PITZ – Introduction to the Video System Stefan Weiße DESY Zeuthen June 10, 2003.

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Presentation transcript:

PITZ – Introduction to the Video System Stefan Weiße DESY Zeuthen June 10, 2003

DESY Zeuthen2 Introduction to PITZ Video System Agenda 1.Introduction to PITZ 2.Why a video system ? 3.Schematic structure 4.Client/Server architecture 5.Hardware 6.Software 7.Future Prospects

DESY Zeuthen3 Introduction to PITZ Video System Introduction to PITZ Photo Injector Test Facility Zeuthen test facility for free electron lasers and linear colliders goal: emittance of electron bunches -> as little as possible 5 rooms (tunnel, rack room, laser room, control room, klystron hall) video system is a very important diagnostic tool case 1: size and position of the electron bunch or laser beam must be determined case 2: video images used as the basis for further analysis and measurements

DESY Zeuthen4 Introduction to PITZ Video System Introduction to PITZ (2) photoemission at cathode -> electron bunches -> acceleration examination of bunches using diagnostic tools 5 cameras mounted at diagnostic tools 1 camera to directly monitor the laser beam repetition rate of facility 1-10 Hz

DESY Zeuthen5 Introduction to PITZ Video System Why a video system ? radiation inside the experiment hall (tunnel) ability to directly watch (like TV) and to save video data for later analysis (like a camera) electron beam hits fluorescent screen laser beam hits video camera directly –image is acquired at the same time repetition rate same like whole experiment: Hz up to 10 video frames must be acquired, sent, received and analysed each second

DESY Zeuthen6 Introduction to PITZ Video System Schematic Structure Tunnel Rack-Room Control Room / Office video control cameras

DESY Zeuthen7 Introduction to PITZ Video System Why Client/Server ? constructional conditions –analogue camera cables end in rack-room –watching and analysing done in the control room at office of the physicists flexibility –more than one client can watch or analyse the video simultaneously –client program can run offline (using images from disk) connection between server and client: network

DESY Zeuthen8 Introduction to PITZ Video System Hardware and Software - Overview hardware used in the setup –video cameras –framegrabber card –server computer –network software used in the setup –video software (GrabServer 2, Video Client 2, OMA) –slow control software (VideoCamServer, Camera Setup Client)

DESY Zeuthen9 Introduction to PITZ Video System Hardware

DESY Zeuthen10 Introduction to PITZ Video System Cameras used to record laser beam and electron beam for diagnostic purposes required characteristics: –external triggering –full frames (no interlaced video) –resolution 768 x 574 pixels –luminosity signal (no colours), 8 bits per pixel additional characteristics: –parameters (gain, shutter-speed) can be set via RS232 connection JAI M10RS

DESY Zeuthen11 Introduction to PITZ Video System Framegrabber card Coreco Imaging PCVision digitises the video signal characteristics –compatible with M10RS camera –full frames (768 x 574 pixels) –can work up to 10 Hz –luminosity with 8 bits per pixel –4 camera inputs, but only one can be active !

DESY Zeuthen12 Introduction to PITZ Video System Server computer located in the rack-room framegrabber card is located inside computer analogue camera cables end at framegrabber card server applications for acquiring video and controlling camera parameters are running there Microsoft Windows-based OS Windows NT 4

DESY Zeuthen13 Introduction to PITZ Video System Network used to transfer –video frames from server to client –commands from server applications to client applications and vice versa using TINE protocol bandwidth problem –video frames are compressed before they are send out (loss- less compression, ratio about 1:2 - 1:4) –video frames are transferred in multicast mode to save network resources –standard socket connections as backup possible

DESY Zeuthen14 Introduction to PITZ Video System Software 1.GrabServer 2 2.Video Client 2 3.Online Momentum Analysis 4.Slow Control Software

DESY Zeuthen15 Introduction to PITZ Video System GrabServer 2 running on server computer acquires video images from framegrabber card fast loss-less compression of video frames (reduces amount of data by 1:2 - 1:4 on the network) data connection (video images) by 1.streaming sockets (receiving can be implemented almost anywhere) 2.TINE protocol multicast (reduces required network bandwidth and server load)

