REMOTE IOs for Warm Magnet Interlocks RADIATION TEST

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REMOTE I/Os for Warm Magnet Interlocks RADIATION TEST IN CHARM FACILITY Y. Bastian, C.

REMOTE I/Os for Warm Magnet Interlocks RADIATION TEST IN CHARM FACILITY Y. Bastian, C. von Siebenthal for the WIC team Acknowledgements: J. Mekki, M. Brugger, J. Vidal, J. Arroyo MPE-TM 9/15/2020 Y. Bastian / C. Von Siebenthal 2 / 18

WIC (Warm magnet Interlock Controller) layout • Standard and generic interlock system for normal

WIC (Warm magnet Interlock Controller) layout • Standard and generic interlock system for normal conducting magnets based on PLC: Collects inputs from thermo-switches, flow switches and internal PC faults – Allows/inhibits start of power converter and beam operation – MPE-TM 9/15/2020 Y. Bastian / C. Von Siebenthal 3 / 18

WIC (Warm magnet Interlock Controller) layout • Advantages • • Highly reliable system, long

WIC (Warm magnet Interlock Controller) layout • Advantages • • Highly reliable system, long lifetime Generic HW and SW components, configured to specific application through Controls Config DB Already 32 PLCs/system in operation throughout the complex Challenges • • Most SIEMENS components are not (or only to a very limited extend) radiation tolerant, few remote I/O modules qualified for ~100 Gy for TL installations (TI 2, TI 8, …) Trade off between installation close to the machine (rad tolerant I/Os) and cabling cost (typically already 2/3 of renovation budget) MPE-TM 9/15/2020 Y. Bastian / C. Von Siebenthal 4 / 18

Aim of radiation test campaign • Architecture for new installations/renovations in the injector complex

Aim of radiation test campaign • Architecture for new installations/renovations in the injector complex (e. g. PS) could be greatly simplified/ made cost efficient using a ‘low density’, radiation tolerant remote I/O solution • Easy to install on site/integrate with SIEMENS PLCs/Win. CC • Ideally configurable in order to provide one/few inputs and outputs per connector (magnet) MPE-TM 9/15/2020 PS radiation levels Y. Bastian / C. Von Siebenthal 5 / 18

Module samples under test MURR ELEKTRONIK PHOENIX CONTACT Dimensions : 225 x 63 x

Module samples under test MURR ELEKTRONIK PHOENIX CONTACT Dimensions : 225 x 63 x 42 mm (DIN rail mounting possible) Dimensions : 185 x 60 x 38 mm (DIN rail mounting possible) 24 VDC power supply Consumption : 200 m. A Consumption : 160 m. A I/O : pin 2 input pin 4 input or output I/O entirely configurable IP 67 MPE-TM 9/15/2020 Y. Bastian / C. Von Siebenthal 6 / 18

Module samples under test - Architecture PC = PHOENIX CONTACT ME = MURR ELEKTRONIK

Module samples under test - Architecture PC = PHOENIX CONTACT ME = MURR ELEKTRONIK MPE-TM 9/15/2020 Y. Bastian / C. Von Siebenthal 7 / 18

Module samples under test - Crate • Two crates to be tested • 5

Module samples under test - Crate • Two crates to be tested • 5 PHOENIX and 5 MURR per crate • Independant powered and protected (by fuse) • Remote reset and current measurement for each module Assembled test crates 3 D integration drawings MPE-TM 9/15/2020 Y. Bastian / C. Von Siebenthal 8 / 18

CHARM facility Beam from PS Target Dump CHARM (Cern High energy Accele. Rator Mixed

CHARM facility Beam from PS Target Dump CHARM (Cern High energy Accele. Rator Mixed field facility) MPE-TM 9/15/2020 Y. Bastian / C. Von Siebenthal 9 / 18

CHARM facility MPE-TM 9/15/2020 Y. Bastian / C. Von Siebenthal 10 / 18

CHARM facility MPE-TM 9/15/2020 Y. Bastian / C. Von Siebenthal 10 / 18

CHARM facility – fluency map Beam from PS Area for our test equipment (lower

CHARM facility – fluency map Beam from PS Area for our test equipment (lower exposed area) MPE-TM 9/15/2020 Y. Bastian / C. Von Siebenthal 11 / 18

CHARM facility – Test plan for remote I/Os: Progressive increase of TID over a

CHARM facility – Test plan for remote I/Os: Progressive increase of TID over a 10 days period About 450 Gy TID (Gy) Lower density Aluminium target 0. 5 -1 Gy/h < 0. 5 Gy/h 96 Gy Copper target 3 Gy/h 24 Gy 2 MPE-TM 9/15/2020 5 Y. Bastian / C. Von Siebenthal Time (day) 12 / 18

SW implementation • Specific code base developed for radiation test (fast cycling and readback

SW implementation • Specific code base developed for radiation test (fast cycling and readback of I/Os for detection of SEUs in both logical states) • Used UNICOS framework for SCADA integration • UNICOS (UNified Industrial Control System) is a CERN-made framework to develop industrial control applications. It deals with the two upper layers of a classical control system: Supervision and Control. MPE-TM 9/15/2020 Y. Bastian / C. Von Siebenthal 13 / 18

SCADA system – System overview MPE-TM 9/15/2020 Y. Bastian / C. Von Siebenthal 14

SCADA system – System overview MPE-TM 9/15/2020 Y. Bastian / C. Von Siebenthal 14 / 18

SCADA system – Monitoring and Diagnostics Current consumption of channels vs time MPE-TM 9/15/2020

SCADA system – Monitoring and Diagnostics Current consumption of channels vs time MPE-TM 9/15/2020 Y. Bastian / C. Von Siebenthal 15 / 18

Status of preparation • • • ANALYSIS HARDWARE CABLING SOFTWARE PLC SOFTWARE PVSS TEST

Status of preparation • • • ANALYSIS HARDWARE CABLING SOFTWARE PLC SOFTWARE PVSS TEST BENCH DRY RUN CHARM TEST DATA ANALYSIS MPE-TM 9/15/2020 : : : : : DONE DONE ON GOING SCHEDULED PENDING Y. Bastian / C. Von Siebenthal 16 / 18

Conclusions Test bed for radiation testing of alternative remote I/O modules nearing completion •

Conclusions Test bed for radiation testing of alternative remote I/O modules nearing completion • Software stack developed based on UNICOS toolbox • Aiming at 2 ~one week test campaigns (June and July/August 2015) • If successful, alternative remote I/O modules would provide interesting option for resource and cost efficient renovation of injector chain • MPE-TM 9/15/2020 Y. Bastian / C. Von Siebenthal 17 / 18

Thanks for your attention! MPE-TM 9/15/2020 Y. Bastian / C. Von Siebenthal 18 /

Thanks for your attention! MPE-TM 9/15/2020 Y. Bastian / C. Von Siebenthal 18 / 18