Pawel Krakowski TE-VSC-ICM LHC R2E for vacuum control systems Vacuum, Surfaces & Coatings Group Technology Department Automation Forum-electronics session,

Slides:



Advertisements
Similar presentations
Future beyond CTF3: ESA/Electron testing January 27 th 2015 CLIC Workshop 2015: Future tests beyond CTF3 January 27 th 2015 Radiation Testing with CALIFES.
Advertisements

Radiation Units & Quantities
My Chapter 29 Lecture.
INFLUENCE OF GAMMA IRRADIATION ON SILICON NITRIDE MIS CAPACITORS AND RADIATION HARDNESS Dr. Ercan YILMAZ Abant Izzet Baysal University Bolu-Turkey.
Plot Approval Yat Long Chan (CUHK) Igor Mandic (Ljubljana) Charlie Young (SLAC)
© Robert Baumann 3/27/2015 TI Information – Selective Disclosure Slide 1/ Future Circular Colliders Conference © Robert Baumann 3/27/2015 Slide.
Danish Space Research Institute Danish Small Satellite Programme FH Space_Environment.ppt Slide # 1 Flemming Hansen MScEE, PhD Technology Manager.
MDT-ASD PRR C. Posch30-Aug-01 1 Radiation Hardness Assurance   Total Ionizing Dose (TID) Change of device (transistor) properties, permanent   Single.
Radiation Effects in Microelectronics EE-698a Course Seminar by Aashish Agrawal.
LHC Beam Dumping system
Mechanical and fluidic integration of scintillating microfluidic channels into detector system 1 Davy Brouzet 10 th September 2014.
Crab Cavities in IR1 and IR5 Some considerations on tunnel integration What will be the situation in the tunnel after the LHC IR Phase-1 Upgrade. What.
TS-LEA, CERN, 1211 Geneva 23 1 T. Wijnands TS/LEA, C. Pignard AB-CORADWG-RADMON day – 1 December 2004 LHC Power Converters & Radiation T. Wijnands TS/LEA.
Radiation Environment at AWAKE Silvia Cipiccia, Eduard Feldbaumer, Helmut Vincke.
R2E Weekly Report status AT/MB/MC – 4 th R2E Project Meeting – 7 th April 2011.
Survey and Alignment Equipment R2E and Availability Workshop – CERN Mateusz Sosin EN/MEF-SU.
INFRASTRUCTURE SYSTEMS & RADIATION EFFECTS J.P. Saraiva (CERN R2E Project) October 14, 2014 R2E & Availability Workshop.
COMPONENT TEST H4IRRAD 15 TH NOVEMBER 2011 G. Spiezia, P. Peronnard, G. Foucard, S. Danzeca, P. Gander, E. Fadakis (EN/STI/ECE)
Jean-Claude Guillaume ATOP Days – CERN, 5 March 2009 Review of irradiated cables in the SPS Part I – Present strategy Jean-Claude Guillaume Cables and.
Radiation effects in devices and technologies
ANALYTICAL X-RAY SAFETY User Training Centre for Environmental Health, Safety and Security Management.
12004 MAPLD: 141Buchner Single Event Effects Testing of the Atmel IEEE1355 Protocol Chip Stephen Buchner 1, Mark Walter 2, Moses McCall 3 and Christian.
Radiation. Ionising Radiation Alpha Radiation Beta Radiation Gamma Rays X-Rays Neutrons.
Centre de Toulouse Radiation interaction with matter 1.
I n t e g r a t e d D e s i g n C e n t e r / M I s s I o n D e s I g n L a b o r a t o r y N A S A G O D D A R D S P A C E F L I G H T C E N T E R Do.
Total Dose Effects on Devices and Circuits - Principles and Limits of Ground Evaluation-
LHC ARC Commissioning report during LS1 Agenda: VRGPE documentation (former VRJGE) Active Penning modification By-Pass Valves modification LHC ARC commissioning.
(1/15) 08/05/13 – RadWG meeting J. Mekki M. Brugger PS East Area Update Outline Layout updates of the facility Conveyer options Mock-up preparation and.
M. Adinolfi – University of Oxford – MAPMT Workshop – Imperial College 27 June Rad-Hard qualification for the LHCb RICH L0 electronics M. Adinolfi.
TRAD, Tests & Radiations 13/09/2011 LHC POWER CONVERTER Radiation analysis.
Radiation Test Facilities G. Spiezia. Engineering Department ENEN Radiation tests facilities  Radiation test in the accelerator sector  External facilities.
