Novel MPGD based Detectors of Single Photons for COMPASS RICH-1 Upgrade

Similar documents
Status of COMPASS RICH-1 Upgrade with MPGD-based Photon Detectors

Construction and Performance of the stgc and Micromegas chambers for ATLAS NSW Upgrade

Development and tests of a large area CsI-TGEM-based RICH prototype

A Large Low-mass GEM Detector with Zigzag Readout for Forward Tracking at EIC

Recent Developments in Gaseous Tracking Detectors

PoS(PhotoDet 2012)057

Full characterization tests of Micromegas with elongated pillars

AIDA-2020 Advanced European Infrastructures for Detectors at Accelerators. Conference/Workshop Paper

Status of the Continuous Ion Back Flow Module for TPC Detector

Construction and Performance of the stgc and MicroMegas chambers for ATLAS NSW Upgrade

Status of the Continuous Ion Back Flow Module for CEPC-TPC

Recent developments on. Micro-Pattern Gaseous Detectors

Uva GEM R&D Update. Nilanga Liyanage

MPGDs: a tool for progress in HEP

Introduction to TOTEM T2 DCS

Production of HPDs for the LHCb RICH Detectors

Small-pad Resistive Micromegas for Operation at Very High Rates. M. Alviggi, M.T. Camerlingo, V. Canale, M. Della Pietra, C. Di Donato, C.

Al-core TPC collection plane test results CENBG option J. Giovinazzo, J. Pibernat, T. Goigoux (R. de Oliveira CERN)

THE MULTIWIRE CHAMBER REVOLUTION (Georges Charpak, 1968)

Status of UVa

2 Pixel readout of Micro-Pattern Gas Detectors. The InGrid Concept

The on-line detectors of the beam delivery system for the Centro Nazionale di Adroterapia Oncologica(CNAO)

AIDA-2020 Advanced European Infrastructures for Detectors at Accelerators

A High Eta Forward Muon Trigger & Tracking detector for CMS

The Compact Muon Solenoid Experiment. Conference Report. Mailing address: CMS CERN, CH-1211 GENEVA 23, Switzerland

GEM chambers for SoLID Nilanga Liyanage. University of Virginia

HV SYSTEM: PROTOTYPES AND TEST RESULTS

Large TPC Prototype of LCTPC

GEM chambers for SoLID Nilanga Liyanage. University of Virginia

Gas scintillation Glass GEM detector for high-resolution X-ray imaging and CT

Large Size GEM Detectors for 12 GeV Program in Hall A at JLab

RD51 ANNUAL REPORT WG1 - Technological Aspects and Development of New Detector Structures

Study of gain fluctuations with InGrid and TimePix

Gas Electron Multiplier Detectors

A New GEM Module for the LPTPC. By Stefano Caiazza

Characterization of SC CVD diamond detectors for heavy ions spectroscopy

A spark-resistant bulk-micromegas chamber for high-rate applications

Avalanche statistics and single electron counting with a Timepix-InGrid detector

PandaX-III High Pressure Gas TPC and its Prototype

Measurements With Irradiated 3D Silicon Strip Detectors

GEM beam test for the BESIII experiment

Development of gating foils to inhibit ion feedback using FPC production techniques

Stato del progetto RICH di LHCb. CSN1 Lecce, 24 settembre 2003

Pixel hybrid photon detectors

The HPD DETECTOR. Michele Giunta. VLVnT Workshop "Technical Aspects of a Very Large Volume Neutrino Telescope in the Mediterranean Sea"

Parallel Ionization Multiplier(PIM) : a new concept of gaseous detector for radiation detection improvement

Multi-Wire Drift Chambers (MWDC)

arxiv: v1 [physics.ins-det] 20 Apr 2017

arxiv: v1 [physics.ins-det] 3 Jun 2015

VErtex LOcator (VELO)

Resolution studies on silicon strip sensors with fine pitch

Design and Construction of Large Size Micromegas Chambers for the ATLAS Phase-1 upgrade of the Muon Spectrometer

