Cargando…

Development of a single-photon imaging detector with pixelated anode and integrated digital read-out

We present the development of a single-photon detector and the connected read-out electronics. This “hybrid” detector is based on a vacuum tube, transmission photocathode, microchannel plate and a pixelated CMOS read-out anode encapsulating the analog and digital-front end electronics. This assembly...

Descripción completa

Detalles Bibliográficos
Autores principales: Alozy, J.A., Biesuz, N.V., Campbell, M., Cavallini, V., Cotta Ramusino, A., Fiorini, M., Guarise, M., Cudie, X. Llopart
Lenguaje:eng
Publicado: 2021
Materias:
Acceso en línea:https://dx.doi.org/10.1088/1748-0221/17/06/C06007
http://cds.cern.ch/record/2813959
_version_ 1780973427586236416
author Alozy, J.A.
Biesuz, N.V.
Campbell, M.
Cavallini, V.
Cotta Ramusino, A.
Fiorini, M.
Guarise, M.
Cudie, X. Llopart
author_facet Alozy, J.A.
Biesuz, N.V.
Campbell, M.
Cavallini, V.
Cotta Ramusino, A.
Fiorini, M.
Guarise, M.
Cudie, X. Llopart
author_sort Alozy, J.A.
collection CERN
description We present the development of a single-photon detector and the connected read-out electronics. This “hybrid” detector is based on a vacuum tube, transmission photocathode, microchannel plate and a pixelated CMOS read-out anode encapsulating the analog and digital-front end electronics. This assembly will be capable of detecting up to 10$^{9}$ photons per second with simultaneous measurement of position and time.The pixelated read-out anode used is based on the Timepix4 ASIC (65 nm CMOS technology) designed in the framework of the Medipix4 collaboration. This ASIC is an array of 512 × 448 pixels distributed on a 55 μm square pitch, with a sensitive area of  ∼7 cm$^{2}$. It features 50–70 e$^{−}$ equivalent noise charge, a maximum rate of 2.5 Ghits/s, and allows to time-stamp the leading-edge time and to measure the Time-over-Threshold (ToT) for each pixel. The pixel-cluster position combined with its ToT information will allow to reach 5–10 μm position resolution. This information can also be used to correct for the leading-edge time-walk achieving a timing resolution of the order of 10 ps.The detector will be highly compact thanks to the encapsulated front-end electronics allowing local data processing and digitization. An FPGA-based data acquisition board, placed far from the detector, will receive the detector hits using 16 electro-optical links operated at 10.24 Gbps. The data acquisition board will decode the information and store the relevant data in a server for offline analysis.These performance will allow significant advances in particle physics, life sciences, quantum optics or other emerging fields where the detection of single photons with excellent timing and position resolutions are simultaneously required.
id cern-2813959
institution Organización Europea para la Investigación Nuclear
language eng
publishDate 2021
record_format invenio
spelling cern-28139592023-04-15T02:09:13Zdoi:10.1088/1748-0221/17/06/C06007http://cds.cern.ch/record/2813959engAlozy, J.A.Biesuz, N.V.Campbell, M.Cavallini, V.Cotta Ramusino, A.Fiorini, M.Guarise, M.Cudie, X. LlopartDevelopment of a single-photon imaging detector with pixelated anode and integrated digital read-outhep-exParticle Physics - Experimentphysics.ins-detDetectors and Experimental TechniquesWe present the development of a single-photon detector and the connected read-out electronics. This “hybrid” detector is based on a vacuum tube, transmission photocathode, microchannel plate and a pixelated CMOS read-out anode encapsulating the analog and digital-front end electronics. This assembly will be capable of detecting up to 10$^{9}$ photons per second with simultaneous measurement of position and time.The pixelated read-out anode used is based on the Timepix4 ASIC (65 nm CMOS technology) designed in the framework of the Medipix4 collaboration. This ASIC is an array of 512 × 448 pixels distributed on a 55 μm square pitch, with a sensitive area of  ∼7 cm$^{2}$. It features 50–70 e$^{−}$ equivalent noise charge, a maximum rate of 2.5 Ghits/s, and allows to time-stamp the leading-edge time and to measure the Time-over-Threshold (ToT) for each pixel. The pixel-cluster position combined with its ToT information will allow to reach 5–10 μm position resolution. This information can also be used to correct for the leading-edge time-walk achieving a timing resolution of the order of 10 ps.The detector will be highly compact thanks to