CIET Generation Process in UAB Technical Committee

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Presentation transcript:

CIET Generation Process in UAB Technical Committee CIET: Cryogenics Instrumentation Expert Tool UAB: Unicos Application Builder Adrien CHIRON 26/11/2012

CIET CIET: Cryogenics Instrumentation Expert Tool An application allowing Cryogenics Instrument Engineers to configure & diagnose their signal conditioners based on in-house rad-tol electronics.

Overview UAB CPC plugin UAB CIET plugin Cryo Control Cryo Configuration WinCC OA (UNICOS) (CPC package) WinCC OA (UNICOS) (CIET package) PLC (UCPC) IEPLC FEC (FESA) WFip Agent Agent Agent Cryogenics Instrumentation

CIET components WinCC OA: CIET package FEC: FESA application IEPLC UNICOS based Front-end & Devices FEC: FESA application Devices: Classes TT, PT, LT, EH, DI, AGT, SGT and SGTPLC Format: binary + xml files (instances) IEPLC Configuration PLC files One Fesa class

What is the generator for? Automatically generate all Fesa instances IEPLC files importation line for PVSS for one application per spec file definition.

INPUT OUTPUTS (…) LTDeviceData.xml PTDeviceData.xml TTDeviceData.xml Utilities CIET UAB Core LTDeviceData.xml PTDeviceData.xml TTDeviceData.xml IEPLC files OUTPUTS PVSS files (…)

Why incorporate the generator in UAB? Unified approach with CPC (Continuous Process Control). Benefit from existing UAB framework. Whole API (java part and python part).

Some constraints due to UAB: With the previous generator, we did not have formalized types (The device types). The specification header was done by hand but now this header has to be done respecting some UAB requirements.

Creation of the spec file header Generated automatically by a UAB tool called TCT according to the Device Type Definition files Utilities TCT UAB Core Specification header TT PT LT EH

Summary of Complete Process Preliminary step (once): Unicos Metamodel Specification header Utilities TCT UAB Core EHDevice Type definition LT Device Type definition PT Device Type definition TT Device Type definition TT PT LT EH Generation step (as many times as specification files): Fill the spec IEPLC files Outputs TT PT LT EH Specification A 12 45 LD ll 33 true false 123 5 2 W B 12 45 LD JJ 3 false false 123 5 29 W IEPLC files Utilities CIET UAB Core WinCC OA Importation line OR LTDeviceData.xml 10

Summary of Complete Process Preliminary step (once): Fesa Metamodel Unicos Metamodel Specification header XSLT sheet Utilities TCT UAB Core EH Fesa class EHDevice Type definition LT Fesa Class LT Device Type definition PT Fesa Class PT Device Type definition TT Fesa Class TT Device Type definition TT PT LT EH Generation step (as many times as specification files): Fill the spec IEPLC files Outputs TT PT LT EH Specification A 12 45 LD ll 33 true false 123 5 2 W B 12 45 LD JJ 3 false false 123 5 29 W IEPLC files Utilities CIET UAB Core WinCC OA Importation line OR LTDeviceData.xml 11

How I created the Device Type Definition? Convert Fesa Class for each device to a Device Type Definition compatible with UAB. Transformation rules in XSLT (and a bit by hand) Fesa Metamodel Unicos Metamodel XSLT sheet EH Fesa class EHDevice Type definition LT Fesa Class LT Device Type definition PT Fesa Class PT Device Type definition TT Fesa Class TT Device Type definition

Details, how to respect UNICOS meta-model? FESA UNICOS Data-field FEDeviceParameters Value-item (set) FEDeviceOutputs Value-item (get) FEDeviceManualRequests

Questions