tracker is sandwiched by two reference stations, again based on the same sensor type, on both sides, respectively. The results demonstrate a detection efficiency above $98.5\%$ and a spatial resolution below $3.8$ micrometer for a high-energy pion beam at the SPS. In the context of the CBM-MVD prototype project, we developed a scalable and free-running DAQ system which allows to steer and to operate multiple MIMOSA-26 sensors. Both, the sensor control and the data management was carried out by TRBv2 boards developed by the HADES collaboration, which were complemented with general-purpose add-on cards. Among the functionalities realized in the FPGAs of those boards were data reduction, quality monitoring, data transportation and slow control of the freely running sensors. The data was time stamped and transferred via $2\ \rm Gbit/s$ optical links to a local computer. In this setup the total bandwidth of the prototype system was $100\ \rm MB/s$, however the highly scalable implementation allows extending this limit with additional hardware as needed. Furthermore, the modular design of the FPGA firmware supports also newer MIMOSA generations, e.g. MIMOSA-28 as used in the STAR detector and MISTRAL which is currently under development for ALICE. The beam test at the CERN-SPS validated our design choices and the system could be operated synchronously and dead-time free for several days. A procedure to keep the sensors synchronous even under stress conditions was successfully tested. We introduce the concept of the DAQ system of the CBM-MVD and show beam test results demonstrating the capability of the concept to operate sizable detector systems based on CMOS MAPS. We additionally discuss recent improvements to further increase the system performance. Primary Authors: MILANOVIC, Borislav (Goethe University Frankfurt am Main, Institute of Nuclear Physics (IKF)) <b.milanovic(a)gsi.de> Co-authors: Abstract presenters: MILANOVIC, Borislav Track classification: Data-processing: 3b) Trigger and Data Acquisition Systems Presentation type: Oral Comments:

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[Tipp2014] [Indico] New abstract submission: TOSI, Nicolo
by noreply-indico-team＠cern.ch 19 Feb '14

19 Feb '14

The following email has been sent to TOSI, Nicolo: === Dear Nicolo Tosi, The submission of your abstract has been successfully processed. Abstract submitted: <https://indico.cern.ch/event/192695/call-for- abstracts/my-abstracts>. Status of your abstract: <https://indico.cern.ch/event/192695/call- for-abstracts/244/>. See below a detailed summary of your submitted abstract: Conference: Tipp 2014 - Third International Conference on Technology and Instrumentation in Particle Physics Submitted by: TOSI, Nicolo Submitted on: 19 February 2014 09:47 Title: Electronics and Calibration system for the CMS Beam Halo Monitor Abstract content In the context of increasing luminosity of LHC, it will be important to accurately measure the Machine Induced Background. A new monitoring system will be installed in the CMS cavern for measuring the beam background at high radius. This detector is composed of synthetic quartz Cherenkov radiators, coupled to fast photomultiplier tubes (PMT). The readout chain of this detector will make use of many components developed for the Phase 1 upgrade to the CMS Hadron Calorimeter electronics, with a dedicated firmware and readout adapted to the beam monitoring requirements. The PMT signal will be digitized by a charge integrating ASIC (QIE10), providing both the signal rise time and the charge integrated over one bunch crossing.The backend electronics will record bunch-by-bunch histograms, which will be published to CMS and the LHC using the newly designed CMS beam instrumentation specific DAQ. A calibration monitoring system has been designed to generate triggered pulses of light to monitor the efficiency of the system. The detector system, and in particular, the validation of the electronics choices with measurements will be presented. Summary Primary Authors: TOSI, Nicolo (Universita e INFN Bologna (IT)) <nicolo.tosi(a)cern.ch> DABROWSKI, Anne (CERN) <anne.evelyn.dabrowski(a)cern.ch> ORFANELLI, Stella (National Technical Univ. of Athens (GR)) <styliani.orfanelli(a)cern.ch> LOOS, Robert (CERN) <robert.loos(a)cern.ch> FINKEL, Alexey (University of Minnesota (US)) <alexeyfinkel01(a)gmail.com> RUSACK, Roger (University of Minnesota (US)) <roger.rusack(a)cern.ch> STICKLAND, David Peter (Princeton University (US)) <david.peter.stickland(a)cern.ch> FABBRI, Fabrizio (INFN - Bologna) <fabrizio.fabbri(a)bo.infn.it> MONTANARI, Alessandro (INFN-Bologna) <alessandro.montanari(a)bo.infn.it> Co-authors: Abstract presenters: TOSI, Nicolo Track classification: Data-processing: 3b) Trigger and Data Acquisition Systems Presentation type: Oral Comments:

