Author: "Godiot, S." - Searchworks@Jio Institute Digital Library Search Results

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49 results on '"Godiot, S."'

1. Radiation hard DMAPS pixel sensors in 150nm CMOS technology for operation at LHC

Author: Barbero, M., Barrillon, P., Bespin, C., Bhat, S., Breugnon, P., Caicedo, I., Chen, Z., Degerli, Y., Dingfelder, J., Godiot, S., Guilloux, F., Hemperek, T., Hirono, T., Hügging, F., Krüger, H., Moustakas, K., Ouraou, A., Pangaud, P., Peric, I., Pohl, D-L., Rymaszewski, P., Schwemling, P., Vandenbroucke, M., Wang, T., and Wermes, N.
Subjects: Physics - Instrumentation and Detectors
Abstract: Monolithic Active Pixel Sensors (MAPS) have been developed since the late 1990s employing silicon substrate with a thin epitaxial layer in which deposited charge is collected by disordered diffusion rather than by drift in an electric field. As a consequence the signal is small and slow, and the radiation tolerance is below the requirements for LHC experiments by factors of 100 to 1000. We developed fully depleted (D)MAPS pixel sensors employing a 150 nm CMOS technology and using a high resistivity substrate as well as a high biasing voltage. The development has been carried out in three subsequent iterations, from prototypes to a large pixel matrix comprising a complete readout architecture suitable for LHC operation. Full CMOS electronics is embedded in large deep n-wells which at the same time serve as collection nodes (large electrode design). The devices have been intensively characterized before and after irradiation employing lab tests as well as particle beams. The devices can cope with particle rates seen by the innermost pixel detectors of the LHC pp-experiments or as seen by the outer pixel layers of the planned HL-LHC upgrade. They are radiation hard to particle fluences of at least $10^{15}~\mathrm{n_{eq}/cm^2}$ and total ionization doses of at least 50 Mrad.
Published: 2019
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2. CMOS Monolithic Pixel Sensors based on the Column-Drain Architecture for the HL-LHC Upgrade

Author: Moustakas, K., Barbero, M., Berdalovic, I., Bespin, C., Breugnon, P., Caicedo, I., Cardella, R., Degerli, Y., Plaja, N. Egidos, Godiot, S., Guilloux, F., Hemperek, T., Hirono, T., Krueger, H., Kugathasan, T., Tobon, C. A. Marin, Pangaud, P., Pernegger, H., Schioppa, E. J., Snoeys, W., Vandenbroucke, M., Wang, T., and Wermes, N.
Subjects: Physics - Instrumentation and Detectors
Abstract: Depleted Monolithic Active Pixel Sensors (DMAPS) constitute a promising low cost alternative for the outer layers of the ATLAS experiment Inner Tracker (ITk). Realizations in modern, high resistivity CMOS technologies enhance their radiation tolerance by achieving substantial depletion of the sensing volume. Two DMAPS prototypes that use the same "column-drain" readout architecture and are based on different sensor implementation concepts named LF-Monopix and TJ-Monopix have been developed for the High Luminosity upgrade of the Large Hardon Collider (HL-LHC). LF-Monopix was fabricated in the LFoundry 150 nm technology and features pixel size of $50x250~\mu m^{2}$ and large collection electrode opted for high radiation tolerance. Detection efficiency up to 99\% has been measured after irradiation to $1\cdot10^{15}~n_{eq}/cm^{2}$. TJ-Monopix is a large scale $(1x2~cm^{2})$ prototype featuring pixels of $36x40~\mu m^{2}$ size. It was fabricated in a novel TowerJazz 180 nm modified process that enables full depletion of the sensitive layer, while employing a small collection electrode that is less sensitive to crosstalk. The resulting small sensor capacitance ($<=3~fF$) is exploited by a compact, low power front end optimized to meet the 25ns timing requirement. Measurement results demonstrate the sensor performance in terms of Equivalent Noise Charge (ENC) $\approx11e^{-}$, threshold $\approx300~e^-$, threshold dispersion $\approx30~e^-$ and total power consumption lower than $120~mW/cm^2$.
Published: 2018
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3. Characterization of a depleted monolithic pixel sensors in 150 nm CMOS technology for the ATLAS Inner Tracker upgrade

Author: Iguaz, F. J., Balli, F., Barbero, M., Bhat, S., Breugnon, P., Caicedo, I., Chen, Z., Degerli, Y., Godiot, S., Guilloux, F., Guyot, C., Hemperek, T., Hirono, T., Krüger, H., Meyer, J. P., Ouraou, A., Pangaud, P., Rymaszewski, P., Schwemling, P., Vandenbroucke, M., Wang, T., and Wermes, N.
Subjects: Physics - Instrumentation and Detectors
Abstract: This work presents a depleted monolithic active pixel sensor (DMAPS) prototype manufactured in the LFoundry 150\,nm CMOS process. DMAPS exploit high voltage and/or high resistivity inclusion of modern CMOS technologies to achieve substantial depletion in the sensing volume. The described device, named LF-Monopix, was designed as a proof of concept of a fully monolithic sensor capable of operating in the environment of outer layers of the ATLAS Inner Tracker upgrade in 2025 for the High Luminosity Large Hadron Collider (HL-LHC). This type of devices has a lower production cost and lower material budget compared to presently used hybrid designs. In this work, the chip architecture will be described followed by the characterization of the different pre-amplifier and discriminator flavors with an external injection signal and an iron source (5.9\,keV x-rays)., Comment: 2 pages, 3 figures, proceedings of the 14th Pisa Meeting on Advanced Detectors (PM2018), submitted to Nucl. Instr. Meth. A
Published: 2018
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4. Study of prototypes of LFoundry active and monolithic CMOS pixels sensors for the ATLAS detector

Author: Vigani, L., Bortoletto, D., Ambroz, L., Plackett, R., Hemperek, T., Rymaszewski, P., Wang, T., Krueger, H., Hirono, T., Sierra, I. Caicedo, Wermes, N., Barbero, M., Bhat, S., Breugnon, P., Chen, Z., Godiot, S., Pangaud, P., and Rozanov, A.
Subjects: Physics - Instrumentation and Detectors, High Energy Physics - Experiment
Abstract: High Energy Particle Physics experiments at the LHC use hybrid silicon detectors, in both pixel and strip geometry, for their inner trackers. These detectors have proven to be very reliable and performant. Nevertheless, there is great interest in the development of depleted CMOS silicon detectors, which could achieve similar performances at lower cost of production and complexity. We present recent developments of this technology in the framework of the ATLAS CMOS demonstrator project. In particular, studies of two active sensors from LFoundry, CCPD_LF and LFCPIX, and the first fully monolithic prototype MONOPIX will be shown., Comment: 11 pages, 12 figures, conference proceeding for PSD11
Published: 2017
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5. Depleted fully monolithic CMOS pixel detectors using a column based readout architecture for the ATLAS Inner Tracker upgrade

Author: Wang, T., Barbero, M., Berdalovic, I., Bespin, C., Bhat, S., Breugnon, P., Caicedo, I., Cardella, R., Chen, Z., Degerli, Y., Egidos, N., Godiot, S., Guilloux, F., Hemperek, T., Hirono, T., Krüger, H., Kugathasan, T., Hügging, F., Tobon, C. A. Marin, Moustakas, K., Pangaud, P., Schwemling, P., Pernegger, H., Pohl, D-L., Rozanov, A., Rymaszewski, P., Snoeys, W., and Wermes, N.
Subjects: Physics - Instrumentation and Detectors
Abstract: Depleted monolithic active pixel sensors (DMAPS), which exploit high voltage and/or high resistivity add-ons of modern CMOS technologies to achieve substantial depletion in the sensing volume, have proven to have high radiation tolerance towards the requirements of ATLAS in the high-luminosity LHC era. Depleted fully monolithic CMOS pixels with fast readout architectures are currently being developed as promising candidates for the outer pixel layers of the future ATLAS Inner Tracker, which will be installed during the phase II upgrade of ATLAS around year 2025. In this work, two DMAPS prototype designs, named LF-MonoPix and TJ-MonoPix, are presented. LF-MonoPix was designed and fabricated in the LFoundry 150~nm CMOS technology, and TJ-MonoPix has been designed in the TowerJazz 180~nm CMOS technology. Both chips employ the same readout architecture, i.e. the column drain architecture, whereas different sensor implementation concepts are pursued. The design of the two prototypes will be described. First measurement results for LF-MonoPix will also be shown., Comment: International Workshop on Radiation Imaging Detectors 2017
Published: 2017
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6. Development of a Depleted Monolithic CMOS Sensor in a 150 nm CMOS Technology for the ATLAS Inner Tracker Upgrade

