Solar-B EIS Preliminary Design Review 6-7 July 2000 CCD Camera Design Chris McFee Mullard Space Science Laboratory.

Slides:



Advertisements
Similar presentations
Toolkit for testing CCD cameras
Advertisements

EIS/Solar-B: 3. Electrical Interface to MDP EISMDP PIM HK PIM DHU DR analog data (temperature, current, etc.) S/C bus image compression status data command.
000509EISPDR_SciInvGIs.1 EIS Performance and Operations Louise Harra Mullard Space Science Laboratory University College London.
1 Konstantin Stefanov, CCLRC Rutherford Appleton Laboratory LCFI Status Report: Sensors for the ILC Konstantin Stefanov CCLRC Rutherford Appleton Laboratory.
LCFI Collaboration Status Report LCWS 2004 Paris Joel Goldstein for the LCFI Collaboration Bristol, Lancaster, Liverpool, Oxford, RAL.
Controller Tests Stephen Kaye Controller Test Motivation Testing the controller before the next generation helps to shake out any remaining.
Interfacing to the Analog World
The group is developing readout electronics for initial use with the prototype test-stand at Fermilab. This work will contribute towards the design and.
HIPPO, a Flexible Front-End Signal Processor for High-Speed Image Sensor Readout Carl Grace, Dario Gnani, Jean-Pierre Walder, and Bob Zheng June 10, 2011.
Flex Circuit Design for CCD Application ECEN 5004 Jon Mah.
The Industry’s Smallest 16 Bit ADC’s
Plato at ASI Tues 05/May/09Dave Walton Plato meeting Rome Tues 5/May/09 Focal Plane Dave Walton UCL/MSSL, + Leicester University Miguel Mas INTA/CAB +
Parameters to choose the CCD The CCD test bench *Temperature range : -55 to +40°C. *Stabilization : < 0.05°C/hour. *5 temperature probes : CCD and electronics.
CHARGE COUPLING TRUE CDS PIXEL PROCESSING True CDS CMOS pixel noise data 2.8 e- CMOS photon transfer.
Astronomical Array Control & Acquisition System at NAOC Zhaowang Zhao Binxun Ye Research Labs for Astronomy National Astronomical Observatories, Chinese.
DC Characterization of CCD-Based Detectors for Use in Multi-Chip Focal Plane Arrays SDW 2005 June 2005, R. PhilbrickBall Aerospace & Technologies Corp.
SDW20051 Vincent Lapeyrère LESIA – Observatoire de Paris Calibration of flight model CCDs for CoRoT mission.
From CCD to EMCCD Scientific imaging for today’s microscopy.
Science Specification Table 12 keV keV for neutral particles 40.5 cm 2 image plane Electronic Noise 3 keV FWHM Proton Dead Layer
SDW2005, juin, Taormina The Corot Space instrument.
1D or 2D array of photosensors can record optical images projected onto it by lens system. Individual photosensor in an imaging array is called pixel.
Charge-Coupled Device (CCD)
Manfred Meyer & IDT & ODT 15 Okt Detectors for Astronomy 2009, ESO Garching, Okt Detector Data Acquisition Hardware Designs.
NeSSI Update An Implementation of the Generation 2 Bus Siemens Activities November 2006.
UVP BioImaging Systems Solutions for the Science of Life Digital CCD Cameras 101.
Overview of Scientific Imaging using CCD Arrays Jaal Ghandhi Mechanical Engineering Univ. of Wisconsin-Madison.
DES Collaboration Meeting, Chicago, December 11-13, 2006 T. Shaw1 DES Collaboration Meeting Front End Electronics Status T. Shaw, D. Huffman, M. Kozlovsky,
David MacNair POWER SUPPLY 3/30/20061 Ethernet Power Supply Controller.
CCD and CCD readout : Engineering diagnostics during development, commissioning and operation Pierre Antilogus C. Juramy, H.Lebbolo, S. Russo, V.Tocut.
Eddington Kick-Off. Vienna, September 17th, 2001 T.Muñoz/C.Laviada (INTA) 1 EddiCam: The Eddington Photometric Camera Preliminary Design Layout.
1st Eddington Workshop. Córdoba, June 14th, 2001 J. Miguel Mas-Hesse 1 EddiCam: The Eddington Photometric Camera Preliminary design.
Development of Readout ASIC for FPCCD Vertex Detector 01 October 2009 Kennosuke.Itagaki Tohoku University.
[1] Reference: QCam API reference manual document version Charge Coupled Device (CCD)