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[Tipp2014] [Indico] New abstract submission: IVANOVA, Alina
by noreply-indico-team＠cern.ch 19 Feb '14

19 Feb '14

The following email has been sent to IVANOVA, Alina: === Dear Alina Ivanova, The submission of your abstract has been successfully processed. Abstract submitted: <https://indico.cern.ch/event/192695/call-for- abstracts/my-abstracts>. Status of your abstract: <https://indico.cern.ch/event/192695/call- for-abstracts/243/>. See below a detailed summary of your submitted abstract: Conference: Tipp 2014 - Third International Conference on Technology and Instrumentation in Particle Physics Submitted by: IVANOVA, Alina Submitted on: 19 February 2014 09:13 Title: Real Time Pulse Analyzer for ITER Vertical Neutron Camera Abstract content The International Thermonuclear Experiment Reactor (ITER) is a large-scale scientiﬁc experiment intended to prove the viability of fusion as an energy source, and to collect the data necessary for the design and subsequent operation of the ﬁrst electricity-producing fusion power plant. ITER is an experimental nuclear reactor operating with a magnetic toroidal ﬁeld of 5.3 T, plasma current of 15 MA, pulse duration up to 500 s and producing up to 700 MW fusion power. It is aimed to demonstrate the feasibility of nuclear fusion realization generating DD and DT fusion reactions with characteristic neutrons 2.5 and 14 MeV. The neutron emission profile is measured Vertical Neutron Camera (VNC). ITER VNC requires: 12-bit digitizer with sampling rate from 250 MHz to 1 GHz; count rate up to $10^7$ events/s; on-line digital technique for separation and reconstruction pile-up. Taking into account the above-mentioned specifications Digital Multichannel Analyzer for ITER VNC is based on ADC12500PXIe digitizer. It is developed in our workgroup and included into ITER Catalog of I&C products – Fast Controllers (345X28 v2.3). ADC12500PXIe digitizer is a two-channel waveform recorder with reconfigurable data processing unit, based on FPGA. Each measuring channel built on 12-bit ADC with 500 MHz sampling rate and high frequency bandwidth (0-250 MHz) and has programmable gain and zero line position. Data processing unit was configured for Digital Pulse Analyzer (DPA). DPA performs pulse height analysis using on-line algorithms implemented in the FPGA and waveform registration for debugging and monitoring. Pile-up events are detected and reconstructed using several digital processing algorithms, such as triangular or trapezoidal filter. Developed software includes three system levels: Linux device driver, EPICS driver, Human Machine Interface (HMI). The Linux device driver conforms to the standard Linux device model in that you access and control the ADC12500PXIe device and Digital Pulse Analyzer. The driver support library provides all the functionality through a relatively small set of easy to use functions (API) that hide all driver ioctl functions and implementation details. The main purpose of EPICS driver is to interconnect HMI with Linux device driver. HMI provides a graphics-based visualization of spectral and waveform data and control of operating modes. Summary The International Thermonuclear Experiment Reactor (ITER) is a large-scale scientiﬁc experiment intended to prove the viability of fusion as an energy source, and to collect the data necessary for the design and subsequent operation of the ﬁrst electricity-producing fusion power plant. ITER is an experimental nuclear reactor operating with a magnetic toroidal ﬁeld of 5.3 T, plasma current of 15 MA, pulse duration up to 500 s and producing up to 700 MW fusion power. It is aimed to demonstrate the feasibility of nuclear fusion realization