Author: Wang, T., Rymaszewski, P., Barbero, M., Degerli, Y., Godiot, S., Guilloux, F., Hemperek, T., Hirono, T., Krüger, H., Liu, J., Orsini, F., Pangaud, P., Rozanov, A., and Wermes, N.
Subjects: Physics - Instrumentation and Detectors
Abstract: The recent R&D focus on CMOS sensors with charge collection in a depleted zone has opened new perspectives for CMOS sensors as fast and radiation hard pixel devices. These sensors, labelled as depleted CMOS sensors (DMAPS), have already shown promising performance as feasible candidates for the ATLAS Inner Tracker (ITk) upgrade, possibly replacing the current passive sensors. A further step to exploit the potential of DMAPS is to investigate the suitability of equipping the outer layers of the ATLAS ITk upgrade with fully monolithic CMOS sensors. This paper presents the development of a depleted monolithic CMOS pixel sensor designed in the LFoundry 150 nm CMOS technology, with the focus on design details and simulation results.
Published: 2016
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7. DMAPS Monopix developments in large and small electrode designs

Author: Bespin, C., Barbero, M., Barrillon, P., Berdalovic, I., Bhat, S., Breugnon, P., Caicedo, I., Cardella, R., Chen, Z., Degerli, Y., Dingfelder, J., Flores Sanz de Acedo, L., Godiot, S., Guilloux, F., Hirono, T., Hemperek, T., Hügging, F., Krüger, H., Kugathasan, T., Marin Tobon, C., Moustakas, K., Pangaud, P., Pernegger, H., Piro, F., Riedler, P., Rozanov, A., Rymaszewski, P., Schwemling, P., Snoeys, W., Vandenbroucke, M., Wang, T., Wermes, N., and Zhang, S.
Published: 2020
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8. Development of a PCI Express Based Readout Electronics for the XPAD3 X-Ray Photon Counting Image

Author: Dawiec, A., Dinkespiler, B., Breugnon, P., Arnaud, K., Duval, P. -Y., Godiot, S., Hustache, S., Medjoubi, K., Berar, J. -F., Boudet, N., Morel, C., and Bompard, F.
Subjects: Physics - Instrumentation and Detectors
Abstract: XPAD3 is a large surface X-ray photon counting imager with high count rates, large counter dynamics and very fast data readout. Data are readout in parallel by a PCI Express interface using DMA transfer. The readout frame rate of the complete detector comprising 0.5 MPixels amounts to 500 images per second without dead-time., Comment: 17th Real-Time Conference on Real-Time Computer Applications in Nuclear, Particle and Plasma Physics, Lisbonne : Portugal (2010)
Published: 2011

9. XPAD3 hybrid pixel detector applications

Author: Berar, J.-F., Boudet, N., Breugnon, P., Caillot, B., Chantepie, B., Clemens, J.-C., Delpierre, P., Dinkespiller, B., Godiot, S., Meessen, Ch., Menouni, M., Morel, C., Pangaud, P., Vigeolas, E., Hustache, S., and Medjoubi, K.
Published: 2009
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10. Radiation hard DMAPS pixel sensors in 150 nm CMOS technology for operation at LHC

Author: Barbero, M., primary, Barrillon, P., additional, Bespin, C., additional, Bhat, S., additional, Breugnon, P., additional, Caicedo, I., additional, Chen, Z., additional, Degerli, Y., additional, Dingfelder, J., additional, Godiot, S., additional, Guilloux, F., additional, Hemperek, T., additional, Hirono, T., additional, Hügging, F., additional, Krüger, H., additional, Moustakas, K., additional, Ouraou, A., additional, Pangaud, P., additional, Peric, I., additional, Pohl, D.-L., additional, Rymaszewski, P., additional, Schwemling, P., additional, Vandenbroucke, M., additional, Wang, T., additional, and Wermes, N., additional
Published: 2020
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11. Test results and prospects for RD53A, a large scale 65 nm CMOS chip for pixel readout at the HL-LHC

Author: Gaioni, (Gaioni, L, Luigi), Barbero, (Barbero, Mb, ( 1 ), M. B., Fougeron, (Fougeron, D, ( 1 ), D., Godiot, (Godiot, S, ( 1 ), S., Menouni, (Menouni, M, ( 1 ), M., Pangaud, (Pangaud, P, ( 1 ), P., Rozanov, (Rozanov, A, ( 1 ), A., Breugnon, (Breugnon, P, Bomben, (Bomben, M, ( 2 ), M., Calderini, (Calderini, G, ( 2 ), G., Crescioli, (Crescioli, F, ( 2 ), F., Dortz, Le, O (Le Dortz, ( 2 ), O., Marchiori, (Marchiori, G, Dzahini, (Dzahini, D, ( 3 ), D., Rarbi, (Rarbi, Fe, ( 3 ), F. E., Gaglione, (Gaglione, R, ( 4 ), R., Kruger, (Krueger, H, ( 5 ), H., Daas, (Daas, M, ( 5 ), M., Dieter, (Dieter, Y, ( 5 ), Y., Hemperek, (Hemperek, T, ( 5 ), T., Hugging, (Huegging, F, ( 5 ), F., Moustakas, (Moustakas, K, ( 5 ), K., Pohl, (Pohl, D, ( 5 ), D., Rymaszewski, (Rymaszewski, P, ( 5 ), P., Standke, (Standke, M, Vogt, (Vogt, M, Wang, (Wang, T, Wermes, (Wermes, N, ( 5 ), N., Karagounis, (Karagounis, M, Stiller, (Stiller, A, ( 6 ), A., Marzocca, (Marzocca, C, ( 7 ), C., Robertis, De, G (De Robertis, ( 8 ), G., Loddo, (Loddo, F, ( 8 ), F., Licciulli, (Licciulli, F, Andreazza, (Andreazza, A, ( 9, A., 10, ), Liberali, (Liberali, V, V)(, 9, Stabile, (Stabile, A, Frontini, (Frontini, L, ( 9, L., Bagatin, (Bagatin, M, ( 11, M., 12, ), Bisello, (Bisello, D, ( 11, D., Gerardin, (Gerardin, S, ( 11, S., Mattiazzo, (Mattiazzo, S, Paccagnella, (Paccagnella, A, ( 11, A., Vogrig, (Vogrig, D, Bonaldo, (Bonaldo, S, Bacchetta, (Bacchetta, N, ( 11 ), N., ( 13, L., 14, ), Canio, De, F (De Canio, ( 13, F., Manghisoni, (Manghisoni, M, ( 13, M., (Re, V, V)(, 13, Riceputi, (Riceputi, E, ( 13, E., Traversi, (Traversi, G, ( 13, G., Ratti, (Ratti, L, ( 15, L., 16, ), Vacchi, (Vacchi, C, ( 15, C., Androsov, (Androsov, K, ( 18, K., 19, ), Beccherle, (Beccherle, R, ( 17 ), R., Magazzu, (Magazzu, G, ( 17 ), G., Minuti, (Minuti, M, ( 17 ), M., Morsani, (Morsani, F, ( 17 ), F., Palla, (Palla, F, Poulios, (Poulios, S, ( 17 ), S., Bilei, (Bilei, Gm, ( 20 ), G. M., Menichelli, (Menichelli, M, ( 20 ), M., Marconi, S., Placidi, P., Dellacasa, (Dellacasa, G, ( 22 ), G., Demaria, (Demaria, N, ( 22 ), N., Mazza, (Mazza, G, Monteil, (Monteil, E, ( 22 ), E., Pacher, (Pacher, L, ( 22 ), L., Paterno, (Paterno, A, ( 22, A., 23, ), Rivetti, (Rivetti, A, ( 22 ), A., Rolo, Mdd, (Rolo, Da Rocha)( 22 ), M. D., Gajanana, (Gajanana, D, ( 24 ), D., Gromov, (Gromov, V, V)( 24, ), Van, Eijk, B (van Eijk, ( 24 ), B., Kluit, (Kluit, R, ( 24 ), R., Vitkovskiy, (Vitkovskiy, A, ( 24 ), A., Benka, (Benka, T, ( 25 ), T., Havranek, (Havranek, M, ( 25 ), M., Janoska, (Janoska, Z, ( 25 ), Z., Marcisovsky, (Marcisovsky, M, Neue, (Neue, G, ( 25 ), G., Tomasek, (Tomasek, L, ( 25 ), L., Kafka, (Kafka, V, V)( 26, ), Vrba, (Vrba, V, ( 28 ), V., Lopez-Morillo, (Lopez-Morillo, E, ( 28 ), E., Palomo, (Palomo, Fr, ( 28 ), F. R., Munoz, (Munoz, F, ( 28 ), F., Vila, (Vila, I, I)( 27, ), Jimenez, Ems, (Jimenez, ( 27 ), E. M. S., Abbaneo, (Abbaneo, D, ( 29 ), D., Christiansen, (Christiansen, J, ( 29 ), J., Orfanelli, (Orfanelli, S, ( 29 ), S., Casas, Lmj, (Casas, Jara)( 29 ), L. M., Conti, (Conti, E, ( 29 ), E., Bell, (Bell, S, ( 30 ), S., Prydderch, (Prydderch, Ml, ( 30 ), M. L., Thomas, (Thomas, S, Christian, (Christian, Dc, ( 31 ), D. C., Deptuch, (Deptuch, G, ( 31 ), G., Fahim, (Fahim, F, ( 31 ), F., Hoff, (Hoff, J, ( 31 ), J., Lipton, (Lipton, R, ( 31 ), R., Liu, (Liu, T, ( 31 ), T., Zimmerman, (Zimmerman, T, Miryala, (Miryala, S, ( 31 ), S., Garcia-Sciveres, (Garcia-Sciveres, M, ( 32 ), M., Gnani, (Gnani, D, ( 32 ), D., Krieger, (Krieger, A, ( 32 ), A., Papadopoulou, (Papadopoulou, K, ( 32 ), K., Heim, (Heim, T, ( 32 ), T., Carney, (Carney, R, ( 32 ), R., Nachman, (Nachman, B, ( 32 ), B., Renteira, (Renteira, C, ( 32 ), C., Wallangen, (Wallangen, V, V)( 32, ), Hoeferkamp, (Hoeferkamp, M, ( 33 ), M., Seidel, (Seidel, S, ( 33 ), S., Centre de Physique des Particules de Marseille (CPPM), Aix Marseille Université (AMU)-Institut National de Physique Nucléaire et de Physique des Particules du CNRS (IN2P3)-Centre National de la Recherche Scientifique (CNRS), Laboratoire de Physique Nucléaire et de Hautes Énergies (LPNHE (UMR_7585)), Institut National de Physique Nucléaire et de Physique des Particules du CNRS (IN2P3)-Sorbonne Université (SU)-Centre National de la Recherche Scientifique (CNRS)-Université de Paris (UP), Laboratoire de Physique Subatomique et de Cosmologie (LPSC), Institut National de Physique Nucléaire et de Physique des Particules du CNRS (IN2P3)-Centre National de la Recherche Scientifique (CNRS)-Université Grenoble Alpes (UGA)-Institut polytechnique de Grenoble - Grenoble Institute of Technology (Grenoble INP ), Université Grenoble Alpes (UGA), Laboratoire d'Annecy de Physique des Particules (LAPP), Institut National de Physique Nucléaire et de Physique des Particules du CNRS (IN2P3)-Université Savoie Mont Blanc (USMB [Université de Savoie] [Université de Chambéry])-Centre National de la Recherche Scientifique (CNRS), RD53, and Institut National de Physique Nucléaire et de Physique des Particules du CNRS (IN2P3)-Sorbonne Université (SU)-Centre National de la Recherche Scientifique (CNRS)
Subjects: Cmos chip, Nuclear and High Energy Physics, Scale (ratio), BitTorrent tracker, High-luminosity LHC, Low noise analog front-end, 01 natural sciences, Settore ING-INF/01 - Elettronica, 030218 nuclear medicine & medical imaging, 03 medical and health sciences, 0302 clinical medicine, semiconductor detector: pixel, ATLAS, CMS, Pixel readout chip, RD53, Micro-electronics and interconnections [4], 0103 physical sciences, [PHYS.PHYS.PHYS-INS-DET]Physics [physics]/Physics [physics]/Instrumentation and Detectors [physics.ins-det], Detectors and Experimental Techniques, Instrumentation, activity report, radiation: damage, Physics, Large Hadron Collider, Pixel, 010308 nuclear & particles physics, business.industry, radiation: effect, Emphasis (telecommunications), Mixed-signal integrated circuit, Chip, business, Computer hardware, performance, semiconductor detector: design
Abstract: International audience; The CERN RD53 collaboration was founded to tackle the extraordinary challenges associated with the design of pixel readout chips for the innermost layers of particle trackers at future high energy physics experiments. Around 20 institutions are involved in the collaboration, which has the support of both ATLAS and CMS experiments. The goals of the collaboration include the comprehensive understanding of radiation effects in the 65 nm technology, the development of tools and methodology to efficiently design large complex mixed signal chips and, ultimately, the development of a full size readout chip featuring a 400 × 400 pixel array with 50μm pitch. In August 2017, the collaboration submitted the large scale chip RD53A, integrating a matrix of 400 × 192 pixels and embodying three different analog front-end designs. This work discusses the characteristic of the RD53A chip, with some emphasis on the analog processors, and presents the first test results on the pixel array.
Published: 2019