Main Detectors for PREX and CREX

Development of Floating Strip Micromegas Detectors

CALICE AHCAL overview

Studies of a Bulk Micromegas using the Cornell/Purdue TPC

The pixel readout of Micro Patterned Gaseous Detectors

Monolithic Pixel Sensors in SOI technology R&D activities at LBNL

Development of High Granulated Straw Chambers of Large Sizes

Goal of the project. TPC operation. Raw data. Calibration

The HGTD: A SOI Power Diode for Timing Detection Applications

An aging study ofa MICROMEGAS with GEM preamplification

Study of GEM-like detectors

X-ray Scanners* for ATLAS Barrel TRT Modules

Integrated CMOS sensor technologies for the CLIC tracker

MWPC Gas Gain with Argon-CO 2 80:20 Gas Mixture

GEM Module Design for the ILD TPC. Astrid Münnich

First Optical Measurement of 55 Fe Spectrum in a TPC

Electromagnetic characterization of materials for the CLIC Damping Rings and high frequency issues

FAST RF KICKER DESIGN

Performance of the MCP-PMTs of the TOP counter in the first beam operation of the Belle II experiment

OPERA RPC: installation and underground test results

Plans for RPC DHCAL Prototype. David Underwood Argonne National Laboratory

Introduction Test results standard tests Test results extended tests Conclusions

The CMS Outer HCAL SiPM Upgrade.

The detection of single electrons using the MediPix2/Micromegas assembly as Direct Pixel Segmented Anode

Thick GEM versus thin GEM in two-phase argon avalanche detectors

The Multigap RPC: The Time-of-Flight Detector for the ALICE experiment

ATLAS Phase 1 Upgrade: Muons. Starting Point: Conceptional drawing from Jörg: GRK Ulrich Landgraf

Micromegas for muography, the Annecy station and detectors

Performance of High Pixel Density Multi-anode Microchannel Plate Photomultiplier tubes

SiPMs as detectors of Cherenkov photons

AFBR-S4N44C013-DS100. Data Sheet. NUV-HD Silicon Photo Multiplier. Features. Description. Applications

PMF the front end electronic for the ALFA detector

Nuclear Instruments and Methods in Physics Research A

Effects of the induction-gap parameters on the signal in a double-gem detector

GEM Detector Assembly, Implementation, Data Analysis

irst: process development, characterization and first irradiation studies

The trigger system of the muon spectrometer of the ALICE experiment at the LHC

Resistive Micromegas for sampling calorimetry

Development of Pixel Detectors for the Inner Tracker Upgrade of the ATLAS Experiment

Multianode Photo Multiplier Tubes as Photo Detectors for Ring Imaging Cherenkov Detectors

Marconi Applied Technologies CCD30-11 Inverted Mode Sensor High Performance CCD Sensor

Lecture 11. Complex Detector Systems

Aging measurements with the Gas Electron Multiplier (GEM)

GSPC detectors development for neutron reflectometry and SANS Instruments WP22 / Task 22.2

Method for digital particle spectrometry Khryachkov Vitaly

Today s Outline - January 25, C. Segre (IIT) PHYS Spring 2018 January 25, / 26

Single-avalanche response mesurement method for MPGD detectors

Status of the PRad Experiment (E )

Transcription:

Outline Basics Why this upgrade and how R&D and Detector commissioning Results Conclusions Novel MPGD based Detectors of Single Photons for COMPASS RICH-1 Upgrade Shuddha Shankar Dasgupta INFN Sezzione di Trieste On behalf of COMPASS THGEM Group Alessandria, Aveiro, Freiburg, Kolkata, Liberec, Prague, Torino NDIP2017

COMPASS Experiment @ CERN 2

COMPASS Experiment @ CERN 3

The final photon detectors Staggered THGEMs γ each detectors consists of two modules having 600 x 300 mm 2 e - Signal read out via capacitive coupling pad readout and APV25 F/E boards 06-07-2017 Shuddha Shankar Dasgupta, University and INFN Trieste 4

The hybrid detector concept, a change in technology the proof of the choice The 1 st THGEM forms the PC The 2 nd THGEM (staggered) forces the electron diffusion The MM provides large gain, made larger by the diffusing the impinging electron cloud Shuddha Shankar Dasgupta, University and INFN Trieste 5

