Report on INFN activities CHIPIX65 - project

Slides:



Advertisements
Similar presentations
IV Jornadas Futuros Aceleradores Lineales Madrid 2-3 Diciembre09.
Advertisements

TDC130: High performance Time to Digital Converter in 130 nm
Phase 2 pixel challenges  ATLAS and CMS phase 2 pixel upgrades very challenging  Very high particle rates: 500MHz/cm 2  Hit rates: 1-2 GHz/cm 2 (factor.
V. Re 1 INFN WP3 Microelectronics and interconnection technology WP3 AIDA meeting, CERN, May 19, 2010 Valerio Re - INFN.
Welcome to CERN CERN – The European Organization for Nuclear Research, Geneva, Switzerland.
The ATLAS Pixel Detector
Chip Developments of the Bonn Group Hans Krüger, Bonn University -1-
Jorgen Christiansen on behalf of RD53
PG2 Solid State Tracking Detectors Seems like we are all newcomers here Topics are arranged according to R&D topic not sub-system as it was in 2013 – Meaning.
Status of 65nm foundry access for Aida June 2013 A. Marchioro CERN/PH-ESE.
WP2: Detector development Summary G. Pugliese INFN - Politecnico of Bari.
ATLAS/CMS/LCD RD53 collaboration: Pixel readout integrated circuits for extreme rate and radiation LHCC status and outlook report June Jorgen Christiansen.
R. Kluit Electronics Department Nikhef, Amsterdam. Integrated Circuit Design.
1 Conceptual design adopts state-of-the-art silicon sensor techniques (compare ATLAS/CMS/ALICE inner tracker layers, BaBar tracking of B mesons). Design.
WP1 WP2 WP3 WP4 WP5 COORDINATOR WORK PACKAGE LDR RESEARCHER ACEOLE MID TERM REVIEW CERN 3 RD AUGUST 2010 Michał Bochenek Work Package 3: On-Detector Power.
ATLAS – CMS RD collaboration: Pixel readout integrated circuits for extreme rate and radiation The “pixel 65” collaboration 1.
The ALICE Silicon Pixel Detector Gianfranco Segato Dipartimento di Fisica Università di Padova and INFN for the ALICE Collaboration A barrel of two layers.
WP2: Detector development Summary G. Pugliese INFN - Politecnico of Bari.
CHIPIX65/RD53 collaboration
Roger Rusack – The University of Minnesota 1.
1 Jan Conrad (CERN) PSD Liverpool, Sept (CERN) Beam Test Performance and Simulation of Prototypes for the ALICE Silicon Pixel.
FF-LYNX (*): Fast and Flexible protocols and interfaces for data transmission and distribution of clock, trigger and control signals (*) project funded.
SLHC SG: ATLAS Pixel G. Darbo - INFN / Genova SLHC SG, July 2004 ATLAS Pixel at SLHC G. Darbo - INFN / Genova Talk overview: A table with different High.
Work Package 3 On-detector Power Management Schemes ESR Michal Bochenek ACEOLE Twelve Month Meeting 1st October 2009 WPL Jan Kaplon.
CMS Phase 2 Pixel Electronics meeting – 27/01/2015 Status and plans of pixel electronics simulation framework Elia Conti – PH-ESE.
Advanced Semiconductor Technologies for SLHC A. Marchioro / PH-ESE.
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.
Jorgen Christiansen, CERN PH-ESE 1.  Spokes persons and Institute chair elected ◦ SP’s: ATLAS: Maurice Garcia-Sciveres, LBNL CMS: Jorgen Christiansen,
Some thoughts on the New Small Wheel Trigger Issues V. Polychronakos, BNL 10 May,
AMS HVCMOS status Raimon Casanova Mohr 14/05/2015.
Valerio Re, Massimo Manghisoni Università di Bergamo and INFN, Pavia, Italy Jim Hoff, Abderrezak Mekkaoui, Raymond Yarema Fermi National Accelerator Laboratory.
65 nm CMOS analog front-end for pixel detectors at the HL-LHC
RD53 Status Report – July 2014 L. Demaria - Report on RD53 - CMSTK week
Special Focus Session On CMOS MAPS and 3D Silicon R. Yarema On Behalf of Fermilab Pixel Development Group.
Development of Pixel Phase 2 chip. Goals New Pixel Chip needed to go beyond the Phase 1 baseline chip – Should be the solution for Phase 2 pixel – Should.
