1. Slow Control Activities in FZ Jülich H. Kleines, F. Suxdorf,, K. Zwoll Zentrallabor für Elektronik (ZEL), Forschungszentrum Jülich –What is ZEL? –Industrial Automation in Experiment Control –Example 1: Neutron Scattering –Example 2: Target Control –Future Activities / Cooperation with GSI

2. Who are we? Zentrallabor für Elektronik (ZEL): Central electronics facility of FZ Jülich ~80 Employees Work Areas: –Experiment Control Systems –Data Acquisition Systems –Detector Systems –New Field: Medical Systems ZEL is a systems house for FZ Jülich: –System design –Software development –Hardware development –Integration

3. Slow Control Extreme heterogenity –Experiment size –Application area –Technologies pre-selected by experimentator Technologies –Labview, SCADA, Scripting (python), Java, C++ (Qt) –TACO, OPC, Corba –Ethernet, PROFIBUS, CANopen, AS-Interface, GPIB “Professional” systems: Industrial Automation Equipment in Front End –PLCs –Fieldbusses –Decentral Periphery

4. PLCs in Experiment Control Systems PLCs are well established in infrastructure systems -low prices induced by mass market -robustness -long term availability and support from manufacturer Increasingly being used in experiment control systems -Powerful development tools -Strong communication capabilities: decentral peripherie (ET200S,..), dedicated CPUs for subtasks -Real time features IEC1131: Just a standardisation framework World market leader: Siemens => ZEL uses almost exclusively Siemens equipment

5. Simatic S7 PLC Family high end: S7-400 Ethernet, MPI, PROFIBUS mini: S7-200 mini: IM151/CPU OP + S7-300: C7SoftPLC: WinAC Decentral Pheriphery: ET200L, ET200S,...... PROFIBUS + AS-Interface AS-Interface mid range: S7-300 Homogenous powerful programming environment: Step7 (IL,LD,FBD,ST,...) High modularity, scalability, extendability Advanced communication capabilities => distributed systems

6. Example1: Neutron Scattering SANS Experiments at FRJII Juelich-Munich Standard: –Middleware: TACO (Linux) –Application: Scripting + GUI Front-End: totally PLC-controlled –Ca. 25 mechanical axes –Vaccuum system –Interlocks (beam shutter,….)

7. Control System Architecture of KWS1

8. Control System Architecture of KWS3

9. ZEL’s PROFIBUS HW + SW DP masters DP slaves PCI, cPCI, VME Linux SW –device driver –dialog system –configurator

10. Example 2: Atomic Beam Source Protons DISSOCIATOR COOLPAK MAGNETS RF Units MAGNETS H 2, D 2 internal gas target for ANKE (COSY) polarized atomic beam(H oder D) dissociation by plasma discharge polarisation by inhomogenous fields integrated diagnostics (polarimeter,..) ~ 700 I/O points Architecture PC-based process control system SCADA: WinCC PLC-based front-end: Communication: PROFIBUS DP

11. Control System Architecture

12. Future Activities PROFInet –Ethernet based access to industrial equipment –DCOM-based + real time stack –Complete engineering model EPICS: for experiments at the SNS, Oak Ridge Cooperation with GSI: –Key Know How in Industrial Automation + Integration –Restrictions: “Programmorientierte Förderung in der HGF” –~12 ZEL people in POF program “Hadronen-Physik” under responsibility of institute IKP –Discussion with IKP: Major contribution of ZEL to GSI project (DAQ and slow control)