12. Technical Design Report for the ATLAS inner Tracker pixel detector

Author: Allemandou, N.G., Barroca, P., Berger, N., Burger, A.M., Costanza, F., Dartsi, O., David, P.Y., Delebecque, P., Delmastro, M., Ciaccio, L. Di, Elles, S., Falke, P.J., Falke, S., Gaglione, R., Geffroy, N.A., Goy, C., Guillemin, T., Hryn’ova, T., Jézéquel, S., Kivernyk, O., Koletsou, I., Lafaye, R., Levêque, J., Lorenzo Martinez, N., Massol, N., Mastrandrea, P., Nappa, J.M., Prevost, O., Rambure, T.J.D., Raspopov, S., Rummler, A., Sauvan, E., Smart, B., Todorova-Nova, S., Todorov, T., Vallier, A., Vilalte, S., Wingerter-Seez, I., Yatsenko, E., Angelidakis, S., Barbe, W.M., Boumediene, D., Calvet, D., Calvet, S., Donini, J., Gris, Ph., Jimenez Morales, F.A., Madar, R., Marjanovic, M., Nibigira, E., Pallin, D., Santoni, C., Senkin, S., Vazeille, F., Berlendis, S., Camincher, C., Collot, J., Crépé-Renaudin, S., Delsart, P.A., Eraud, L., Genest, M.H., Grondin, D.P., Kuna, M., Ledroit-Guillon, F., Lleres, A., Lucotte, A., Malek, F., Meideck, T., Muraz, J.-F., Petit, E., Readioff, N.P., Scordilis, J.-P., Stark, J., Trocmé, B., Rahal, G., Aad, G., Alstaty, M.I., Barbero, M., Barrillon, P., Bhat, S., Brahimi, N., Breugnon, P., Calandri, A., Chen, Z., Coadou, Y., de Vasconcelos Corga, K., Diaconu, C., Djama, F., Dumitriu, A.E., Duperrin, A., El Kosseifi, R., Ellajosyula, V., Feligioni, L., Fougeron, D., Godiot, S., Guo, Z., Habib, A., Hadef, A., Hallewell, G.D., Hubaut, F., Knoops, E.B.F.G., Kukla, R., Le Guirriec, E., Menouni, M., Monnier, E., Muanza, S., Nagy, E., Nguyen, H.D.N., Pangaud, P., Pralavorio, P., Rivière, F., Rodina, Y., Rozanov, A., Talby, M., Tarna, G., Tisserant, S., Toth, J., Touchard, F., Vacavant, L., Vigeolas, E., Wang, C., Wolff, R., Zhang, R., Abeloos, B., Allaire, C., Alves, M., Bassalat, A., Bourdarios, C., Chomont, A.R., Delgove, D., Delporte, C., de Vivie De Regie, J.B., Duflot, L., Escalier, M., Falou, A., Fayard, L., Fournier, D., Gkougkousis, E.L., Goudet, C.R., Grivaz, J.-F., Guerguichon, A., Han, K., Hohov, D., Hrivnac, J., Iconomidou-Fayard, L., Kado, M., Laudrain, A., Lounis, A., Makovec, N., Morange, N., Petroff, P., Poggioli, L., Puzo, P., Rashid, T., Rousseau, D., Rybkin, G., Sacerdoti, S., Schaffer, A.C., Serin, L., Simion, S., Tanaka, R., Varouchas, D., Zerwas, D., Zhang, Z., Zhao, Y., Beau, T., Bernardi, G., Bomben, M., Calderini, G., Camacho Toro, R., Crescioli, F., D’eramo, L., De Cecco, S., Derue, F., Ducourthial, A., Hankache, R., Krasny, M.W., Lacour, D., Laforge, B., Laplace, S., Laporte, D., Le Dortz, O., Liu, K., Lopez Solis, A., Luise, I., Malaescu, B., Marchiori, G., Nikolic-Audit, I., Ocariz, J., Portillo Quintero, D.M., Ridel, M., Roos, L., Tarek Abouelfadl Mohamed, A., Trincaz-Duvoid, S., Wang, R.-J., Bachacou, H., Balli, F., Bauer, F., Besson, N., Boonekamp, M., Chevalier, L., Degerli, Y., Deliot, F., Etienvre, A.I., Formica, A., Giraud, P.F., Guilloux, F., Guyot, C., Hassani, S., Iguaz Gutierrez, F.J., Jeanneau, F., Kozanecki, W., Laporte, J.F., Le Quilleuc, E.P., Lesage, A.A.J., Mansoulie, B., Meyer, J-P., Neep, T.J., Nicolaidou, R., Ouraou, A., Pacheco Rodriguez, L., Perego, M.M., Peyaud, A., Schoeffel, L., Schune, Ph., Schwemling, Ph., Vandenbroucke, M., Xu, T., Laboratoire d'Annecy de Physique des Particules (LAPP), Institut National de Physique Nucléaire et de Physique des Particules du CNRS (IN2P3)-Université Savoie Mont Blanc (USMB [Université de Savoie] [Université de Chambéry])-Centre National de la Recherche Scientifique (CNRS), Istituto Nazionale di Fisica Nucleare [Pisa] (INFN), Istituto Nazionale di Fisica Nucleare (INFN), Washington University in Saint Louis (WUSTL), Laboratoire de l'Accélérateur Linéaire (LAL), Université Paris-Sud - Paris 11 (UP11)-Institut National de Physique Nucléaire et de Physique des Particules du CNRS (IN2P3)-Centre National de la Recherche Scientifique (CNRS), Laboratoire de Physique de Clermont (LPC), Institut National de Physique Nucléaire et de Physique des Particules du CNRS (IN2P3)-Université Clermont Auvergne [2017-2020] (UCA [2017-2020])-Centre National de la Recherche Scientifique (CNRS), Laboratoire de Physique Subatomique et de Cosmologie (LPSC), Institut polytechnique de Grenoble - Grenoble Institute of Technology (Grenoble INP )-Institut National de Physique Nucléaire et de Physique des Particules du CNRS (IN2P3)-Centre National de la Recherche Scientifique (CNRS)-Université Grenoble Alpes [2016-2019] (UGA [2016-2019]), Centre de Calcul de l'IN2P3 (CC-IN2P3), Institut National de Physique Nucléaire et de Physique des Particules du CNRS (IN2P3)-Centre National de la Recherche Scientifique (CNRS), Centre de Physique des Particules de Marseille (CPPM), Aix Marseille Université (AMU)-Institut National de Physique Nucléaire et de Physique des Particules du CNRS (IN2P3)-Centre National de la Recherche Scientifique (CNRS), Laboratoire de Physique Nucléaire et de Hautes Énergies (LPNHE (UMR_7585)), Institut National de Physique Nucléaire et de Physique des Particules du CNRS (IN2P3)-Université Paris Diderot - Paris 7 (UPD7)-Sorbonne Université (SU)-Centre National de la Recherche Scientifique (CNRS), Institut de Recherches sur les lois Fondamentales de l'Univers (IRFU), Commissariat à l'énergie atomique et aux énergies alternatives (CEA)-Université Paris-Saclay, CERN, and ATLAS
Subjects: [PHYS.HEXP]Physics [physics]/High Energy Physics - Experiment [hep-ex]
Abstract: This is the second of two Technical Design Report documents that describe the upgrade of the central tracking system for the ATLAS experiment for the operation at the High Luminosity LHC (HL-LHC) starting in the middle of 2026. At that time the LHC will have been upgraded to reach a peak instantaneous luminosity of "7.5\times 10$^{34}$ cm$^{-2}$s$^{-1}$", which corresponds to an average of about 200 inelastic proton-proton collisions per beam-crossing. The new Inner Tracker (ITk) will be operational for more than ten years, during which time ATLAS aims to accumulate a total data set of 4000 fb$^{-1}$. Many of the features of the tracker have already been presented in the first Technical Design Report that detailed the construction of the ITk Strip Tracker. That report was published in April 2017. This document focuses on the ITk Pixel Detector. A baseline design is described in detail, and the motivations for the chosen technologies are illustrated. In some cases, alternative solutions are also illustrated. In this case, we indicate the advantage in pursuing the other designs, and describe the time line for a decision. The design, construction and expected performance are set out in detail. When considering performance we pay particular attention to those parameters that are determined by the performance of the Pixel Detector. We describe in detail the design and construction of the Pixel Detector, including the results of measurements of prototype modules and associated support structures and we explain the status of the plans for their mass production. We present details of the decommissioning of the existing tracking detector and the replacement of the inner layers of the ITk Pixel Detector part way through the lifetime of the High Luminosity LHC. Finally, we describe the costing and schedule, including major milestones, to construct the detector.
Published: 2018

