Draft of 3 year CMOS Strip Programme Need to advise WG3 on likely resource requirement Draft Outline provided at Valencia Discuss and improve basis for.

Slides:



Advertisements
Similar presentations
Systems Analysis and Design Feasibility Study. Introduction The Feasibility Study is the preliminary study that determines whether a proposed systems.
Advertisements

L. Greiner 1HFT PXL LBNL F2F – March 14, 2012 STAR HFT The STAR-PXL sensor and electronics Progress report for F2F.
09 September 2010 Erik Huemer (HEPHY Vienna) Upgrade of the CMS Tracker for High Luminosity Operation OEPG Jahrestagung 2010.
Stefan Moeller X-Ray October 27, X-Ray Detectors Stefan Moeller.
WP2: Detector development Summary G. Pugliese INFN - Politecnico of Bari.
ACES Workshop 3-4 March, 2009 W. Dabrowski Serial power circuitry in the ABC-Next and FE-I4 chips W. Dabrowski Faculty of Physics and Applied Computer.
21 Sept 2009 Markus Friedl Electronics 1 Electronics 2 Machine Shop HEPHY Scientific Advisory Board Meeting.
Embedded Pitch Adapters a high-yield interconnection solution for strip sensors M. Ullán, C. Fleta, X. Fernández-Tejero, V. Benítez CNM (Barcelona)
+ CS 325: CS Hardware and Software Organization and Architecture Introduction.
EUDET Annual Meeting, Munich, October EUDET Beam Telescope: status of sensor’s PCBs Wojciech Dulinski on behalf.
D. Lissauer, BNL. 1 ATLAS ID Upgrade Scope R&D Plans for ATLAS Tracker First thoughts on Schedule and Cost.
Tracker Upgrade Week –Sensors Meeting Sensor Production 24. July 2014 Marko Dragicevic.
First Results from Cherwell, a CMOS sensor for Particle Physics By James Mylroie-Smith
Simulation issue Y. Akiba. Main goals stated in LOI Measurement of charm and beauty using DCA in barrel –c  e + X –D  K , K , etc –b  e + X –B 
Relationships July 9, Producers and Consumers SERI - Relationships Session 1.
Leo Greiner IPHC meeting HFT PIXEL DAQ Prototype Testing.
Silicon Inner Layer Sensor PRR, 8 August G. Ginther Update on the D0 Run IIb Silicon Upgrade for the Inner Layer Sensor PRR 8 August 03 George Ginther.
Leo Greiner TC_Int1 Sensor and Readout Status of the PIXEL Detector.
Phase 2 Tracker R&D Background: Initial work was in the context of the long barrel on local tracklet- based designs. designs of support structures and.
Work Package 3 On-detector Power Management Schemes ESR Michal Bochenek ACEOLE Twelve Month Meeting 1st October 2009 WPL Jan Kaplon.
Muon trigger upgrades, missing since not aimed towards DOE funding PHENIX upgrades: view presented to DOE R&D $3.5M Construction $16.6M Au-Au p-p 200 Si-Si.
A Silicon vertex tracker prototype for CBM Material for the FP6 Design application.
2 Silicon pixel part Done and to be written Written! Under way To be done Introduction 1.Hybrid Pixel Assembly Concept 2.Silicon sensor 1.First thinned.
D. Nelson October 7, Serial Power Overview Presented by David Nelson
PHASE-1B ACTIVITIES L. Demaria – INFN Torino. Introduction  The inner layer of the Phase 1 Pixel detector is exposed to very high level of irradiation.
Tevatron II: the world’s highest energy collider What’s new?  Data will be collected from 5 to 15 fb -1 at  s=1.96 TeV  Instantaneous luminosity will.
Network design Topic 6 Testing and documentation.
CMOS Sensor Development Guess:CMOS sensors will become detector of choice o Based on commercially useful processes – cheap (relatively) o Inherently radiation.
Pixel power R&D in Spain F. Arteche Phase II days Phase 2 pixel electronics meeting CERN - May 2015.
Craig Ogilvie Strip FEE electronics that are common between stripixel or conventional sensor choice Stripixel tests/plans to establish manufacturability.
TC Straw man for ATLAS ID for SLHC This layout is a result of the discussions in the GENOA ID upgrade workshop. Aim is to evolve this to include list of.