Temporary irradiation facility at the CNGS beam D. Mcfarlane, T. Wijnands,
R2E Report M. Brugger for the R2E Study Group RadWG Meeting, August 20 th 2009.
LHC 8:30 meetingEBH 1  Cryogenics recovery in point 8  Meanwhile a couple of accesses:  MKI investigation on noise in IP2  Insulation Vacuum.
Radiation Tolerant Electronics Expected changes Ph. Farthouat, CERN.
TRIUMF and ISIS Test Facilities Radiation 2 Electronics (R2E) LHC Activities TRIUMF and ISIS test facilities Rubén García Alía, Salvatore Danzeca, Adam.
CERN Converter Control Electronics Setting the Scene
Beam Interlock System MPP Internal ReviewB. Puccio17-18 th June 2010.
1 Sector Test – Preparation Layout in LSS7 Jan Uythoven (AB/BT) Thanks to Mike Lamont and the other ‘sector testers’
Numerical signal processing for LVDT reading based on rad tol components Salvatore Danzeca Ph.D. STUDENT (CERN EN/STI/ECE ) Students’ coffee meeting 1/3/2012.
R2E Availability October 15 th 2014 Experience from Past LHC and Injector Operation and scaling to the future G. Spiezia.
Introduction to semiconductor technology. Outline –6 Junctions Metal-semiconductor junctions –6 Field effect transistors JFET and MOS transistors Ideal.
Update on radiation estimates for the CLIC Main and Drive beams Sophie Mallows, Thomas Otto CLIC OMPWG.
PSB H 0 -H - Injection: Sectorisation Analysis C.Pasquino, J. Hansen, P.Chiggiato 1LIU - PSB Ho-H- Injection Meeting.
1 Giuseppe G. Daquino 26 th January 2005 SoFTware Development for Experiments Group Physics Department, CERN Background radiation studies using Geant4.
AWAKE: D2E for Alexey beam properties Silvia Cipiccia, Eduard Feldbaumer, Helmut Vincke DGS/RP.
1 Single event upset test of the voltage limiter for the ATLAS Semiconductor tracker TSL Experiment Number: F151 distance between power supplies and modules.
BLM System R2E and Availability Workshop, B.Dehning 1 Bernd Dehning CERN BE-BI
CODES: component degradation simulation tool ESA Project 22381/09/NL/PA.
Fire and Oxygen Deficiency Detection Systems Risk Analysis S. Grau GS-ASE-Alarm Systems R2E Workshop, Tuesday Session 2: Equipment inventory,
The New Radiation test facility at CERN: CHARM December 8 th 2014 CERN R2E project ESA/CERN meeting - December 8 th 2014 The new radiation tests facility.
R2E/Availability Workshop Report - RadWG October 22 nd 2014 R2E/Availability Workshop 2014 October th 2014 R2E/Availability Workshop RadWG - Brief.
New Irradiation Test Facility : CHARM June 10 th 2014 CERN R2E project CHARM Introduction June 10 th 2014 New CERN Irradiation facility : CHARM !!! Many.
13 th September 2012 – 0v6 Radiation Tolerant Power Converter Controls thanks to: TE/EPC/CC, Y. Thurel, A. Masi, M. Brugger, G. Spiezia.
Planning and strategy for HL-LHC R2E
Integrating part of the ATLAS Radiation Monitor will measure
Irradiation test of Commercial (BASLER) digital cameras
Rad (radiation) Hard Devices used in Space, Military Applications, Nuclear Power in-situ Instrumentation Savanna Krassau 4/21/2017 Abstract: Environments.
Radiation monitoring and follow up during LHC commissioning
Cryo equipment strategy in the R2E context
Feedback on two irradiation testing projects Emergency lights and TETRA system Elisa Guillermain
Material irradiation tests meeting R2M, a spin-off from R2E
RADMON Salvatore Danzeca (EN/STI) on behalf of the R2E Project and RADMON team Thanks to all the RADMON Team!
M. Alcaide Leon, Paolo Fessia
Accelerator and Experiment Interface Session: LS2, LS3
PhD student: Matteo Brucoli - EN/STI/ECE
Control systems plans & activities for HL-LHC during LS2
Collimator Control (SEUs & R2E Outlook)
R2E workshop B. Dehning B.Dehning.
Preliminary Analysis and foreseen actions EN-ICE&EN-STI
Presentation transcript:

Pawel Krakowski TE-VSC-ICM LHC R2E for vacuum control systems Vacuum, Surfaces & Coatings Group Technology Department Automation Forum-electronics session, 6 Nov 2014

Vacuum, Surfaces & Coatings Group Technology Department Types of ionizing radiation Radiation levels in LHC Radiation effects on electronics Vacuum controls exposed to radiation LHC R2E activities 2 Introduction Pawel KrakowskiAutomation Forum-electronics session 11/06/2014

Vacuum, Surfaces & Coatings Group Technology Department 3 Pawel Krakowski Types of Ionizing radiation Bq [s -1 ] the quantity of radioactive material that decays per second Fluence [cm -2 ∙y -1 ] (HEH – High Energy Hadron) the total number of particles that intersect a unit area in a specific time interval of interest. Gy [J∙kg -1 ] (Dose) the absorption of one joule of radiation energy by one kilogram of matter Sv [J∙kg -1 ] the health effect of low levels of ionizing radiation on the human body. Depends on the type of radiation. How many apples will fall on this area in a year? The particle Hits received by the sleeper How many apples fall from a tree in time ? Will the headache be the same regardless of the size or weight of the apple? The source Charged particles interact strongly and ionize directly Neutral particles interact less, ionize indirectly, penetrate further Automation Forum-electronics session 11/06/2014

Vacuum, Surfaces & Coatings Group Technology Department Material Damage R2E Cumulative damage R2E Single-Event Effects 4 Pawel Krakowski LHC machine electronics Experiments Protected UJ Shielded RE/UA Tunnel ARCs/LSS Commercial Hardened RadTol Custom Boards +commercial Damage Experiment caverns Earth orbit deep space environment Radiation levels in LHC Automation Forum-electronics session 11/06/2014

Vacuum, Surfaces & Coatings Group Technology Department 5 Accelerator tunnel Underground service areas Mobile equipment LSS : only passive components ARC : some active components Sector valves and ion pumpsPressure gauges Other only used without beam Pumps and gauges Vacuum controls in LHC Pawel KrakowskiAutomation Forum-electronics session 11/06/2014

Vacuum, Surfaces & Coatings Group Technology Department For now all controls in low HEH areas and negligible TID 6 P7 P8P1 P2 P3 P4 P5 P6 RE18UA151 UA27UA23 RE28RE22 UJ32 UJ33 RE38 RE42UA43 UA47RE48 RE52RE58 USC55 UA63 UA67 RE62 RE68 TZ76 UJ76 Patchpanels only RE78 UA83UA87 RE88 RE82 Vacuum controls in service areas Pawel KrakowskiAutomation Forum-electronics session 11/06/2014

Vacuum, Surfaces & Coatings Group Technology Department 7 with HL-LHC TID is negligible all the time HEH fluence will increase by one order of magnitude HEH flux levels in service areas Location RUN-2RUN-3HL-LHC 2015[2016; 2018][2020; 2022][2025; 2035+] HEH Fluence [cm -2 y -1 ] REsshielding as is-1E+062E+064E+068E+06 UA23, UA83 ok, but to be monitored during operation 1E+062E+064E+068E+062E+07 TZ76 (1 st 15m), UA63/67 (behind ducts) UJ33 All Other OK Pawel KrakowskiAutomation Forum-electronics session 11/06/2014