13. Characterization of a depleted monolithic pixel sensors in 150 nm CMOS technology for the ATLAS Inner Tracker upgrade

Author: Iguaz, F.J., primary, Balli, F., additional, Barbero, M., additional, Bhat, S., additional, Breugnon, P., additional, Caicedo, I., additional, Chen, Z., additional, Degerli, Y., additional, Godiot, S., additional, Guilloux, F., additional, Guyot, C., additional, Hemperek, T., additional, Hirono, T., additional, Krüger, H., additional, Meyer, J.P., additional, Ouraou, A., additional, Pangaud, P., additional, Rymaszewski, P., additional, Schwemling, P., additional, Vandenbroucke, M., additional, Wang, T., additional, and Wermes, N., additional
Published: 2019
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14. CMOS monolithic pixel sensors based on the column-drain architecture for the HL-LHC upgrade

Author: Moustakas, K., primary, Barbero, M., additional, Berdalovic, I., additional, Bespin, C., additional, Breugnon, P., additional, Caicedo, I., additional, Cardella, R., additional, Degerli, Y., additional, Egidos Plaja, N., additional, Godiot, S., additional, Guilloux, F., additional, Hemperek, T., additional, Hirono, T., additional, Krüger, H., additional, Kugathasan, T., additional, Marin Tobon, C.A., additional, Pangaud, P., additional, Pernegger, H., additional, Riedler, P., additional, Rymaszewski, P., additional, Schioppa, E.J., additional, Snoeys, W., additional, Vandenbroucke, M., additional, Wang, T., additional, and Wermes, N., additional
Published: 2019
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15. The Monopix chips: depleted monolithic active pixel sensors with a column-drain read-out architecture for the ATLAS Inner Tracker upgrade

Author: Caicedo, I., primary, Barbero, M., additional, Barrillon, P., additional, Berdalovic, I., additional, Bhat, S., additional, Bespin, C., additional, Breugnon, P., additional, Cardella, R., additional, Chen, Z., additional, Degerli, Y., additional, Dingfelder, J., additional, Godiot, S., additional, Guilloux, F., additional, Hirono, T., additional, Hemperek, T., additional, Hügging, F., additional, Krüger, H., additional, Kugathasan, T., additional, Moustakas, K., additional, Pangaud, P., additional, Pernegger, H., additional, Pohl, D.-L., additional, Riedler, P., additional, Rozanov, A., additional, Rymaszewski, P., additional, Schwemling, P., additional, Snoeys, W., additional, Vandenbroucke, M., additional, Wang, T., additional, and Wermes, N., additional
Published: 2019
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16. RD53A: a large scale prototype for HL-LHC silicon pixel detector phase 2 upgrades

Author: Monteil, Ennio, primary, Barbero, M., additional, Fougeron, D., additional, Godiot, S., additional, Menouni, M., additional, Pangaud, P., additional, Rozanov, A., additional, Breugnon, P., additional, Bomben, Marco, additional, Calderini, G., additional, Crescioli, F., additional, Marchiori, G., additional, Dzahini, D., additional, Rarbi, F.E., additional, Gaglione, R., additional, Krueger, H., additional, Hemperek, T., additional, Huegging, F., additional, Rymazewski, P., additional, Vogt, M., additional, Wang, T., additional, Wermes, N., additional, Karagounis, M., additional, Marzocca, C., additional, Loddo, F., additional, Licciulli, F., additional, Andreazza, A., additional, Liberali, V., additional, Stabile, A., additional, Frontini, L., additional, Bagatin, M., additional, Bisello, D., additional, Gerardin, S., additional, Mattiazzo, S., additional, Paccagnella, A., additional, Vogrig, D., additional, Bonaldo, S., additional, Bacchetta, N., additional, Gaioni, L., additional, Manghisoni, M., additional, Re, V., additional, Riceputi, E., additional, Traversi, G., additional, Ratti, L., additional, Vacchi, C., additional, Androsov, K., additional, Beccherle, R., additional, Magazzù, G., additional, Minuti, M., additional, Morsani, F., additional, Palla, F., additional, Poulios, S., additional, Bilei, G.M., additional, Menichelli, M., additional, Placidi, P., additional, Marconi, S., additional, Dellacasa, G., additional, Demaria, N., additional, Mazza, G., additional, Monteil, E., additional, Pacher, L., additional, Rivetti, A., additional, Paternò, A., additional, Gajanna, D., additional, Gromov, V., additional, Kluit, R., additional, Vitkovskiy, A., additional, Benka, T., additional, Havranek, M., additional, Janoska, Z., additional, Marcisovsky, M., additional, Neue, G., additional, Tomasek, L., additional, Kafka, V., additional, Vrba, V., additional, Lopez-Morillo, E., additional, Palomo, F.R., additional, Munoz, F., additional, Vila, Ivan, additional, Jiménez, E., additional, Abbaneo, D., additional, Christiansen, J., additional, Orfanelli, S., additional, Bell, S.J.M., additional, Prydderch, M., additional, Thomas, S., additional, Christian, D.C., additional, Deptuch, G., additional, Fahim, F., additional, Hoff, J., additional, Zimmerman, T., additional, Miryala, S., additional, Garcia-Sciveres, M., additional, Gnani, D., additional, Krieger, A., additional, Papadopoulou, K., additional, Heim, T., additional, Carney, R., additional, Nachman, Benjamin, additional, Renteira, C., additional, Wallangen, V., additional, Hoeferkamp, M.R., additional, Seidel, S., additional, Daas, M., additional, Dieter, Y., additional, Moustakas, K., additional, Stiller, A., additional, Lipton, R., additional, and Liu, T. C., additional
Published: 2019
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17. Design implementation and test results of the RD53A, a 65 nm large scale chip for next generation pixel detectors at the HL-LHC