ISUAL Sprite Imager Electronic Design Stewart Harris.
Readout Electronics: SIDECAR ASIC Hardware
Advanced Concepts & Science Payloads Office Eddicam/EST MeetingPage 1 CCD Procurement Schedule driven Review off-the shelf availability Specific mode of.
Electronics for PS and LHC transformers Grzegorz Kasprowicz Supervisor: David Belohrad AB-BDI-PI Technical student report.
The Field Camera Unit Project definition, organization, planning S. Scuderi INAF – Catania.
1 COROT WEAEK Meudon May The CCD performances by Miss Pernelle Bernardi Mr Tristan Buey and the CCD team on stage Régis Schmidt, Bertrand le.
Pinewood Derby Timing System Using a Line-Scan Camera Rob Ostrye Class of 2006 Prof. Rudko.
CCDs in space: the effects of radiation on Hubble’s Advanced Camera for Surveys (ACS) Max Mutchler, David Golimowski (Space Telescope Science Institute),
LSST Electronics Review – BNL, January LSST Electronics Review BNL January Power & Voltage Plan R. Van Berg Electronics Mini-Review.
Measurement Results Detector concept works! Flood fields show MCP fixed pattern noise that divides out Spatial resolution consistent with theory (Nyqvist.
Position sensing in Adaptive Optics Christopher Saunter Durham University Centre for Advanced Instrumentation Durham Smart Imaging.
Development of CCDs and Relevant Electronics for the X-ray CCD camera of the MAXI Experiment onboard the International Space Station Osaka University E.
Seminar ON SMART SENSOR Submitted by : SUBIR KUMAR GHOSH Roll No. IN-14/04 Electrical & Instrumentation Deptt. B.E 7th Semester JORHAT ENGINEERING COLLEGE,
Leo Greiner IPHC meeting HFT PIXEL DAQ Prototype Testing.
LCFI Collaboration Status Report LCUK Meeting Oxford, 29/1/2004 Joel Goldstein for the LCFI Collaboration Bristol, Lancaster, Liverpool, Oxford, QMUL,
Performances of the COROT CCDs for high accuracy photometry Pernelle Bernardi and the CCD team From Meudon : Tristan Buey, Vincent Lapeyrere, Régis Schmidt,
1 CPC2-CPR2 Assemblies Testing Status Tim Woolliscroft.
Detectors for Light Sources Contribution to the eXtreme Data Workshop of Nicola Tartoni Diamond Light Source.
10/26/20151 Observational Astrophysics I Astronomical detectors Kitchin pp
LSST Electronics Review – BNL, January LSST Electronics Review BNL January Electronics Development Plan Goals and Plans for
Plato meeting MSSL Wed+Thur 15+16/Oct/08 UK interests/activities Alan Smith and Dave Walton UCL/MSSL.
Brazilian Tunable Filter Imager (BTFI) Preliminary Design Review (PDR)‏ USP-IAG Universidade de São Paulo 18-19th June 2008 Julian David Rodriguez Javier.
Observational Astrophysics I
Alexei SemenovGeneric Digitizer Generic Digitizer 10MHZ 16 bit 6U VME Board.
Sensor testing and validation plans for Phase-1 and Ultimate IPHC_HFT 06/15/ LG1.
Compilation of Dis-/Advantages of DC-DC Conversion Schemes Power Task Force Meeting December 16 th, 2008 Katja Klein 1. Physikalisches Institut B RWTH.
The InGaAs IR Array of Chunghwa Telecom Laboratory Chueh-Jen Lin and Shiang-Yu Wang, Optics and Infrared Laboratory In 2006, Advanced Technology Laboratory.
1 CPC2-CPR2 Assemblies Testing Status Charge Amplifiers –Attempts to make them work Best voltage single channel 2MHz Cluster finding first.
STIS STATUS Charles Proffitt TIPs May 21, STIS Status - Status of Repair Results of FT Amp B Bias Anomaly Changes to SMOV Plan.
ASIC Development for Vertex Detector ’07 6/14 Y. Takubo (Tohoku university)
Hawkeye CCD University
Readout controller Block Diagram S. Hansen - CD-1 Lehman Review1 VXO Ø Det Links to 24 SiPM Front End Boards Clock Event Data USB ARM uC A D Rd Wrt 100Mbit.
Comparison of a CCD and the Vanilla CMOS APS for Soft X-ray Diffraction Graeme Stewart a, R. Bates a, A. Blue a, A. Clark c, S. Dhesi b, D. Maneuski a,
EI205 Lecture 13 Dianguang Ma Fall 2008.
Chapter 13 Linear-Digital ICs
BESIII EMC electronics
Turning photons into bits in the cold
Presentation transcript:

Solar-B EIS Preliminary Design Review 6-7 July 2000 CCD Camera Design Chris McFee Mullard Space Science Laboratory

Solar-B EIS Preliminary Design Review 6-7 July 2000 Introduction Science drivers for CCD camera design; CCD features; Camera Mechanical Design; Camera Electronic Design; Camera Design Trade Offs; Challenges; Test Plan and Facilities;

Solar-B EIS Preliminary Design Review 6-7 July 2000 CCD Camera Assembly The Camera Assembly consists of: Focal Plane Assembly (FPA). –Two CCDs at focal plane; –Mechanical mounting of CCDs at focal plane; Read Out Electronics. Three Flight Model CCDs procured with option for further CCDs. Three Engineering models and six Commercial Devices.

Solar-B EIS Preliminary Design Review 6-7 July 2000 CCD Camera Requirements HeadingRequirementCamera Implications Spectral resolutionHighCCD pixel size 13.5µm. Minimisation of charge transfer inefficiency. Minimisation of the effects of radiation induced dark noise. Spatial resolutionEqual to or less than 2CCD pixel size 13.5µm.

Solar-B EIS Preliminary Design Review 6-7 July 2000 CCD Camera Requirements HeadingRequirementCamera implications Temporal Resolution High temporal resolution for both imaging and spectroscopy Readout speed of 500 kpixels/s. On chip windowing. Provision of dump drain. Wavelength rangeTwo wavelength ranges Two CCDs. Backthinned to maximise QE

Solar-B EIS Preliminary Design Review 6-7 July 2000 CCD Camera Requirements HeadingRequirementCamera Implications Read outRead out fractions of the CCD Windowing will be implemented Read out in fractions of a second Readout speed of 500 kpixels/s On chip windowing Provision of dump drain

Solar-B EIS Preliminary Design Review 6-7 July 2000 CCD features Marconi (EEV) 42-20; Size – 2048x1024 (13.5µm square pixels); MPP device (dark noise ~ C); Basic backthining process - ~80% QE; Electronic readnoise ~ 5/6 electrons; Full well - ~90k electrons (~7000 photons); Two readout amplifiers per CCD.

Solar-B EIS Preliminary Design Review 6-7 July 2000 CCD Camera Mechanical design CCDs mechanically supported at Focal plane; CCDs bonded to individual invar plates; These invar plates then attached to backplates built at MSSL; Can be moved in two dimensions for alignment; CCDs connected to ROE by short cable to minimise noise pickup.

Solar-B EIS Preliminary Design Review 6-7 July 2000 CCD Camera Design Operating temperature -55 °C; CCD can be heated to +30 °C to remove contamination; Three phase clocking; Up to two windows per CCD; Gain ~ 5.5 electrons per DN; Binning in spatial and spectral direction; Dumping of unwanted lines; Programmable voltages to minimise the effects of ionising radiation damage; Overclocking for testing, offset bias determination, etc. Stim patterns for testing; Flat fielding/Pre flash LEDs.