CMOS Sensors WP1-3 PPRP meeting 29 Oct 2008, Armagh.
Common R&D projects for the LHC upgrade and plans for irradiation facilities Outline: PH common R&D projects Working Group on future irradiation facilities.
STAR Pixel Detector readout prototyping status. LBNL-IPHC-06/ LG22 Talk Outline Quick review of requirements and system design Status at last meeting.
Upgrade PO M. Tyndel, MIWG Review plans p1 Nov 1 st, CERN Module integration Review – Decision process  Information will be gathered for each concept.
Upgrade Review Meeting Introduction Craig Buttar University of Glasgow RAL 10/5/11.
FPCCD VTX Work Plan Y. Sugimoto 2010/1/22. FPCCD: Features and R&D issues (1/2) Small pixel size (~5  m) –Sensor development Small size; ~6mm x 6mm Full.
Vertex detector R&D Work Plan in /3/11 Y. Sugimoto for KEK-Tohoku-TohokuGakuin-Niigata- ToyamaCMT Collaboration.
Upgrade with Silicon Vertex Tracker Rachid Nouicer Brookhaven National Laboratory (BNL) For the PHENIX Collaboration Stripixel VTX Review October 1, 2008.
RD53 1.  Full/large demonstrator chip submission ◦ When: 2016 A.Early 2016: If chip must have been fully demonstrated in test beams for TDRs to be made.
August 24, 2011IDAP Kick-off meeting - TileCal ATLAS TileCal Upgrade LHC and ATLAS current status LHC designed for cm -2 s 7+7 TeV Limited to.
PXD ASIC review, October 2014 ASIC Review 1 H-.G. Moser, 18 th B2GM, June 2014 Date and Location MPP, October 27, 10:00 – October 28, 16:00, Room 313 Reviewers:
NSW Electronics Preliminary Design Review Feb 2015 Introduction and Review Scope Feb 2015 NSW ELTX PDR S. Zimmermann 1 Stephanie Zimmermann.
B => J/     Gerd J. Kunde PHENIX Silicon Endcap  Mini-strips (50um*2mm – 50um*11mm)  Will not use ALICE chip  Instead custom design based on.
Ideas on MAPS design for ATLAS ITk. HV-MAPS challenges Fast signal Good signal over noise ratio (S/N). Radiation tolerance (various fluences) Resolution.
Hybrid CMOS strip detectors J. Dopke for the ATLAS strip CMOS group UK community meeting on CMOS sensors for particle tracking , Cosenors House,
Low Mass, Radiation Hard Vertex Detectors R. Lipton, Fermilab Future experiments will require pixelated vertex detectors with radiation hardness superior.
Panja Luukka. Silicon Beam Telescope (SiBT) Group Since 2007 a collaboration of several CMS institutes has been operating a silicon micro-strip beam telescope.
Straw man layout for ATLAS ID for SLHC
CMS Phase 2 Tracker R&D R. Lipton 2/27/2014
SVT – SuperB Workshop – Annecy March 2010
Dima Maneuski, Advances in rad-hard MAPS 2016, Birmingham
Detector building Notes of our discussion
 Silicon Vertex Detector Upgrade for the Belle II Experiment
SVT subchapters & editors
WBS 1.03 Readout Systems Scope, Cost and Schedule
Highlights of Atlas Upgrade Week, March 2011
ATLAS strip CMOS Development of Sensors for possible use in Silicon Strip region at phase II Aggressive time schedule – drives choices Three phase programme.
Mechanics: (Tim).
HR-HV CMOS activities and plans at Glasgow
LHCC Upgrade Session, 12 March 2013
Strawman module design
Trigger, DAQ, & Online: Perspectives on Electronics
TK Upgrade report.
SVT Issues for the TDR What decisions must be taken before the TDR can be written? What is the mechanism for reaching those decisions How can missing information.
Valerio Re (INFN-Pavia) on behalf of the RD53 collaboratios
FEE Electronics progress
SVT – SuperB Workshop – Frascati Sept. 2010
Perugia SuperB Workshop June 16-19, 2009
Presentation transcript:

Draft of 3 year CMOS Strip Programme Need to advise WG3 on likely resource requirement Draft Outline provided at Valencia Discuss and improve basis for estimates in WG1