Author: Marconi, S., primary, Barbero, M. B., additional, Fougeron, D., additional, Godiot, S., additional, Menouni, M., additional, Pangaud, P., additional, Rozanov, A., additional, Breugnon, P., additional, Bomben, M., additional, Calderini, G., additional, Crescioli, F., additional, Dortz, O. Le, additional, Marchiori, G., additional, Dzahini, D., additional, Rarbi, F. E., additional, Gaglione, R., additional, Kruger, H., additional, Daas, M., additional, Dieter, Y., additional, Hemperek, T., additional, Hugging, F., additional, Moustakas, K., additional, Pohl, D., additional, Rymaszewski, P., additional, Standke, M., additional, Vogt, M., additional, Wang, T., additional, Wermes, N., additional, Karagounis, M., additional, Stiller, A., additional, Marzocca, C., additional, Marzocca, G., additional, De Robertis, G., additional, Loddo, F., additional, Licciulli, F., additional, Andreazza, A., additional, Liberali, V., additional, Stabile, A., additional, Frontini, L., additional, Bagatin, M., additional, Bisello, D., additional, Gerardin, S., additional, Mattiazzo, S., additional, Paccagnella, A., additional, Vogrig, D., additional, Bonaldo, S., additional, Bacchetta, N., additional, Gaioni, L., additional, De Canio, F., additional, Manghisoni, M., additional, Re, V., additional, Riceputi, E., additional, Traversi, G., additional, Ratti, L., additional, Vacchi, C., additional, Androsov, K., additional, Beccherle, R., additional, Magazzu, G., additional, Minuti, M., additional, Morsani, F., additional, Palla, F., additional, Poulios, S., additional, Bilei, G. M., additional, Menichelli, M., additional, Placidi, P., additional, Dellacasa, G., additional, Demaria, N., additional, Mazza, G., additional, Monteil, E., additional, Pacher, L., additional, Paterno, A., additional, Rivetti, A., additional, Da Rocha Rolo, M. D., additional, Gajanana, D., additional, Gromov, V., additional, van Eijk, B., additional, Kluit, R., additional, Vitkovskiy, A., additional, Benka, T., additional, Havranek, M., additional, Janoska, Z., additional, Marcisovsky, M., additional, Neue, G., additional, Tomasek, L., additional, Kafka, V., additional, Vrba, V., additional, Lopez-Morillo, E., additional, Palomo, F. R., additional, Munoz, F., additional, Vila, I., additional, Jimenez, E. M. S., additional, Abbaneo, D., additional, Christiansen, J., additional, Orfanelli, S., additional, Jara Casas, L. M., additional, Conti, E., additional, Bell, S., additional, Prydderch, M. L., additional, Thomas, S., additional, Christian, D. C., additional, Deptuch, G., additional, Fahim, F., additional, Hoff, J., additional, Lipton, R., additional, Liu, T., additional, Zimmerman, T., additional, Miryala, S., additional, Garcia-Sciveres, M., additional, Gnani, D., additional, Krieger, A., additional, Papadopoulou, K., additional, Heim, T., additional, Carney, R., additional, Nachman, B., additional, Renteira, C., additional, Wallangen, V., additional, Hoeferkamp, M., additional, and Seidel, S., additional
Published: 2018
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18. Depleted fully monolithic CMOS pixel detectors using a column based readout architecture for the ATLAS Inner Tracker upgrade

Author: Wang, T., primary, Barbero, M., additional, Berdalovic, I., additional, Bespin, C., additional, Bhat, S., additional, Breugnon, P., additional, Caicedo, I., additional, Cardella, R., additional, Chen, Z., additional, Degerli, Y., additional, Egidos, N., additional, Godiot, S., additional, Guilloux, F., additional, Hemperek, T., additional, Hirono, T., additional, Krüger, H., additional, Kugathasan, T., additional, Hügging, F., additional, Tobon, C.A. Marin, additional, Moustakas, K., additional, Pangaud, P., additional, Schwemling, P., additional, Pernegger, H., additional, Pohl, D-L., additional, Rozanov, A., additional, Rymaszewski, P., additional, Snoeys, W., additional, and Wermes, N., additional
Published: 2018
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19. Study of prototypes of LFoundry active CMOS pixels sensors for the ATLAS detector

Author: Vigani, L., primary, Bortoletto, D., additional, Ambroz, L., additional, Plackett, R., additional, Hemperek, T., additional, Rymaszewski, P., additional, Wang, T., additional, Krueger, H., additional, Hirono, T., additional, Sierra, I. Caicedo, additional, Wermes, N., additional, Barbero, M., additional, Bhat, S., additional, Breugnon, P., additional, Chen, Z., additional, Godiot, S., additional, Pangaud, P., additional, and Rozanov, A., additional
Published: 2018
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20. Characterization of a new HV/HR CMOS Sensor in LF150nm Process for the ATLAS Inner Tracker Upgrade

Author: Degerli, Y., primary, Balli, F., additional, Barbero, M., additional, Bhat, S., additional, Breugnon, P., additional, Chen, Z., additional, Elhosni, M., additional, Godiot, S., additional, Guilloux, F., additional, Guyot, C., additional, Hemperek, T., additional, Hirono, T., additional, Iguaz, F. J., additional, Kruger, H., additional, Lachkar, M., additional, Liu, J., additional, Meyer, J. P., additional, Ouraou, A., additional, Pangaud, P., additional, Rymaszewski, P., additional, Rozanov, A., additional, Schwemling, P., additional, Vandenbroucke, M., additional, and Wermes, N., additional
Published: 2017
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21. Design of analog front-ends for the RD53 demonstrator chip

Author: Gaioni, Luigi, primary, De Canio, F, additional, Nodari, B, additional, Manghisoni, M, additional, Re, V, additional, Traversi, G, additional, Barbero, M.B, additional, Fougeron, Denis, additional, Gensolen, F, additional, Godiot, S, additional, Menouni, M, additional, Pangaud, P, additional, Rozanov, A, additional, Wang, A, additional, Bomben, M, additional, Calderini, G, additional, Crescioli, F, additional, Le Dortz, O, additional, Marchiori, G, additional, Dzahini, D, additional, Rarbi, F.E, additional, Gaglione, R, additional, Gonella, L, additional, Hemperek, T, additional, Huegging, F, additional, Karagounis, M, additional, Kishishita, T, additional, Krueger, H, additional, Rymaszewski, P, additional, Wermes, N, additional, Ciciriello, Fabio, additional, Corsi, F, additional, Marzocca, C, additional, De Robertis, G, additional, Loddo, F, additional, Licciulli, F, additional, Andreazza, A, additional, Liberali, V, additional, Shojaii, S, additional, Stabile, A, additional, Bagatin, M, additional, Bisello, D, additional, Mattiazzo, S, additional, Ding, L, additional, Gerardin, S, additional, Giubilato, P, additional, Neviani, A, additional, Paccagnella, A, additional, Vogrig, D, additional, Wyss, J, additional, Bacchetta, N, additional, Della Casa, G, additional, Demaria, N, additional, Mazza, G, additional, Rivetti, A, additional, Da Rocha Rolo, M.D, additional, Comotti, D, additional, Ratti, L, additional, Vacchi, C, additional, Beccherle, R, additional, Bellazzini, R, additional, Magazzu, G, additional, Minuti, M, additional, Morsani, F, additional, Palla, Fabrizio, additional, Poulios, S, additional, Fanucci, L, additional, Rizzi, A, additional, Saponara, S, additional, Androsov, K, additional, Bilei, G M, additional, Menichelli, M, additional, Conti, E, additional, Marconi, S, additional, Passeri, Daniele, additional, Placidi, P, additional, Monteil, E, additional, Pacher, L, additional, Gajanana, D, additional, Gromov, V, additional, Hessey, N, additional, Kluit, R, additional, Zivkovic, V, additional, Havranek, M, additional, Janoska, Z, additional, Marcisovsky, M, additional, Neue, G, additional, Tomasek, L, additional, Kafka, V, additional, Sicho, P, additional, Vrba, V, additional, Vila, I, additional, Lopez-Morillo, E, additional, Aguirre, M.A, additional, Palomo, F.R, additional, Munoz, F, additional, Abbaneo, D, additional, Christiansen, J, additional, Dannheim, D, additional, Dobos, D, additional, Linssen, L, additional, Pernegger, H, additional, Valerio, P, additional, Alipour Tehrani, N, additional, Bell, S, additional, Prydderch, M.L, additional, Thomas, S, additional, Christian, D.C, additional, Fahim, F, additional, Hoff, J, additional, Lipton, R, additional, Liu, T, additional, Zimmerman, T, additional, Garcia-Sciveres, M, additional, Gnani, D, additional, Mekkaoui, A, additional, Gorelov, I, additional, Hoeferkamp, M, additional, Seidel, S, additional, Toms, K, additional, De Witt, J.N, additional, Grillo, A, additional, and Paternò, Andrea, additional
Published: 2017
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22. Development of a Depleted Monolithic CMOS Sensor in a 150 nm CMOS Technology for the ATLAS Inner Tracker Upgrade