Vacuum, Surfaces & Coatings Group Technology Department 8 Pawel Krakowski Radiation effects Radiation effects on electronics Cumulative accumulating during the whole LHC lifetime, due to the energy deposited by radiation in the electronics Stochastic immediate effects very localized, event induced by a single particle SEE (Single event effects) TID (Total ionizing dose) the dose is deposited by particles passing through the materials constituting the electronic devices. DD (Displacement damage) Transient SEU SEFI Destructive SEL SET SEGR SEBO Automation Forum-electronics session 11/06/2014 MOS Bipolars Optoel. CMOS

Vacuum, Surfaces & Coatings Group Technology Department 9 Pawel Krakowski n Silicon atoms Atomic level Vacancies Frankel defect Displacement damage Defects accumulate and gradually destroy the silicon lattice no charge Automation Forum-electronics session 11/06/2014

Vacuum, Surfaces & Coatings Group Technology Department 10 Pawel Krakowski MOS transistor Source Gate Drain Gate Oxide p-type extra holes SiO insulator Charged particle Charged particle ionize the matter creating electron-hole pairs Radiation effects on electronics n-type extra electrons Automation Forum-electronics session 11/06/2014

Vacuum, Surfaces & Coatings Group Technology Department 11 Pawel Krakowski Radiation effects on electronics electrons collected by junctions create parasitic current SEE (Single Event Effect) holes accumulate and gradually degrade the transistor function TID (Total Ionizing Dose) What can happen after…? Automation Forum-electronics session 11/06/2014

Vacuum, Surfaces & Coatings Group Technology Department 12 Pawel Krakowski Radiation effects on electronics CMOS N N N P P P Parasitic bipolar transistors Latch-Up: causes V DD and GND to short Can result in self-destruction, at best a malfunction requiring a power cycle Automation Forum-electronics session 11/06/2014

Vacuum, Surfaces & Coatings Group Technology Department 13 Pawel Krakowski Radiation effects on electronics TID + DD In time components degrade slowlyThere are no unwanted “stops” The final failure can be predicted Interventions can be planned SEE Electronics can work without any signs of malfunction Gy ∙ y -1 Time HEH [cm -1 ∙y -1 ] Expected life time Failure probability Failures can appear and rapidly increase in frequency Nonzero probability of a failure Destructive failures possible Immediate interventions needed Threshold Automation Forum-electronics session 11/06/2014

Vacuum, Surfaces & Coatings Group Technology Department 14 Pawel Krakowski Requirements for radiation tests Radiation environment Where in the machine the electronics is installed? What levels of radiation are expected? TID (Gy) >1-5 Gy/y HEH (n/cm 2 ) >1E7 n/cm 2 /y Rad-effects of ConcernTest procedureTest Facilities Component classification: component type based technology available expertizes and reports Effects and criticality sample design and irradiation procedure sample readouts and powering best statistics as possible CHARM &Co-60 PSI Fraunhofer other Radiation test in 4 easy steps Automation Forum-electronics session 11/06/2014

Vacuum, Surfaces & Coatings Group Technology Department Equipment installed in radiation environment: Front-end electronics for Pirani and Penning In total 224 connection boxes: 328 active Pirani 328 active Penning 15 Penning Pirani Vacuum controls equipment near ARC dipoles Pawel Krakowski Automation Forum-electronics session 11/06/2014 Pawel Krakowski Automation Forum-electronics session 11/06/2014