Pre production quality control Our thickness uniformity requirements are stricter than those offered by producers material selection 50 foils of 1245 mm x 1092 mm cut out borders 800 mm x 800 mm thickness measurement for each foil 36 x 36 points in square pattern are measured 2 measurements (direct and reversed) to allow consistency checks. under pressure to induced flatness 06-07-2017 Shuddha Shankar Dasgupta, University and INFN Trieste 6

Pre production quality control typical result for a good piece. δ thickness ~2. 6% δ for the 100 raw THGEM pcb (%) about half of the foils sent to ELTOS for THGEM production all foils have been labelled and measured database of local thickness of all THGEMS from each foil two THGEMS can be produced: 50 foils 100 raw THGEM pcb THGEM pcb size = 620 mm x 320 mm, active area = 581 mm x 287 mm 49 p.cs 2%<δ<3% 06-07-2017 Shuddha Shankar Dasgupta, University and INFN Trieste 7

THGEM post production treatment To drill 300K holes, it takes ~ 14 hrs The cost is 1 Euro for 1000 holes We (at ELTOS spa, Italy) produced ~ 12 m 2 Before treatment After treatment 06-07-2017 Shuddha Shankar Dasgupta, University and INFN Trieste 8

THGEM post production treatment Polishing machine The way we polish Polishing (Hinrichs Pumice Powder) Cleaning with high pressure water to remove all pumice residuals Ultrasonic bath (~1 h) @ 50-60 o C in Sonica PCB solution (ph11) Washing with demineralized water + oven at 180 o C for 24 h Pieces inside Ultrasonic bath Cleaned piece in the bath Cleaning of the piece in de minarilized water Before treatment After treatment 06-07-2017 Shuddha Shankar Dasgupta, University and INFN Trieste 9

THGEM Quality Assessment current monitor recording, discharge counting rejected accepted AMPTEK Mini-X Au used at 15 kv, 200µA + Cu foil provides 8 kev X-rays uniform illumination at a rate > 5 khz cm -2 (for 1 cm Ar/CO 2 70/30) Gain uniformity measurement first 4 pieces: 1 rejected. Possibly recovered by repeating the cleaning treatment Gain Uniformity using APV 25 based R/O Uniformity ~ 10% 06-07-2017 Shuddha Shankar Dasgupta, University and INFN Trieste 10

Micromegas s/<g> = 5% for each of the two Micromegas 06-07-2017 Shuddha Shankar Dasgupta, University and INFN Trieste 11

Assembling new PDs 06-07-2017 Shuddha Shankar Dasgupta, University and INFN Trieste 12

Complexity of the upgrade 06-07-2017 Shuddha Shankar Dasgupta, University and INFN Trieste 13

Installation of the new PDs 06-07-2017 Shuddha Shankar Dasgupta, University and INFN Trieste 14

CsI Photo-cathode preparation 06-07-2017 Shuddha Shankar Dasgupta, University and INFN Trieste 15

HV control system with p, T correction A dedicated HV control system has been designed programmed and tested to control and monitor new Hybrid Detectors: 104 HV channels in 9 different electrode types with diversified function in 16 sectors HV: MM I: MM 1% P, T sensors inserted in the gas lines at gas in/out 06-07-2017 Shuddha Shankar Dasgupta, University and INFN Trieste 16

Commissioning Detectors successfully installed in April 2016 Operated and commissioned during the entire 2016 COMPASS run 06-07-2017 Shuddha Shankar Dasgupta, University and INFN Trieste 17

Timing Selecting good hits: (A0<5 ADC units, 0.2<A1/A2<0.8) All sectors provide the same time response 150 ns 06-07-2017 Shuddha Shankar Dasgupta, University and INFN Trieste 18

Photon Signal NO BEAM BEAM 06-07-2017 Shuddha Shankar Dasgupta, University and INFN Trieste 19

06-07-2017 Shuddha Shankar Dasgupta, University and INFN Trieste 20

Charged Particle Signal Suppression Tail of the signal amplitude spectrum ADC saturation signals, mostly from charged particles E drift = +0.5 kv/cm E drift = -0.5 kv/cm The results of drift field scans confirm a good suppression of signals from charged particles in the nominal voltage configuration 06-07-2017 Shuddha Shankar Dasgupta, University and INFN Trieste 21