Author: Wang, T., primary, Rymaszewski, P., additional, Barbero, M., additional, Degerli, Y., additional, Godiot, S., additional, Guilloux, F., additional, Hemperek, T., additional, Hirono, T., additional, Krüger, H., additional, Liu, J., additional, Orsini, F., additional, Pangaud, P., additional, Rozanov, A., additional, and Wermes, N., additional
Published: 2017
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23. Pixel architectures in a HV-CMOS process for the ATLAS inner detector upgrade

Author: Degerli, Y., primary, Godiot, S., additional, Guilloux, F., additional, Hemperek, T., additional, Krüger, H., additional, Lachkar, M., additional, Liu, J., additional, Orsini, F., additional, Pangaud, P., additional, Rymaszewski, P., additional, and Wang, T., additional
Published: 2016
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24. Recent progress of RD53 Collaboration towards next generation Pixel Read-Out Chip for HL-LHC

Author: Demaria, N., primary, Barbero, M.B., additional, Fougeron, D., additional, Gensolen, F., additional, Godiot, S., additional, Menouni, M., additional, Pangaud, P., additional, Rozanov, A., additional, Wang, A., additional, Bomben, M., additional, Calderini, G., additional, Crescioli, F., additional, Dortz, O. Le, additional, Marchiori, G., additional, Dzahini, D., additional, Rarbi, F.E., additional, Gaglione, R., additional, Gonella, L., additional, Hemperek, T., additional, Huegging, F., additional, Karagounis, M., additional, Kishishita, T., additional, Krueger, H., additional, Rymaszewski, P., additional, Wermes, N., additional, Ciciriello, F., additional, Corsi, F., additional, Marzocca, C., additional, Robertis, G. De, additional, Loddo, F., additional, Licciulli, F., additional, Andreazza, A., additional, Liberali, V., additional, Shojaii, S., additional, Stabile, A., additional, Bagatin, M., additional, Bisello, D., additional, Mattiazzo, S., additional, Ding, L., additional, Gerardin, S., additional, Giubilato, P., additional, Neviani, A., additional, Paccagnella, A., additional, Vogrig, D., additional, Wyss, J., additional, Bacchetta, N., additional, Canio, F. De, additional, Gaioni, L., additional, Nodari, B., additional, Manghisoni, M., additional, Re, V., additional, Traversi, G., additional, Comotti, D., additional, Ratti, L., additional, Vacchi, C., additional, Beccherle, R., additional, Bellazzini, R., additional, Magazzu, G., additional, Minuti, M., additional, Morsani, F., additional, Palla, F., additional, Poulios, S., additional, Fanucci, L., additional, Rizzi, A., additional, Saponara, S., additional, Androsov, K., additional, Bilei, G.M., additional, Menichelli, M., additional, Conti, E., additional, Marconi, S., additional, Passeri, D., additional, Placidi, P., additional, Casa, G. Della, additional, Mazza, G., additional, Rivetti, A., additional, Rolo, M.D. Da Rocha, additional, Monteil, E., additional, Pacher, L., additional, Gajanana, D., additional, Gromov, V., additional, Hessey, N., additional, Kluit, R., additional, Zivkovic, V., additional, Havranek, M., additional, Janoska, Z., additional, Marcisovsky, M., additional, Neue, G., additional, Tomasek, L., additional, Kafka, V., additional, Sicho, P., additional, Vrba, V., additional, Vila, I., additional, Lopez-Morillo, E., additional, Aguirre, M.A., additional, Palomo, F.R., additional, Muñoz, F., additional, Abbaneo, D., additional, Christiansen, J., additional, Dannheim, D., additional, Dobos, D., additional, Linssen, L., additional, Pernegger, H., additional, Valerio, P., additional, Tehrani, N. Alipour, additional, Bell, S., additional, Prydderch, M.L., additional, Thomas, S., additional, Christian, D.C., additional, Fahim, F., additional, Hoff, J., additional, Lipton, R., additional, Liu, T., additional, Zimmerman, T., additional, Garcia-Sciveres, M., additional, Gnani, D., additional, Mekkaoui, A., additional, Gorelov, I., additional, Hoeferkamp, M., additional, Seidel, S., additional, Toms, K., additional, Witt, J.N. De, additional, Grillo, A., additional, and Paternò, A., additional
Published: 2016
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25. CMOS pixel sensors on high resistive substrate for high-rate, high-radiation environments

Author: Hirono, T., Barbero, M., Breugnon, P., Godiot, S., Hemperek, T., Hügging, F., Krüger, H., Liu, J., Pangaud, P., Pohl, D.-L., Rozanov, A., Rymaszewski, P., Wermes, N., Cristofol, Danielle, Centre de Physique des Particules de Marseille (CPPM), and Aix Marseille Université (AMU)-Institut National de Physique Nucléaire et de Physique des Particules du CNRS (IN2P3)-Centre National de la Recherche Scientifique (CNRS)
Subjects: Active pixel sensor, [PHYS.HEXP] Physics [physics]/High Energy Physics - Experiment [hep-ex], [PHYS.PHYS.PHYS-INS-DET] Physics [physics]/Physics [physics]/Instrumentation and Detectors [physics.ins-det], MAPS, [PHYS.HEXP]Physics [physics]/High Energy Physics - Experiment [hep-ex], [PHYS.PHYS.PHYS-INS-DET]Physics [physics]/Physics [physics]/Instrumentation and Detectors [physics.ins-det], Pixel detector, CMOS sensor
Abstract: In Press, Corrected Proof, Available online 4 February 2016 ;Please citethisarticleas:T.Hirono,etal.,NuclearInstruments&MethodsinPhysicsResearchA(2016), http://dx.doi.org/10.1016/j.nima.2016.01.088i; International audience; A depleted CMOS active pixel sensor (DMAPS) has been developed on a substrate with high resistivity in a high voltage process. High radiation tolerance and high time resolution can be expected because of the charge collection by drift. A prototype of DMAPS was fabricated in a 150. nm process by LFoundry. Two variants of the pixel layout were tested, and the measured depletion depths of the variants are 166. μm and 80. μm. We report the results obtained with the prototype fabricated in this technology.
Published: 2015

26. Prototype active silicon sensor in LFoundry 150nm HV/HR-CMOS technology for ATLAS inner detector upgrade

Author: Barbero, M., Breugnon, P., Godiot, S., Liu, J., Pangaud, P., Rozanov, A., Wang, A., Peric, I., Gonella, L., Hemperek, T., Hirono, T., Hügging, F., Krüger, H., Rymasewski, P., and Wermes, N.
Subjects: ddc:620, Engineering & allied operations
Published: 2015

27. 65nm technology for HEP: status et perspective

Author: Valerio, P., Barbero, M.B., Fougeron, D., Gensolen, F., Godiot, S., Menouni, M., Pangaud, P., Rozanov, A., Wang, A., Bomben, M., Calderini, G., Crescioli, F., Genat, J.-F., Dortz, O. Le, Marchiori, G., Dzahini, Daniel, Rarbi, F.E., Gaglione, R., Gonella, L., Hemperek, T., Huegging, F., Karagounis, M., Kishishita, T., Krueger, H., Rymaszewski, P., Wermes, N., Ciciriello, F., Corsi, F., Licciulli, F., Marzocca, C., Robertis, G. De, Loddo, F., Tamma, C., Andreazza, A., Liberali, V., Shojaii, S., Stabile, A., Bagatin, M., Bisello, D., Mattiazzo, S., Ding, L., Gerardin, S., Giubilato, P., Neviani, A., Paccagnella, A., Vogrig, D., Wyss, J., Bacchetta, N., Canio, F. De, Gaioni, L., Nodari, B., Manghisoni, M., Re, V., Traversi, G., Comotti, D., Ratti, L., Vacchi, C., Beccherle, R., Bellazzini, R., Magazzu, G., Minuti, M., Morsani, F., Palla, F., Fanucci, L., Rizzi, A, Saponara, S., Androsov, K., Bilei, G.M., Menichelli, M., Conti, E., Marconi, S., Passeri, D., Placidi, P., Casa, G. Della, Demaria, N., Mazza, G., Rivetti, A., Rolo, M.D. Da Rocha, Monteil, E., Pacher, L., Gajanana, D., Gromov, V., Hessey, N., Kluit, R., Zivkovic, V., Havranek, M., Janoska, Z., Marcisovsky, M., Neue, G., Kafka, V., Sicho, P., Vrba, V., Vila, I., Aguirre, M.A., Muñoz, F., Palomo, F.R., Abbaneo, D., Christiansen, J., Dannheim, D., Dobos, D., Linssen, L., Pernegger, H., Tehrani, N.Alipour, Bell, S., Prydderch, M.L., Thomas, S., Christian, D.C., Deptuch, G., Fahim, F., Hoff, J., Lipton, R., Liu, T., Zimmerman, T., Garcia-Sciveres, M., Gnani, D., Mekkaoui, A., Gorelov, I., Hoeferkamp, M., Seidel, S., Toms, K., Witt, J.N. De, Grillo, A., Centre de Physique des Particules de Marseille (CPPM), and Aix Marseille Université (AMU)-Institut National de Physique Nucléaire et de Physique des Particules du CNRS (IN2P3)-Centre National de la Recherche Scientifique (CNRS)
Subjects: [PHYS.HEXP]Physics [physics]/High Energy Physics - Experiment [hep-ex], [PHYS.PHYS.PHYS-INS-DET]Physics [physics]/Physics [physics]/Instrumentation and Detectors [physics.ins-det], [SPI.NANO]Engineering Sciences [physics]/Micro and nanotechnologies/Microelectronics
Abstract: International audience; The development of new experiments such as CLIC and the the foreseen Phase 2 pixel upgradesof ATLAS and CMS have very challenging requirements for the design of hybrid pixel readoutchips, both in terms of performances and reliability. To face these challenges, the use of a moredownscaled CMOS technology compared to previous projects is necessary. The CERN RD53collaboration is undertaking a R&D programme to evaluate the use of a commercial 65 nm technologyand to develop tools and frameworks which will help to design future pixel detectors. Thispaper gives a short overview of the RD53 collaboration activities and describes some examplesof recent developments.
Published: 2014