REQUIREMENTS FOR A NEW PIXEL CHIP L. Demaria - Torino INFN Lino Demaria - New Pixel Chip - Torino 01/06/2011.
INFN Activities on Pixel Phase 2 Electronics L. Demaria on behalf of INFN institutes: Bari, Padova, Pavia/Bergamo, Perugia, Pisa, Torino 1/28/2014 L.Demaria:
65 nm technology for HEP: status and perspectives Pierpaolo Valerio, CERN on behalf of the RD53 collaboration.
BeamCal Electronics Status FCAL Collaboration Meeting LAL-Orsay, October 5 th, 2007 Gunther Haller, Dietrich Freytag, Martin Breidenbach and Angel Abusleme.
Fermilab Silicon Strip Readout Chip for BTEV
CMS 1.Goal of the experiment CMS is a general purpose apparatus for LHC designed to study the physics of p-p collisions at the center-of- mass energy of.
Eleuterio SpiritiILC Vertex Workshop, April On pixel sparsification architecture in 130nm STM technology ILC Vertex Workshop April 2008 Villa.
Monolithic Pixel R&D at LBNL M Battaglia UC Berkeley - LBNL Universite' Claude Bernard – IPN Lyon Monolithic Pixel Meeting CERN, November 25, 2008 An R&D.
Tracking at the Fermilab Test Beam Facility Matthew Jones, Lorenzo Uplegger April 29 th Infieri Workshop.
Geoff HallLECC LHC detector upgrades Introductory comments on electronic issues Organisation of this short session.
VMM Update Front End ASIC for the ATLAS Muon Upgrade V. Polychronakos BNL RD51 - V. Polychronakos, BNL10/15/131.
Introduction to the Electronics and Readout Systems Session Ph. Farthouat, CERN.
Jorgen Christiansen, CERN PH-ESE 1.  EPIX ITN proposal did not get requested EU funding ◦ CERN based proposals did very bad this time. ◦ I better not.
Jorgen Christiansen, CERN PH-ESE 1.  Finally officially part of CERN grey book: Recognized experiments  Spokes persons and Institute chair elected 
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.
LPNHE - Serial links for Control in 65nm CMOS technology - 65nm CMOS - Higher density, less material, less power - Enhanced radiation hardness regular.
Elia Conti on behalf of the RD53 Collaboration RD53: status and main activities for 2016 ACES 2016 – Fifth Common ATLAS CMS Workshop for LHC Upgrades –
R. Kluit Nikhef Amsterdam ET Nikhef Electronics Technology TGL Ruud Kluit 118-Apr-16.
R&D for SLHC detectors at PSI and Geneva CHIPP workshop on the high-energy frontier of particle physics Zürich 6. September 2006 R. Horisberger (Paul Scherrer.
RD42 Status Report W. Trischuk for the RD42 Collaboration LHCC Meeting – June 12, 2013 Development of CVD Diamond Tracking Detectors for Experiments at.
Requirements 1.Single (differential) input line —> Encoding Clock and Data 2.Continuous triggering Capability 3.DC balancing (8b/10b encoding) 4.Run length.
Verification Environment for a Simple Pixel Chip Model Pixel Phase 2 Electronics Meeting during TK Week – E. Conti *, P. Placidi *, S. Marconi.
RD53 status and plans. Pixel readout integrated circuits for extreme rate and radiation 4th LHCC status report Jorgen Christiansen and Maurice Garcia-Sciveres.
The timing upgrade project of the TOTEM Roman Pot detectors
Charge sensitive amplifier
Possible contribution of Pisa on pixel electronics R&D
Design of the 64-channel ASIC: status
INFN Pavia / University of Bergamo
INFN interests to RD53 IP-BLOCK
WP microelectronics and interconnections
Valerio Re (INFN-Pavia) on behalf of the RD53 collaboratios
Phase shifter design for Macro Pixel ASIC
CMS Goal of the experiment
Analog Front-end electronics for the outer layers of the SuperB SVT: design and expected performances Luca Bombelli1,2 on behalf of the SVT-SuperB Group.
νe flux prediction = e+ counting
Presentation transcript:

Report on INFN activities CHIPIX65 - project L.Demaria on behalf of CHIPIX65 project L. Demaria - INFN activities of CHIPIX65

Challenges for CHIPIX65 Design of innovative electronics in strategic area of INFN, using the “novel” CMOS 65nm technology, with a large participation of INFN community INFN is one of founding members of RD53, an international collaboration for the R&D phase of an innovative chip for the pixel detector of ATLAS and CMS at HL_LHC, and the goals of RD53 are the main focus of CHIPIX65 milestones: Small pixels: 50x50um2 (or 25x100um2) Large chips: >2cm x 2cm ( ~1 billion transistors) Hit rates: ~2 GHz/cm2 Radiation: 1Grad, 1016 neu/cm2 (unprecedented) Trigger: 1MHz, 10us (~100x buffering and readout) Low power - Low mass systems L. Demaria - INFN activities of CHIPIX65

CHIPIX65 Project Same IC-designers + 2 additions Less for Irrad (also in ScalTech28) + IC-designer from DEI 1 PhD student more (IC-designer analog) 1 staff IC-designer digital Same IC-designers + 2 additions L. Demaria - INFN activities of CHIPIX65

Main work done: First 180 days Irradiation of basic test structures (Pd) Design of Very Front End analog electronics (Pv,To) Work on IP-block Defining responsibility of IP-block (Ba,Mi,Pd,Pv,Pi,To) First design of IP-block (Ba,Mi,Pv,Pi) Digital architecture Undergoing development of the simulation and verification framework (Pg) DESIGN activities were assuming TSMC/IMEC/CERN contract ready on spring 2014. NDA arrived only 1 week ago to all sites  impact on schedule NB: prediction of last year were for October-November 2013 (!) All this will be better shown along this presentation L. Demaria - INFN activities of CHIPIX65

Main 2014 CHIPIX65 contributions to RD53 Radiation WG (Padova): Irradiation campaign at Legnaro with low energy protons (TDD studies) foreseen also irradiation with x-ray machine (TID) Analog WG (Pavia, Torino) Design of Very Front end chain, low power, low threshold (<1000e-) with synchronous and asynchronous comparators IP-block WG (Bari, Milano, Pavia, Padova, Pisa, Torino) 16 out of 34 IP-block under INFN responsibility Simulation WG (Perugia) Main contributor to the development of the simulation and verification framework Top Level WG: Activity is at a preliminary stage. Contribution mainly from LBNL (USA) IO WG: Activity will start during the second half of 2014. New convener being identified now (Roberto Beccherle – Pisa) L. Demaria - INFN activities of CHIPIX65

RD53 WG1 (Radiation test/qualification): Summary • CERN test structures (65nm nMOS & pMOS transistors) CERN: 10-keV X ray (CERN), till 200 Mrad(SiO2) CPPM: 10-keV X ray (CERN), till 1Grad(SiO2) , 20 & 100 ºC annealing Padova: 3-MeV proton (Padova), till 1Grad(SiO2), 20 & 100 ºC annealing (31-st March, 21-22 May 2014) TSMC test structures - FNAL layout (65 nm nMOS & pMOS transistors) Fermilab: Co-60 γ ray, -20 ºC irradiation, till 1Grad(SiO2) Results from Padova L. Demaria - INFN activities of CHIPIX65

Digital Pixel architecture Perugia Goal: Simulation and optimization of pixel chip architectures to be implemented in prospective next generation pixel readout chips. VEPIX53: a flexible Verification Environment for PIXel chips in RD53 in SystemVerilog + UVM (collaboration with RD53, http://rd53.web.cern.ch/RD53/ ). DUT: behavioral, time-based description of a simple pixel chip with basic functionality (conversion of hits into discriminator outputs, computation of hit time of arrival and amplitude, trigger selection, column arbitration). UVM verification components connected to interfaces defined in DUT: hit generation (different classes of typical detector hits can be generated) monitoring of pixel chip input and output conformity checks and statistics collection.