the encapsulated front-end electronics allowing local data processing and digitization. An FPGA-based data acquisition board, placed far from the detector, will receive the detector hits using 16 electro-optical links operated at 10.24 Gbps. The data acquisition board will decode the information and store the relevant data in a server for offline analysis.These performance will allow significant advances in particle physics, life sciences, quantum optics or other emerging fields where the detection of single photons with excellent timing and position resolutions are simultaneously required.We present the development of a single-photon detector and the connected read-out electronics. This `hybrid' detector is based on a vacuum tube, transmission photocathode, microchannel plate and a pixelated CMOS read-out anode encapsulating the analog and digital-front end electronics. This assembly will be capable of detecting up to $10^9$ photons per second with simultaneous measurement of position and time. The pixelated read-out anode used is based on the Timepix4 ASIC ($65~\mathrm{nm}$ CMOS technology) designed in the framework of the Medipix4 collaboration. This ASIC is an array of $512\times448$ pixels distributed on a $55~\mathrm{\mu m}$ square pitch, with a sensitive area of $\sim 7~\mathrm{cm}^2$. It features $50$-$70~\mathrm{e^{-}}$ equivalent noise charge, a maximum rate of $2.5~\mathrm{Ghits/s}$, and allows to time-stamp the leading-edge time and to measure the Time-over-Threshold (ToT) for each pixel. The pixel-cluster position combined with its ToT information will allow to reach $5$-$10~\mathrm{\mu m}$ position resolution. This information can also be used to correct for the leading-edge time-walk achieving a timing resolution of the order of $10~\mathrm{ps}$. The detector will be highly compact thanks to the encapsulated front-end electronics allowing local data processing and digitization. An FPGA-based data acquisition board, placed far from the detector, will receive the detector hits using $16$ electro-optical links operated at $10.24~\mathrm{Gbps}$. The data acquisition board will decode the information and store the relevant data in a server for offline analysis. These performance will allow significant advances in particle physics, life sciences, quantum optics or other emerging fields where the detection of single photons with excellent timing and position resolutions are simultaneously required.arXiv:2112.10636oai:cds.cern.ch:28139592021-12-20
spellingShingle hep-ex
Particle Physics - Experiment
physics.ins-det
Detectors and Experimental Techniques
Alozy, J.A.
Biesuz, N.V.
Campbell, M.
Cavallini, V.
Cotta Ramusino, A.
Fiorini, M.
Guarise, M.
Cudie, X. Llopart
Development of a single-photon imaging detector with pixelated anode and integrated digital read-out
title Development of a single-photon imaging detector with pixelated anode and integrated digital read-out
title_full Development of a single-photon imaging detector with pixelated anode and integrated digital read-out
title_fullStr Development of a single-photon imaging detector with pixelated anode and integrated digital read-out
title_full_unstemmed Development of a single-photon imaging detector with pixelated anode and integrated digital read-out
title_short Development of a single-photon imaging detector with pixelated anode and integrated digital read-out
title_sort development of a single-photon imaging detector with pixelated anode and integrated digital read-out
topic hep-ex
Particle Physics - Experiment
physics.ins-det
Detectors and Experimental Techniques
url https://dx.doi.org/10.1088/1748-0221/17/06/C06007
http://cds.cern.ch/record/2813959
work_keys_str_mv AT alozyja developmentofasinglephotonimagingdetectorwithpixelatedanodeandintegrateddigitalreadout
AT biesuznv developmentofasinglephotonimagingdetectorwithpixelatedanodeandintegrateddigitalreadout
AT campbellm developmentofasinglephotonimagingdetectorwithpixelatedanodeandintegrateddigitalreadout
AT cavalliniv developmentofasinglephotonimagingdetectorwithpixelatedanodeandintegrateddigitalreadout
AT cottaramusinoa developmentofasinglephotonimagingdetectorwithpixelatedanodeandintegrateddigitalreadout
AT fiorinim developmentofasinglephotonimagingdetectorwithpixelatedanodeandintegrateddigitalreadout
AT guarisem developmentofasinglephotonimagingdetectorwithpixelatedanodeandintegrateddigitalreadout
AT cudiexllopart developmentofasinglephotonimagingdetectorwithpixelatedanodeandintegrateddigitalreadout