Four Phase Programme Resources and Deadlines Define programme and identify Resources Establish Group with strip tracker goal Break Point 1 Mid 2014 Group established, resources secured for Phase-1 Phase 0 now – mid 2014

Requirements – software and paper study for physics requirements on o the tracker layout, o physics hit rates, o noise hit rates, o trigger hit rates o radiation hardness requirements o acceptable dead area o efficiency requirements o radiation length limitations o requirements on assembly precision, survey Requirements – hardware restrictions o Power consumption o Uniformity of cooling o Flatness of sensors o Data rates Architecture & Mechanics o Architecture to focus on selected o Upgrade path to advanced architectures defined o Impact on module and macro assembly understood o Impact on mechanics optimisation understood o Sensor thickness selected on mechanical grounds Phase 1 mid-2014 to mid-2015

Sensor & Readout o Relevant foundries selected o HR and HV CMOS processes evaluated with basic devices. o Bulk and Surface Radiation hardness evaluated o Hit efficiency evaluated with representative devices, within a pixel o Charge collection efficiency understood, or close to o S/N S/T measured to be acceptable o Boundary electronics architecture understood o Cut lines, stitching, multi-reticule possibilities evaluated. o Common read-out selected Administrative o Re-evaluation of schedule, resource requirements and programme time scales o External review Phase 1 mid-2014 to mid-2015

Resource Requirement The phase 1 resource can be mostly staff as test structures exist and new ones can be part of multi-project runs. 2 FTE engineer equivalent. Sensor design & read-out and interface card design/test 2 FTE evaluation and test ? FTE software ½ FTE admin/organisation 60kCHF submissions and components for test equipment. 20kCHF travel Phase 1 mid-2014 to mid-2015 Break Point 2 Mid 2015 – basic technology demonstrated to be acceptable Foundries selected, architecture selected Layout and performance found to be compatible Requirements Established Resources for phase-II identified

Phase – II Mid-2015 to mid 2016 Sensor Large scale sensor with close to full functionality fabricated o Large scale sensor with close to full functionality fabricated o Bulk and Surface Radiation hardness evaluated o Hit efficiency evaluated including, within a pixel o Charge collection efficiency understood o S/N S/T measured to be acceptable o Boundary electronics architecture tested o Design of digital encoding periphery completed* o Test structure for digital encoding fabricated and tested * Mechanics o Any substantive changes required in mechanics evaluated o Test parts fabricate for any essential new elements o Consideration given to service module alterations. o Service tapes redesigned to accommodate new module configurations ABCn’ o ABCn’ designed and test chips fabricated in multi-user run o Consideration started of digital encoded version of ABCn’’ * Administrative o Re-evaluation of schedule, resource requirements and programme time scales o External Review o Secure Resources for phase III

Break Point III mid-2016large scale device demonstrated ABCn’ designed and fabricated Resources required for phase-III secured Resource Requirements 2 FTE engineer equivalent. Sensor design & read-out and interface card design/test 2 FTE evaluation and test ½ FTE on mechanical considerations. ½ FTE admin/organisation 500kCHF submissions and components for test equipment. 30kCHF travel Phase – II Mid-2015 to mid 2016

Phase III Mid 2016 – Mid 2017 ABCn’ o Tested with sensor prototypes from phase II o Fabricated in significant quantities o ABCn’’ designed and fabricated in multi-user run Sensor o Full scale sensors designed and fabricated o Sensors fully characterised o Sensors and ABCn’’ operated in module-like configuration o Digital encoded sensor fabricated* o >1 module operated together on a service tape Mechanics o Changes to accommodate new layout and stave/petal designed o Assembly protocols and series production planning considered Administrative o Planning for decision to adopt CMOS sensors in preference to planar o Mechanical, schedule implications evaluated o Costs fully evaluated o Programme review

Resource Requirements 2 FTE engineer equivalent. Sensor design & read-out and interface card design/test 2 FTE evaluation and test 2 FTE on mechanical considerations. ½ FTE admin/organisation 600kCHF submissions and components for test equipment. 40kCHF travel Phase III Mid 2016 – Mid 2017 Break Point IIIDemonstrated multi-sensor test structure Advanced planning for mechanical changes required Understood resource & schedule implications