28. HL-LHC/ATLAS Hybrid Pixel Detector Upgrade : Test Results of the First 3D-IC Prototype

Author: Arutinov, D., Barbero, M., Bompard, F., Breugnon, P., Clemens, J.-C., Fougeron, D., Garcia-Sciveres, M., Godiot, S., Hemperek, T., Kruger, H., Liu, J., Obermann, T., Rozanov, A., Wermes, N., Centre de Physique des Particules de Marseille (CPPM), Aix Marseille Université (AMU)-Institut National de Physique Nucléaire et de Physique des Particules du CNRS (IN2P3)-Centre National de la Recherche Scientifique (CNRS), and Cristofol, Danielle
Subjects: [PHYS.PHYS.PHYS-INS-DET] Physics [physics]/Physics [physics]/Instrumentation and Detectors [physics.ins-det], Physics::Instrumentation and Detectors, [PHYS.PHYS.PHYS-INS-DET]Physics [physics]/Physics [physics]/Instrumentation and Detectors [physics.ins-det]
Abstract: Vertex detectors for High Energy Physics experiments require pixel detectors featuring high spatial resolution, very good signal to noise ratio and radiation hardness. A way to face new challenges brought by the upgrades of Large Hadron Collider (LHC) at CERN, called High Luminosity LHC (HL-LHC) and ATLAS future hybrid pixel vertex detectors is to use the emerging 3D Integrated Technologies. However, commercial offers of such technologies are only very few and the 3D designer's choice is as a consequence strongly constrained. Moreover, as radiation hardness and in particular SEU tolerance of configuration registers is a crucial issue for HL-LHC vertex detectors, and as commercial data on this topic are always missing, a reliable qualification program is to be developed for any candidate technology. We present here the test of GlobalFoundries 130 nm chips processed by the Tezzaron Company, submitted within the 3D-IC consortium. Reliability and influence on the integrated devices behavior of Bond Interface (BI) and Through Silicon Via (TSV) connections, both needed for the 3D integration process, has also been addressed by the tests.
Published: 2013

29. Prototype Active Silicon Sensor in 150 nm HR-CMOS technology for ATLAS Inner Detector Upgrade

Author: Rymaszewski, P., primary, Barbero, M., additional, Breugnon, P., additional, Godiot, S., additional, Gonella, L., additional, Hemperek, T., additional, Hirono, T., additional, Hügging, F., additional, Krüger, H., additional, Liu, J., additional, Pangaud, P., additional, Peric, I., additional, Rozanov, A., additional, Wang, A., additional, and Wermes, N., additional
Published: 2016
Full Text: View/download PDF

30. Test Results of the first 3D-IC Prototype Chip Developed in the Framework of HL-SLHC/ATLAS Hybrid Pixel Upgrade

Author: Pangaud, P., Arutinov, D., B. Barbero, M., Bompard, F., Breugnon, P., Clémens, J.-C., Fougeron, D., Garcia-Sciveres, M., Godiot, S., Krüeger, H., Obermann, T., Rozanov, A., Wermes, N., Centre de Physique des Particules de Marseille (CPPM), Aix Marseille Université (AMU)-Institut National de Physique Nucléaire et de Physique des Particules du CNRS (IN2P3)-Centre National de la Recherche Scientifique (CNRS), and Cristofol, Danielle
Subjects: [SPI.NANO] Engineering Sciences [physics]/Micro and nanotechnologies/Microelectronics, [SPI.NANO]Engineering Sciences [physics]/Micro and nanotechnologies/Microelectronics
Abstract: Published in the Journal of Instrumentation (JINST) Proceedings Section; To face new challenges brought by the upgrades of the Large Hadron Collider at CERN and of ATLAS pixels detector, for which high spatial resolution, very good signal to noise ratio and high radiation hardness are needed, 3D Integrated Technologies are investigated. Commercial offers of such technologies are only very few and the 3D designer's choice is as a consequence strongly constrained. We present here the test results of the first 3D prototype chip developed in the GlobalFoundries 130 nm chips processed by the Tezzaron Company, submitted within the 3D-IC consortium for which a reliable qualification program was developed. Reliability and influence on the integrated devices behavior of Bond Interface (BI) and Through Silicon Via (TSV) connections, both needed for the 3D integration process, has also been addressed by the tests.
Published: 2013

31. Contribution du CNRS/IN2P3 à l'upgrade d'ATLAS. Proposition soumise au Conseil Scientifique de l'IN2P3 du 21 Juin 2012

