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Recent Technological Developments on LGAD and iLGAD Detectors for Tracking and Timing Applications

This paper reports the latest technological development on the Low Gain Avalanche Detector (LGAD) and introduces a new architecture of these detectors called inverse-LGAD (iLGAD). Both approaches are based on the standard Avalanche Photo Diodes (APD) concept, commonly used in optical and X-ray detec...

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Autores principales: Pellegrini, G., Baselga, M., Carulla, M., Fadeyev, V., Fernández-Martínez, P., Fernandez-Garcia, M., Flores, D., Galloway, Z., Gallrapp, C., Hidalgo, S., Liang, Z., Merlos, A., Moll, M., Quirion, D., Sadrozinski, H., Stricker, M., Vila, I.
Lenguaje:eng
Publicado: 2015
Materias:
Acceso en línea:https://dx.doi.org/10.1016/j.nima.2016.05.066
http://cds.cern.ch/record/2104960
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author Pellegrini, G.
Baselga, M.
Carulla, M.
Fadeyev, V.
Fernández-Martínez, P.
Fernandez-Garcia, M.
Flores, D.
Galloway, Z.
Gallrapp, C.
Hidalgo, S.
Liang, Z.
Merlos, A.
Moll, M.
Quirion, D.
Sadrozinski, H.
Stricker, M.
Vila, I.
author_facet Pellegrini, G.
Baselga, M.
Carulla, M.
Fadeyev, V.
Fernández-Martínez, P.
Fernandez-Garcia, M.
Flores, D.
Galloway, Z.
Gallrapp, C.
Hidalgo, S.
Liang, Z.
Merlos, A.
Moll, M.
Quirion, D.
Sadrozinski, H.
Stricker, M.
Vila, I.
author_sort Pellegrini, G.
collection CERN
description This paper reports the latest technological development on the Low Gain Avalanche Detector (LGAD) and introduces a new architecture of these detectors called inverse-LGAD (iLGAD). Both approaches are based on the standard Avalanche Photo Diodes (APD) concept, commonly used in optical and X-ray detection applications, including an internal multiplication of the charge generated by radiation. The multiplication is inherent to the basic n ++ –p + –p structure, where the doping profile of the p + layer is optimized to achieve high field and high impact ionization at the junction. The LGAD structures are optimized for applications such as tracking or timing detectors for high energy physics experiments or medical applications where time resolution lower than 30 ps is required. Detailed TCAD device simulations together with the electrical and charge collection measurements are presented through this work.
id cern-2104960
institution Organización Europea para la Investigación Nuclear
language eng
publishDate 2015
record_format invenio
spelling cern-21049602022-08-10T12:47:54Zdoi:10.1016/j.nima.2016.05.066http://cds.cern.ch/record/2104960engPellegrini, G.Baselga, M.Carulla, M.Fadeyev, V.Fernández-Martínez, P.Fernandez-Garcia, M.Flores, D.Galloway, Z.Gallrapp, C.Hidalgo, S.Liang, Z.Merlos, A.Moll, M.Quirion, D.Sadrozinski, H.Stricker, M.Vila, I.Recent Technological Developments on LGAD and iLGAD Detectors for Tracking and Timing ApplicationsDetectors and Experimental TechniquesParticle Physics - ExperimentThis paper reports the latest technological development on the Low Gain Avalanche Detector (LGAD) and introduces a new architecture of these detectors called inverse-LGAD (iLGAD). Both approaches are based on the standard Avalanche Photo Diodes (APD) concept, commonly used in optical and X-ray detection applications, including an internal multiplication of the charge generated by radiation. The multiplication is inherent to the basic n ++ –p + –p structure, where the doping profile of the p + layer is optimized to achieve high field and high impact ionization at the junction. The LGAD structures are optimized for applications such as tracking or timing detectors for high energy physics experiments or medical applications where time resolution lower than 30 ps is required. Detailed TCAD device simulations together with the electrical and charge collection measurements are presented through this work.This paper reports the last technological development on the Low Gain Avalanche Detector (LGAD) and introduces a new architecture of these detectors called inverse-LGAD (iLGAD). Both approaches are based on the standard Avalanche Photo Diodes (APD) concept, commonly used in optical and X-ray detection applications, including an internal multiplication of the charge generated by radiation. The multiplication is inherent to the basic n++-p+-p structure, where the doping profile of the p+ layer is optimized to achieve high field and high impact ionization at the junction. The LGAD structures are optimized for applications such as tracking or timing detectors for high energy physics experiments or medical applications where time resolution lower than 30 ps is required. Detailed TCAD device simulations together with the electrical and charge collection measurements are presented through this work.arXiv:1511.07175oai:cds.cern.ch:21049602015-11-23
spellingShingle Detectors and Experimental Techniques
Particle Physics - Experiment
Pellegrini, G.
Baselga, M.
Carulla, M.
Fadeyev, V.
Fernández-Martínez, P.
Fernandez-Garcia, M.
Flores, D.
Galloway, Z.
Gallrapp, C.
Hidalgo, S.
Liang, Z.
Merlos, A.
Moll, M.
Quirion, D.
Sadrozinski, H.
Stricker, M.
Vila, I.
Recent Technological Developments on LGAD and iLGAD Detectors for Tracking and Timing Applications
title Recent Technological Developments on LGAD and iLGAD Detectors for Tracking and Timing Applications
title_full Recent Technological Developments on LGAD and iLGAD Detectors for Tracking and Timing Applications
title_fullStr Recent Technological Developments on LGAD and iLGAD Detectors for Tracking and Timing Applications
title_full_unstemmed Recent Technological Developments on LGAD and iLGAD Detectors for Tracking and Timing Applications
title_short Recent Technological Developments on LGAD and iLGAD Detectors for Tracking and Timing Applications
title_sort recent technological developments on lgad and ilgad detectors for tracking and timing applications
topic Detectors and Experimental Techniques
Particle Physics - Experiment
url https://dx.doi.org/10.1016/j.nima.2016.05.066
http://cds.cern.ch/record/2104960
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