DESY Zeuthen16 Introduction to PITZ Video System GrabServer 2 continuous analysis can be done on the server –laser spot centre and size can be remotely read out control connections using TINE protocol –switch camera port –clients can download important information (e.g. camera names) client programs: –Video Client 2 –Online Momentum Analysis Tool

DESY Zeuthen17 Introduction to PITZ Video System GrabServer 2

DESY Zeuthen18 Introduction to PITZ Video System Video Client 2 - Basics basic online and offline video analysis of beam spots works in realtime up to 10 Hz on a fast PC with all analysis and filtering functions switched on calculation of spot centre and size based on multiple algorithms DAQ function (readout of experiment‘s parameters to correlate with spot centre and size)

DESY Zeuthen19 Introduction to PITZ Video System Video Client 2 - Analysis modes –straightforward mode (fast, sensitive to noise) –Fourier mode (slow, insensitive to noise)

DESY Zeuthen20 Introduction to PITZ Video System Video Client 2 - Features Features –live and offline processing mode –selectable Area of Interest –Laser power measurement –loading and saving of video images and backgrounds –scale factor to obtain results directly in millimetres (instead of pixels) –printing of video images as well as the whole application window (logbook) –drawing of X and Y projections

DESY Zeuthen21 Introduction to PITZ Video System Video Client 2 - Filtering functions useful functions to improve video quality –advanced background subtraction using multiple algorithms when taking backgrounds –normalisation (amplification of the video image) –X-Ray filtering (cut off small peaks) –false colour mode (improve recognisability of weak signals and signal differences)

DESY Zeuthen22 Introduction to PITZ Video System Video Client 2 - Background subtraction background subtraction of dark current

DESY Zeuthen23 Introduction to PITZ Video System Video Client 2 - Normalisation weak spot normalised (amplified)

DESY Zeuthen24 Introduction to PITZ Video System Video Client 2 - X-Ray filtering unfiltered beam profile filtered beam profile

DESY Zeuthen25 Introduction to PITZ Video System Video Client 2 - False colour mode Grayscale mode False colour mode spot looks very small spot is actually bigger one can better check the intensity

DESY Zeuthen26 Introduction to PITZ Video System Video Client 2 - Screenshot

DESY Zeuthen27 Introduction to PITZ Video System OMA Online Momentum Analysis online measurement of momentum distribution of an electron bunch coming from a photo injector calculation of the mean momentum and momentum spread

DESY Zeuthen28 Introduction to PITZ Video System Slow Control used to remotely set and check parameters of any camera to adjust the quality of the video signal the camera delivers control of gain, shutter speed, setup and white clip level, trigger mode etc. server is connected to cameras using serial ports two clients talk to server via TINE protocol –control system GUI (UNIX) –Slow Control Client (MS Windows)

DESY Zeuthen29 Introduction to PITZ Video System Slow Control Client

DESY Zeuthen30 Introduction to PITZ Video System Control System GUI

DESY Zeuthen31 Introduction to PITZ Video System Future prospects integration of Streak Camera into Video System analyse laser spot tune laser parameters to create more ideal spot analyse tune (feedback)

DESY Zeuthen32 Introduction to PITZ Video System Future prospects (2) laser mirror control system take video image from Virtual Cathode calculate spot centre move mirrors so that the spot is in e.g. always in the middle of the video image corresponding spot on real cathode is always on a defined point

DESY Zeuthen33 Introduction to PITZ Video System Future Prospects (3) radiation hardened cameras –currently used video cameras gets destroyed because of radiation inside the tunnel –shielding with big lead blocks sometimes not possible –new cameras must be selected that are radiation hardened –at the moment: checking selected camera against our requirements is ongoing –based on our investigation there is only one camera that fulfils our requirement of being radiation hardened

DESY Zeuthen34 Introduction to PITZ Video System The End. Thank you for listening. Questions ?