generating DD and DT fusion reactions with characteristic neutrons 2.5 and 14 MeV. ITER expected neutron emission from $10^{14}$ up to almost $10^21$ n/s. The neutron emission profile is measured Vertical Neutron Camera (VNC). ITER VNC requires: - all electronic equipment from ITER Catalog of I&C products; - multichannel registration; - common external synchronizing system for all channel registration; - 12-bit digitizer with sampling rate from 250 MHz to 1 GHz; - count rate up to $10^7$ events/s; - on-line digital technique for separation and reconstruction pile-up; - reconfigurable data processing unit. Taking into account the above-mentioned specifications Digital Multichannel Analyzer for ITER VNC is based on ADC12500PXIe digitizer. It is developed in our workgroup and included into ITER Catalog of I&C products – Fast Controllers (345X28 v2.3). ADC12500PXIe digitizer is a two-channel waveform recorder with reconfigurable data processing unit, based on FPGA. Each measuring channel built on 12-bit ADC with 500 MHz sampling rate and high frequency bandwidth (0-250 MHz) and has programmable gain and zero line position. The digital part based on FPGA, data RAM and PCI Express x4 Lane Bridge, initialized by the onboard EPROM. PCI Express Bridge has the possibility of FPGA reconfiguration at any time (inc. during operation) and complies with PCI Express Base Specification 1.1 of data exchange operations between PC and FPGA IP application level. Data processing unit was configured for Digital Pulse Analyzer (DPA). DPA performs pulse height analysis using on-line algorithms implemented in the FPGA and waveform registration for debugging and monitoring. Pile-up events are detected and reconstructed using several digital processing algorithms, such as triangular or trapezoidal filter. Developed software includes three system levels: Linux device driver, EPICS driver, Human Machine Interface (HMI). The Linux device driver conforms to the standard Linux device model in that you access and control the ADC12500PXIe device and Digital Pulse Analyzer. The driver support library provides all the functionality through a relatively small set of easy to use functions (API) that hide all driver ioctl functions and implementation details. The main purpose of EPICS driver is to interconnect HMI with Linux device driver. Human machine interface (HMI) was developed using Control System Studio (CSS – Eclipse-based collection of tools to monitor and operate large-scale control systems). It is based on Java, which allows users to make the program portable between operating systems (Linux, Windows, Mac OS, etc.). HMI provides a graphics-based visualization of spectral and waveform data and control of operating modes. Primary Authors: IVANOVA, Alina (I) <a.a.ivanova(a)inp.nsk.su> Co-authors: Mr. AMOSOV, Vladimir (Troitsk Institute for Innovation and Fusion Research) <amosov(a)triniti.ru> Mr. SKOPINTSEV, Dmitry (Troitsk Institute for Innovation and Fusion Research) <scopintsev.d.a(a)triniti.ru> Dr. KHILCHENKO, Aleksander (Budker Institute of Nuclear Physics) <a.d.khilchenko(a)inp.nsk.su> Mr. KVASHNIN, Andrey (Budker Institute of Nuclear Physics) <kvashnin(a)inp.nsk.su> Mr. ZUBAREV, Peter (Budker Institute of Nuclear Physics) <p.v.zubarev(a)inp.nsk.su> Ms. IVANENKO, Svetlana (Budker Institute of Nuclear Physics) <s.v.ivanenko(a)inp.nsk.su> Mr. KOTELNIKOV, Aleksander (Budker Institute of Nuclear Physics) <al.kotelnikov(a)gmail.com> Ms. PURYGA, Ekaterina (Budker Institute of Nuclear Physics) <e.a.puryga(a)inp.nsk.su> Abstract presenters: IVANOVA, Alina Track classification: Data-processing: 3c) Embedded software Presentation type: Poster Comments:

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