Solar-B EIS Preliminary Design Review 6-7 July 2000 CCD Camera Design Status monitoring. –CCD temperatures; –Current monitoring of supply lines; –Voltage monitoring of supply lines; –Monitor voltage of substrate bias, reset drain bias and output drain bias; –Reflect back register values for check.

Solar-B EIS Preliminary Design Review 6-7 July 2000 CCD Camera Design Science data via high speed link Communication with ICU via LVDS 16 Mbits/s for each data link Commands and Status information via low speed 9.6 k baud

Solar-B EIS Preliminary Design Review 6-7 July 2000 CCD Camera Design Window counters Image clocks Readout clocks CCD bias Variable bias Vrd, Vod, Vss CCD 0 CCD 1 Sync Sample and convert logic Parallel to Serial conversion Pre-amplificationADC High Speed Link Low Speed Link Science data Commands and status

Solar-B EIS Preliminary Design Review 6-7 July 2000 CCD Camera Design Trade Offs Operating temperature – low operating temperature to minimise dark current and the potential effects of radiation damage. But very low temperatures difficult to obtain without major redesign of radiator, requires use of MPP device but this lowers the full well capacity Shielding – maximise shielding to minimise radiation damage but this will add mass. Use of programmable voltages minimises the effects of this damage.

Solar-B EIS Preliminary Design Review 6-7 July 2000 CCD Camera Design Trade Offs Read Out Rates. –500 kpixels/s baselined. Faster readouts are difficult to achieve in current power budget and design and faster readout also increases CCD readout noise; On Chip windowing. –Design of electronics is greatly simplified by reducing the number of windows that are available; Mass –Shielding.

Solar-B EIS Preliminary Design Review 6-7 July 2000 CCD Camera Challenges Cleanliness – EUV demands extreme cleanliness; –All operations will use at least a class 100 cleanroom or better, high standards from GOES-SXI programme adopted with great care taken to eliminate molecular contamination; Readout speed – current designs 330 kpixels/s; –500 kpixels/s and 14 bit digitisation challenging but achievable; Physically fitting electronics within the ROE box constraints.

Solar-B EIS Preliminary Design Review 6-7 July 2000 CCD Camera Test Plan Read out electronics –Verification of correct functionality –Optimisation of design with CCD –Read out noise –Validate grounding CCD characterisation –Establish and Monitor chamber cleanliness levels –Defects, hot pixels, QE Integration with spectrometer

Solar-B EIS Preliminary Design Review 6-7 July 2000 Current CCD Camera Test Facilities Camera Test Facilities based on Facilities developed for GOES/SXI; –(large amount of redundancy available)

Solar-B EIS Preliminary Design Review 6-7 July 2000 Current CCD Camera Test Facilities CCD Focal plane Assembly Preamps Clock level shifters Bias Control box Control of CCD bias voltages Monitor CCD voltages Control image clocks PC 500 MHz, 128Mb ram DAC card CCD bias control ADC Card CCD bias monitoring DMA Card MSSL built ISA Card Control of clocking Receive CCD data via high speed link (5.2 MHz) Generate CCD commands via low speed link (64 kbaud) Generate bilevel command lines and receive status lines Read out Electronics Card 1: CCD bias supplies Power switching Amp-cds-adc Card 2: Clock pulse generator Card 3: Interface to PC (FIFO-PISO-HSL)

Solar-B EIS Preliminary Design Review 6-7 July 2000 CCD Camera Schedule CCD Camera completed 20 December 2000; PM delivery 12 March 2001.

Solar-B EIS Preliminary Design Review 6-7 July 2000 Summary Resolution. –pixel size 13.5µm. –MPP device to minimise dark current; Temporal resolution. –Readout rate 500 kpixels/s; –Dump drain facility; –On-chip windowing; –Two readout amplifiers per CCD.