Rings 06-07-2017 Shuddha Shankar Dasgupta, University and INFN Trieste 22

Conclusion Four PDs covering 1.4 m 2 were built, tested and mounted on COMPASS RICH and successfully operated during 2016 run for the first time in the world! Preliminary results are very promising, Detailed analysis is going on Cerenkov rings have been observed Large area MPGD based single photon detectors are not dream but reality. THANK YOU Questions? 06-07-2017 Shuddha Shankar Dasgupta, University and INFN Trieste 23

Backup: Gain Sharing Effective gain*transfer of THGEM1 in Ar/CH4, with THGEM2 and MM at nominal voltages Effective gain of Mcromegas in Ar/CH4, with THGEM1 and THGEM2 at nominal voltages Nominal gain: ~30000 with: THGEM1 gain* transfer1: ~ 20 THGEM2 gain*transfer2 ~ 15 Micromegas gain ~100 06-07-2017 Shuddha Shankar Dasgupta, University and INFN Trieste 24

BACKUP: IBF Trieste home-built picoammeters The result of the direct measurement: 3% nicely matches the expectation 06-07-2017 Shuddha Shankar Dasgupta, University and INFN Trieste 25

Effective Gain Effective Gain BACKUP: p, T control 24000 Effective Gain Vs Time For 2 days (30/06 and 01/07) 23000 22000 21000 20000 19000 18000 GAIN MEASUREMENTS ALTERNATING W, W/O CORRECTION 17000 14500 16000 10:00:00 AM 2:00:00 PM 6:00:00 PM 10:00:00 PM 2:00:00 AM 6:00:00 AM 10:00:00 AM 2:00:00 PM 6:00:00 PM With Correction Without Correction Time[HH:MM:SS] Effective Gain Vs Time: With Correction (26/06 to 28/06) 13500 12500 11500 Correction of Voltage f P, T LabVIEW based system fully automated + logging p, T sensor at gas input and output 10500 9:00:00 AM 1:00:00 PM 5:00:00 PM 9:00:00 PM 1:00:00 AM 5:00:00 AM 9:00:00 AM 1:00:00 PM 5:00:00 PM 9:00:00 PM 1:00:00 AM 5:00:00 AM applying voltage compensation: gain evolution ~ 40% ~ 10 % Final co relation coefficient achieved Time[HH:MM:SS] 06-07-2017 Shuddha Shankar Dasgupta, University and INFN Trieste 26

Backup: CsI coating of THGEMs THGEM THGEM box piston QE measurement 4 evaporators Turbopump evaporators

Backup: CsI QE measurement 19 CsI evaporations performed in 2015-2016 on 15 pieces: 13 THGEMs, 1 dummy THGEM, and 1 reference piece (best from previous coatings) 11 coated THGEMs available, 8 used + 3 spares etching THGEM number evaporation date at 60 degrees at 25 degrees Thick GEM 319 1/18/2016 2.36 2.44 Thick GEM 307 1/25/2016 2.65 2.47 Thick GEM 407 2/2/2016 2.14 2.47 Thick GEM 418 2/8/2016 2.79 2.98 Thick GEM 410 2/15/2016 2.86 3.14 Thick GEM 429 2/22/2016 2.75 2.74 Thick GEM 334 2/29/2016 2.77 3.00 Thick GEM 421 re-coating 3/10/2016 2.61 2.83 Reference piece 7/4/2016 3.98 3.76 QE measurements indicate an average THGEM QE = 0.73 x Ref. piece QE, in agreement with expectations (THGEM optical transparency = 0.76) Thanks to Thomas Schnider and Miranda Van Stenis

Backup: The COMPASS THGEM design Thickness: 0.4 mm, hole diameter: 0.4 mm, pitch: 0.8 mm 12 sectors on both top and bottom, 0.7 mm separation 24 fixation points to guarantee THGEMs flatness border holes diam.: 0.5 mm pillars in PEEK

Backup: mechanical frames and wires drift and field wires: Cu-Be, Au coated 4 mm pitch, 100 µm diam. manual soldering tension meter

Backup: field shaping electrodes THGEM border study large field values at the chamber edges and on the guard wires isolating material (Tufnol 6F/45) protection Field shaping electrodes in the isolating material protections of the chamber frames