Vacuum, Surfaces & Coatings Group Technology Department in order to survive run-2 and run-3 (10 years), electronics must withstand min 80 Gy for another 10 years of HL-LHM, an ~160 Gy must be accounted radiation tests will be done up to max 500Gy [~2 x ( )] to evaluate up to which TID they withstand Samples will be shipped to Fraunhofer Institute by the end of October if they do not withstand next 10 years (run2 + 3), replacement must be foreseen, or an alternative design must be considered 16 Vacuum controls equipment near ARC dipoles RUN HEH Fluence [cm -2 y -1 ] Dose [Gy y -1 ] HEH Fluence [cm -2 y -1 ] Dose [Gy y -1 ] --1E RUN [2016; 2018] HEH Fluence [cm -2 y -1 ] Dose [Gy y -1 ] HEH Fluence [cm -2 y -1 ] Dose [Gy y -1 ] 2E E RUN-3 [2020; 2022] HEH Fluence [cm -2 y -1 ] Dose [Gy y -1 ] 4E HL-LHC [2025; 2035+] HEH Fluence [cm -2 y -1 ] Dose [Gy y -1 ] HEH Fluence [cm -2 y -1 ] Dose [Gy y -1 ] 8E E Pawel KrakowskiAutomation Forum-electronics session 11/06/2014

Vacuum, Surfaces & Coatings Group Technology Department 24VDC power supply for fixed vacuum pumping groups near quadruples running in the presence of beam installed near ARC quadrupoles, and in the LSS near SMs and ITs No data for IT! Specification for the TID/SEE radiation test under preparation Alternative design or relocation must be taken into account 17 Vacuum controls equipment near MQ Location RUN-1RUN-2RUN-3HL-LHC HEH Fluence [cm -2 y -1 ] Dose [Gy y -1 ] HEH Fluence [cm -2 y -1 ] Dose [Gy y -1 ] HEH Fluence [cm -2 y -1 ] Dose [Gy y -1 ] HEH Fluence [cm -2 y -1 ] Dose [Gy y -1 ] HEH Fluence [cm -2 y -1 ] Dose [Gy y -1 ] HEH Fluence [cm -2 y -1 ] Dose [Gy y -1 ] [2016; 2018][2020; 2022][2025; 2035+] ARC MQ 3E E E E E E DS MQ 3E E E E E E DS Worst 5E E E E E E IT ?? ?????????? Pawel KrakowskiAutomation Forum-electronics session 11/06/2014

Vacuum, Surfaces & Coatings Group Technology Department 1. Replacement of 96 Turbo molecular pumps and their controllers. Currently Alcatel ACT250R controller is installed directly under the ARC MQ cryostats, near to the pump installation. 2. Proposed solution: Long cable connection between controller installed in radiation safe areas (alcoves, caverns) and the HiPace 300 pump installed on the cryostat 3. Other options are taken into consideration 18 Options for equipment relocations Pawel KrakowskiAutomation Forum-electronics session 11/06/2014

Vacuum, Surfaces & Coatings Group Technology Department Beam dumps due to vacuum controls failures, induced by radiation : Very small statistics (5 events) 2 Blockings of PLC 3 switching power supplies in valve controllers were burned 19 Failures in P7 before relocation Piquet intervention in P7 EquipmentDate PLC PLC DC Power Supply DC Power Supply DC Power Supply Pawel Krakowski Automation Forum-electronics session 11/06/2014

Vacuum, Surfaces & Coatings Group Technology Department 20 Vacuum equipment relocation in P7 Pawel Krakowski 48 patch panels installed in UJ76 8 of 27 existing racks used patch panel groups the same equipment ~ 280 cables extended from the UJ76 to the TZ76 by a maximum length of ~180m Automation Forum-electronics session 11/06/2014

Vacuum, Surfaces & Coatings Group Technology Department 21 All equipment relocated to TZ76 corridor ~200 new interracks cables installed The closest Vacuum rack is located more than 100 m from UJ76 access doors, where the flux is < 1E+6 [cm -2 y -1 ] Considered as safe for electronics Pawel Krakowski Safe Not safe Relocation Old installation ~100 m Pawel Krakowski Automation Forum-electronics session 11/06/2014 UJ access door 15 m HEH 1% Vacuum equipment relocation in P7

Vacuum, Surfaces & Coatings Group Technology Department Problems not solved by P7 relocation 22 source of fluctuations in Penning readings in LSS7 HV cable ? gauge ? controller? Pawel KrakowskiAutomation Forum-electronics session 11/06/2014

Vacuum, Surfaces & Coatings Group Technology Department 23 Pawel Krakowski Thank you for the attention Automation Forum-electronics session 11/06/2014