1
Data Flow • Three-tiered network security structure enables easy and reliable access to internal monitoring data • Green zone (private) can only be accessed onsite or through VPN. Underground servers on the private network interface directly with hardware • These servers collect log files from various systems (e.g. Radon Monitoring, Detector Calibration System, Thermometers, Pulse Tubes, etc) • Nagios monitors servers and key processes on the CUORE networks: 18 hosts, 159 services • Orange zone (DMZ) provides an isolated and controlled interface between the private network and all public networks. Mostly comprised of above-ground servers • If DMZ servers are compromised, private servers are unaffected • New data is written into a MongoDB Database, which is then presented on the front-end • The CUORE gateway public machine allows access to various services in the orange zone network, including the CORC slow monitoring interface Slow Monitoring Systems for CUORE Suryabrata Dutta* for the CUORE Collaboration *Wright Laboratory, Department of Physics, Yale University, New Haven, CT 06520 Introduction • The Cryogenic Underground Observatory for Rare Events (CUORE) is a neutrinoless double-beta decay experiment currently under construction at the Laboratori Nazionali del Gran Sasso (LNGS). • The experiment is comprised of 988 TeO 2 bolometric crystals arranged into 19 towers and operated at a temperature of 10 mK. The active mass of the detector is 206 kg. • We have developed slow monitoring systems to monitor the cryostat during detector installation, commissioning, data taking, and other crucial phases of the experiment. Acknowledgements • Thank you to Prof. Reina Maruyama, Prof. Karsten Heeger , Dr. Laura Gladstone, and the entire CUORE Collaboration for providing mentorship and assistance. • Thank you to Yale University for funding my research through the Alan S. Tetelman Fellowship for International Research in the Sciences Monitoring Shifters • Onsite shifters maintain direct communication with workers in detector cleanroom and the rest of the collaboration. Also responsible for maintaining monitoring systems and recording all pertinent ongoing activities on the cryostat • Remote shifters maintain 24/7 monitoring of cryostat activities to assist onsite shifters and ensure rapid response in case of emergencies • ELOG checksheets utilized by both shifters to maintain active record Cryostat LabVIEW Control • Sound-enabled alarms connected to LabVIEW Monitors for particle count, radon levels, radon abatement, and backup power and water • Viewed by onsite and remote shifters, and by cleanroom workers to ensure rapid response and safety Detector Cleanroom Green Zone (Private) Orange Zone (DMZ) Public [email protected] | Prepared for the APS DNP Meeting, Fall 2016 Cleanroom Network Cameras Streaming and Broadcasting Slow Monitoring Server and Website Slow Monitoring MongoDB Database LabVIEW VI’s LabVIEW Log Files Nagios Server Monitoring IP Cameras and Streaming • Two high-resolution Axis Network Cameras inside detector cleanroom • Onsite and remote shifters can adjust alignment and settings on web interface • Streams rebroadcasted through DMZ monitoring server using VLC, and displayed on website for collaboration-wide access • Streams recorded and stored on a NAS server within the green zone (private) for documentation and protection • Implemented and used for detector installation CORC Interface • CORC: CUORE Online Run Control • Web interface to monitor CUORE systems, containing Slow Monitoring plots, channel and run information, automatic and manual flags for problematic data, remote shifter monitoring interface, and alarms • Fully responsive and built with jQuery, Angular, and Bootstrap frameworks • Slow Monitoring Plots: displays data from Mongo DB with interactive GUI, enables aggregation of information from various independent systems • Remote Shifter Interface: contains LabVIEW Control Panel, rebroadcasted cleanroom video streams, and nitrogen level monitor Cleanroom Network Cameras Recordings

Slow Monitoring Systems for CUORE - CUORE at Yale · [email protected] | Prepared for the APS DNP Meeting, Fall 2016 Cleanroom Network Cameras Streaming and Broadcasting Slow

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Page 1: Slow Monitoring Systems for CUORE - CUORE at Yale · suryabrata.dutta@yale.edu | Prepared for the APS DNP Meeting, Fall 2016 Cleanroom Network Cameras Streaming and Broadcasting Slow