Design of Analog VFE @ Torino Baseline Solution: Single stage front end with CSA + Discriminator (synch discr.) Low power: 5uW/pixel cell (or below) (FEI4~15uW/pix analog, PSI46~6.7uW analog [RH]) Low noise: 90e- for Cd~100 fF (or below) 7 sigma=560e-; threshold max 1000e- FAST ToT: 30ke- signal max into max 250nsec others 400ns for 10 or 30ke- High resolution of Digital information: 8 bits (lower resolution possible) FEI4: 4 bits to stay in 400ns (40 MHz clock) NO-threshold trimming via DAC Hardware solution (corrections stored in capacitors): Never done before in pixel VFE Dimensions: max area ~25x50 um2 Layout dimensions: 26x35 um2 L. Demaria - INFN activities of CHIPIX65

VFE Performance (Torino) 128 ENC e- #ADC counts 100 90e- @100 fF for 250ns ToT 512 MHz 50 256 MHz 50 128 MHz 50 100 10 Cdet fF Q (Ke-) LINEARITY ot DIGITIZED ToT (here shown up to 8 bits in 250ns Noise vs Detector Capacitance L. Demaria - INFN activities of CHIPIX65

PAVIA L. Demaria - INFN activities of CHIPIX65

IP Block for RD53 Out of 34 IP-block identified in RD53, INFN has proposed to contribute at ~16 of them: as main organizer (11) as participant (5) In the following few slides on first prototypes ready for submission in fall 2014 (design in 65nm already present): ADC Band-Gap SLVS driver SRAM Serialiser-deserialiser others IP-blocks could be ready for end of year L. Demaria - INFN activities of CHIPIX65

Bari IP-block Progettazione di un convertitore digitale-analogico (DAC) a 10 bit per la polarizzazione dell’elettronica di front-end 1o prototipo da sottomettere a Ottobre 2014 Collaudo agli inizi del 2015 Implementazione di eventuali modifiche e nuova sottomissione nel 2015 Progettazione di un convertitore analogico-digitale (ADC) a 12 bit per il monitoring dei parametri funzionali del chip Sottomissione 1o prototipo: Q1 2015 Collaudo: Q2-Q3 2015 Implementazione di eventuali modifiche e nuova sottomissione: Q3/Q4 2015 Sviluppo di soft-IP per il controllo remoto del chip, adottando tecniche di ridondanza per aumentare la resistenza ai Single Event Upset: Q4 2014 – Q1 2015 L. Demaria - INFN activities of CHIPIX65

IP-block (Mi) DICE RAM Cell Interest of Milano (in CHIPIX65, applying for RD53) to develop radiation hard SRAM array of 256x256 DICE (Dual Interlocked storage Cell) RAM cells almost ready for integration. It comes from a work done in AIDA. Size of about 1.8x3.3 um2 Other two designs more radiation hard almost ready This could be used either in the PUC or in the EOC SEU recovery in ~20ns Schematics Layout V.1 L. Demaria - INFN activities of CHIPIX65

PAVIA L. Demaria - INFN activities of CHIPIX65

PLL/SER/CDR  data IO & clock management ORGANIZATION on-going L. Demaria - INFN activities of CHIPIX65