Data Flow• Underground Private Servers collect .csv or text log files

• Bullet Two

• Bullet Three

• Bullet Four

Data Flow• Three-tiered network security structure enables easy and

reliable access to internal monitoring data

• Green zone (private) can only be accessed onsite or through VPN. Underground servers on the private network interface directly with hardware

• These servers collect log files from various systems (e.g. Radon Monitoring, Detector Calibration System, Thermometers, Pulse Tubes, etc)

• Nagios monitors servers and key processes on the CUORE networks: 18 hosts, 159 services

• Orange zone (DMZ) provides an isolated and controlled interface between the private network and all public networks. Mostly comprised of above-ground servers

• If DMZ servers are compromised, private servers are unaffected

• New data is written into a MongoDB Database, which is then presented on the front-end

• The CUORE gateway public machine allows access to various services in the orange zone network, including the CORC slow monitoring interface

Slow Monitoring Systems for CUORESuryabrata Dutta* for the CUORE Collaboration

*Wright Laboratory, Department of Physics, Yale University, New Haven, CT 06520

Introduction• The Cryogenic Underground Observatory for Rare Events (CUORE) is a neutrinoless

double-beta decay experiment currently under construction at the Laboratori Nazionali del Gran Sasso (LNGS).

• The experiment is comprised of 988 TeO2 bolometric crystals arranged into 19 towers and operated at a temperature of 10 mK. The active mass of the detector is 206 kg.

• We have developed slow monitoring systems to monitor the cryostat during detector installation, commissioning, data taking, and other crucial phases of the experiment.

Acknowledgements• Thank you to Prof. Reina Maruyama, Prof. Karsten Heeger, Dr. Laura Gladstone, and the

entire CUORE Collaboration for providing mentorship and assistance.• Thank you to Yale University for funding my research through the Alan S. Tetelman

Fellowship for International Research in the Sciences

Monitoring Shifters• Onsite shifters maintain direct communication with workers in detector

cleanroom and the rest of the collaboration. Also responsible for maintaining monitoring systems and recording all pertinent ongoing activities on the cryostat

• Remote shifters maintain 24/7 monitoring of cryostat activities to assist onsite shifters and ensure rapid response in case of emergencies

• ELOG checksheets utilized by both shifters to maintain active record

Cryostat

LabVIEW Control• Sound-enabled alarms connected to

LabVIEW Monitors for particle count, radon levels, radon abatement, and backup power and water

• Viewed by onsite and remote shifters, and by cleanroom workers to ensure rapid response and safety

DetectorCleanroom

Green Zone (Private) Orange Zone (DMZ) Public

[email protected] | Prepared for the APS DNP Meeting, Fall 2016

Cleanroom Network CamerasStreaming and Broadcasting

Slow MonitoringServer and Website

Slow MonitoringMongoDB Database

LabVIEW VI’s LabVIEW Log Files

Nagios Server Monitoring

IP Cameras and Streaming• Two high-resolution Axis Network Cameras

inside detector cleanroom

• Onsite and remote shifters can adjust alignment and settings on web interface

• Streams rebroadcasted through DMZ monitoring server using VLC, and displayed on website for collaboration-wide access

• Streams recorded and stored on a NAS server within the green zone (private) for documentation and protection

• Implemented and used for detector installation

CORC Interface• CORC: CUORE Online Run Control

• Web interface to monitor CUORE systems, containing Slow Monitoring plots, channel and run information, automatic and manual flags for problematic data, remote shifter monitoring interface, and alarms

• Fully responsive and built with jQuery, Angular, and Bootstrap frameworks

• Slow Monitoring Plots: displays data from Mongo DB with interactive GUI, enables aggregation of information from various independent systems

• Remote Shifter Interface: contains LabVIEW Control Panel, rebroadcasted cleanroom video streams, and nitrogen level monitor

Cleanroom Network CamerasRecordings