IP-cores for high speed links PISA Standard Cell based SER/DES in CMOS 65nm Ready for the CHIPIX65 submission in fall 2014 RTL preliminary synthesis completed SER @ 2GHz Worst                1.4 mW Best                  1.6 mW DES @2GHz Worst                6.0 mW Best                8.3 mW Collaboration with UCSB on high speed TX & RX differential PADs Foreseen for end of year. Needs NDA L. Demaria - INFN activities of CHIPIX65

Padova IP-Block PLL VCO : specs to be better defined. L. Demaria - INFN activities of CHIPIX65

CHIPIX65 2014 submissions IP-block submission (2 blocks of 2x2 mm2)- October 2014: SLVDS (Pavia) Band-Gap (Pavia, Milano) SRAM (Milano) DAC (Bari) Serialiser/deserialiser (Pi) Analog Very Front End submission (1 block of 2x2 mm2)- October 2014 Synchronous, Auto-zeroing, FAST ToT analog front end (Torino) Asynchronous analog front end (Pavia) Analog readout: max (12x12) pixels + Matrix: (12x32) pixel In the pipeline Next IP blocks to be ready : ADC (Bari), TX-RX (Pisa), Digital Logic RAdHard (Milano), PLL (?) Pixel-Matrix with complex synthetized digital logic (pixel and readout) [Torino, Pisa, Pavia, Milano] L. Demaria - INFN activities of CHIPIX65

October submission: IP-block Esercizio di floorplanning che Indica che far stare tutto su di un solo IP-block, e’ difficile e presenta svantaggi. Bandgap: includere versioni CERN, CPPM per confronto DAC: Includere anche disegno DAC in tensione di Praga SRAM: Milano abbisogna di piu’ spazio se possibile (256x256 invece di 128x256 celle) L. Demaria - INFN activities of CHIPIX65

October submission – VFE block 1) One core AREA with ANALOG testing for ASYNC design(PAVIA) 2) One core AREA with ANALOG testing of SYNC design (Torino) 3) One core AREA with simple digital readout and measurement of ToT (slow and fast ToT) 1 3 2 L. Demaria - INFN activities of CHIPIX65

Simulazione, 5 eventi singolo pixel in vari casi, si vede bene il clock del ToT e il caso di timeout nel conteggio del ToT CHIPIX65 L. Demaria - INFN activities of CHIPIX65

I/O group Responsabile R. Beccherle 1) I/O: Evaluation and definition of I/O protocols supporting 2Gbps or higher serial links, command based triggering up to 1MHz rate and minimum dead-time. - 80Mbps or higher serial input, with command decoder to configure and operate the chip. Evaluation of a slow control protocol. Command and Clock should be encoded on a single line. - 2Gbps Serial Output links will require to evaluate different output data formats and compression alternatives. - A duplex solution where all I/O takes place on a single serial connection should be considered. Investigation of link redundancy schemes to be eventually used on less data demanding layers. 2) Interfaces: Evaluation of compatibility with defined interfaces such as LPGBT. 3) IP blocks related to I/O: interface driver, clock recovery, clock multiplier methods, LVDS driver and receivers. [Work to be shared with the IP group] 4) Off chip connectivity: Calculation, Simulation and Test of transmission performance with realistic interconnects. I/O should not stop at the chip pads but extend to the system immediately outside the chip. High speed cables and protocols and even test interfaces. Therefore we should develop a specification for the system around it and a test setup. L. Demaria - INFN activities of CHIPIX65

Main Milestones for 2015 Test of first IP-blocks 1-4-2015 Measurement of SEU rate with SRAM 1-5-2015 Test of small pixel array 1-10-2015 Definition of Very Front End analog architectures 1-12-2015 Test of all IP-block prototypes 1-12-2015 L. Demaria - INFN activities of CHIPIX65

Conclusions Good starting of the CHIPIX65 project Layout in TSMC 65nm in 5 out of 6 sites. With CERN/TSMC contract approved, from September all groups will be capable of working with TSMC 65nm Work on IP-block and VFE-analog going very well For 2015 INFN will focus more on adding complex digital architecture in a small pixel array / matrix of about 3x4 mm2 L. Demaria - INFN activities of CHIPIX65