Author: Bee, C., Bombard, F., Bousson, N., Breugnon, P., Coadou, Y., Clemens, J.-C., Djama, F., Feligioni, L., Fougeron, D., Gastaldi, T., Gensolen, F., Godiot, S., Hallewell, G., Jevaud, M., Hubaut, F., Knoops, E., Le Guirriec, E., Mathieu, M., Meessen, C., Menouni, M., Monnier, E., Muanza, S., Pangaud, P., Pralavorio, P., Riviere, F., Rozanov, A., Talby, M., Tisserant, S., Touchard, F., Vacavant, L., Vigeolas, E., Arnault, C., Bassalat, A., Binet, S., Breton, D., Bourdarios, C., de Vivie de Regie, J.B., Dinu, N., Duflot, L., Escalier, M., Falou, A., Fayard, L., Fournier, D., Grivaz, J.-F., Henrot-Versille, S., Hrivnac, J., Iconomidou-Fayard, L., Kado, M., Linhart, V., Lounis, A., Makovec, N., Martin-Chassard, G., Poggioli, L., Rousseau, D., Rybkin, G., Schaarschmidt, J., Schaffer, A.C., Seguin-Moreau, N., Simion, S., Tanaka, R., Thienpont, D., Zerwas, D., Zhang, Zhiqing, Ballansat, J., Baudin, P., Bazan, A., Bellachia, F., Berger, N., Cap, S., David, P.-Y., Delebecque, P., Delmastro, M., Di Ciaccio, L., Drancourt, C., Dumont-Dayot, N., Elles, S., Fournier, L., Gaglione, R., Geoffroy, N., Goy, C., Hryn'Ova, T., Jezequel, S., Lafaye, R., Letendre, N., Leveque, J., Massol, N., Mehrez, F., Perrot, G., Przysiezniak, H., Rambure, T., Sauvan, E., Yildizkaya, T., Tassan-Viol, J., Todorov, T., Vouters, G., Wingerter, I., Boumediene, D., Bonnefoy, R., Busato, Emmanuel, Calvet, D., Calvet, S., Chadelas, R., Crouau, M., Daudon, F., Donini, J., Guicheney, C., Lambert, D., Lecoq, J., Pallin, D., Pillet, N., Podlyski, F., Santoni, C., Savinel, G., Soumpholphakdy, X., Vazeille, F., Beau, T., Bomben, M., Calderini, G., Chauveau, J., Crescioli, F., de Cecco, S., de Matos, F., Derue, F., Enari, Y., Génat, J.-F., Witold Krasny, M., Kuna, M., Lacour, D., Laforge, B., Laplace, S., Laporte, D., Le Dortz, O., Marchiori, G., Nikolic-Audit, I., Ocariz, J., Ridel, M., Roos, L., Schwemling, P., Trincaz-Duvoid, S., Vannucci, F., Albrand, S., Collot, J., Crépé-Renaudin, S., Delsart, P.A., Dzahini, Daniel, Fulachier, J., Gallin-Martel, L., Genest, M.H., Hostachy, J.H., Lambert, F., Ledroit-Guillon, F., Lleres, A., Lucotte, A., Malek, F., Rarbi, F., Stark, J., Trocmé, B., Centre de Physique des Particules de Marseille (CPPM), Aix Marseille Université (AMU)-Institut National de Physique Nucléaire et de Physique des Particules du CNRS (IN2P3)-Centre National de la Recherche Scientifique (CNRS), Laboratoire de l'Accélérateur Linéaire (LAL), Centre National de la Recherche Scientifique (CNRS)-Institut National de Physique Nucléaire et de Physique des Particules du CNRS (IN2P3)-Université Paris-Sud - Paris 11 (UP11), Laboratoire d'Annecy de Physique des Particules (LAPP), Institut National de Physique Nucléaire et de Physique des Particules du CNRS (IN2P3)-Université Savoie Mont Blanc (USMB [Université de Savoie] [Université de Chambéry])-Centre National de la Recherche Scientifique (CNRS), Laboratoire de Physique Corpusculaire - Clermont-Ferrand (LPC), Université Blaise Pascal - Clermont-Ferrand 2 (UBP)-Institut National de Physique Nucléaire et de Physique des Particules du CNRS (IN2P3)-Centre National de la Recherche Scientifique (CNRS), Laboratoire de Physique Nucléaire et de Hautes Énergies (LPNHE), Centre National de la Recherche Scientifique (CNRS)-Université Paris Diderot - Paris 7 (UPD7)-Institut National de Physique Nucléaire et de Physique des Particules du CNRS (IN2P3)-Université Pierre et Marie Curie - Paris 6 (UPMC), Laboratoire de Physique Subatomique et de Cosmologie (LPSC), Institut polytechnique de Grenoble - Grenoble Institute of Technology (Grenoble INP )-Institut Polytechnique de Grenoble - Grenoble Institute of Technology-Institut National de Physique Nucléaire et de Physique des Particules du CNRS (IN2P3)-Université Joseph Fourier - Grenoble 1 (UJF)-Centre National de la Recherche Scientifique (CNRS), ATLAS, Université Paris-Sud - Paris 11 (UP11)-Institut National de Physique Nucléaire et de Physique des Particules du CNRS (IN2P3)-Centre National de la Recherche Scientifique (CNRS), Université Pierre et Marie Curie - Paris 6 (UPMC)-Institut National de Physique Nucléaire et de Physique des Particules du CNRS (IN2P3)-Université Paris Diderot - Paris 7 (UPD7)-Centre National de la Recherche Scientifique (CNRS), and Université Joseph Fourier - Grenoble 1 (UJF)-Institut polytechnique de Grenoble - Grenoble Institute of Technology (Grenoble INP )-Institut National de Physique Nucléaire et de Physique des Particules du CNRS (IN2P3)-Institut Polytechnique de Grenoble - Grenoble Institute of Technology-Centre National de la Recherche Scientifique (CNRS)
Subjects: [PHYS.HEXP]Physics [physics]/High Energy Physics - Experiment [hep-ex]
Published: 2012

32. Atlas Pixel Design Using Two Tiers of Electronics

Author: Pangaud, P., Barbero, M., Chantepie, B., Clémens, J.C., Fei, R., Fleury, J., Fougeron, D., Garcia-Sciveres, M., Godiot, S., Hemperek, T., Karagounis, M., Krueger, H., Mekkaoui, A., Rozanov, A., Wermes, N., Centre de Physique des Particules de Marseille (CPPM), Aix Marseille Université (AMU)-Institut National de Physique Nucléaire et de Physique des Particules du CNRS (IN2P3)-Centre National de la Recherche Scientifique (CNRS), ATLAS, and Cristofol, Danielle
Subjects: [PHYS.HEXP] Physics [physics]/High Energy Physics - Experiment [hep-ex], [PHYS.HEXP]Physics [physics]/High Energy Physics - Experiment [hep-ex], [SPI.TRON] Engineering Sciences [physics]/Electronics, [SPI.TRON]Engineering Sciences [physics]/Electronics
Published: 2010

33. Development of a PCI Express Based Readout Electronics for the XPAD3 X-Ray Photon Counting Image

Author: Dawiec, A., Dinkespiler, B., Breugnon, P., Arnaud, K., Duval, P. -Y., Godiot, S., Hustache, S., Medjoubi, K., Berar, J. -F., Boudet, N., Morel, C., Bompard, F., Centre de Physique des Particules de Marseille (CPPM), Aix Marseille Université (AMU)-Institut National de Physique Nucléaire et de Physique des Particules du CNRS (IN2P3)-Centre National de la Recherche Scientifique (CNRS), Synchrotron SOLEIL (SSOLEIL), Centre National de la Recherche Scientifique (CNRS), CRG et Grands Instruments (CRG), Institut Néel (NEEL), Institut polytechnique de Grenoble - Grenoble Institute of Technology (Grenoble INP )-Centre National de la Recherche Scientifique (CNRS)-Université Joseph Fourier - Grenoble 1 (UJF)-Institut polytechnique de Grenoble - Grenoble Institute of Technology (Grenoble INP )-Centre National de la Recherche Scientifique (CNRS)-Université Joseph Fourier - Grenoble 1 (UJF), Université Joseph Fourier - Grenoble 1 (UJF)-Institut polytechnique de Grenoble - Grenoble Institute of Technology (Grenoble INP )-Centre National de la Recherche Scientifique (CNRS)-Université Joseph Fourier - Grenoble 1 (UJF)-Institut polytechnique de Grenoble - Grenoble Institute of Technology (Grenoble INP )-Centre National de la Recherche Scientifique (CNRS), and CRG & Grands instruments (NEEL - CRG)
Subjects: Physics - Instrumentation and Detectors, Physics::Instrumentation and Detectors, [PHYS.PHYS.PHYS-MED-PH]Physics [physics]/Physics [physics]/Medical Physics [physics.med-ph], FOS: Physical sciences, Instrumentation and Detectors (physics.ins-det), [SPI.NANO]Engineering Sciences [physics]/Micro and nanotechnologies/Microelectronics
Abstract: XPAD3 is a large surface X-ray photon counting imager with high count rates, large counter dynamics and very fast data readout. Data are readout in parallel by a PCI Express interface using DMA transfer. The readout frame rate of the complete detector comprising 0.5 MPixels amounts to 500 images per second without dead-time., 17th Real-Time Conference on Real-Time Computer Applications in Nuclear, Particle and Plasma Physics, Lisbonne : Portugal (2010)
Published: 2010

34. PIXSIC: a Pixellated Radiosensitive Intracerebral Beta Microprobe Allowing the Kinetics Measurements of Radiotracer on Awake and Fully Freely Moving Small Animals

Author: Godart, J., Clemens, J., Delpierre, P., Dinskespiler, B., Pangaud, P., Pinot, L., Godiot, S., Gurden, H., Lefebvre, Fabrice, Mastrippolito, R., Menouni, M., Pain, Frederic, Morel, C., Laniece, P., Imagerie et Modélisation en Neurobiologie et Cancérologie (IMNC (UMR_8165)), Université Paris-Sud - Paris 11 (UP11)-Institut National de Physique Nucléaire et de Physique des Particules du CNRS (IN2P3)-Université Paris Diderot - Paris 7 (UPD7)-Centre National de la Recherche Scientifique (CNRS), Centre de Physique des Particules de Marseille (CPPM), Aix Marseille Université (AMU)-Institut National de Physique Nucléaire et de Physique des Particules du CNRS (IN2P3)-Centre National de la Recherche Scientifique (CNRS), Centre National de la Recherche Scientifique (CNRS)-Institut National de Physique Nucléaire et de Physique des Particules du CNRS (IN2P3)-Aix Marseille Université (AMU), and Cristofol, Danielle
Subjects: [PHYS.PHYS.PHYS-INS-DET] Physics [physics]/Physics [physics]/Instrumentation and Detectors [physics.ins-det], [PHYS.PHYS.PHYS-INS-DET]Physics [physics]/Physics [physics]/Instrumentation and Detectors [physics.ins-det]
Abstract: The emergence of new animal models that mimic human disorders enables new fundamental and therapeutical approaches of these diseases. The increasing number of studies on animal models implies the development of new imaging tools adapted to the particular constraints of small animal studies. To that aim, the past few years have seen the development of numerous high resolution PET systems having a sensitivity and a spatial resolution well suited to the small animal imaging. Nevertheless, although these systems have already and extensively demonstrated their interest in the biomedical imaging field, they suffer from a few drawbacks (low temporal resolution, animal immobilization, high cost) that have stimulated the development of complementary approaches. In that particular context, our objective is to develop a beta radiosensitive probe surgically implantable in an animal brain that can measure autonomously the variation of injected radioactivity in a small tissue volume (typically a few mm3) on awake and freely moving animals. To reach that aim, the detector and its acquisition system must be entirely worn by the animal without wires except on the animal itself. This means to design a beta sensitive detector of very small size based on a technology that allows to produce a numerical signal compatible with the use of a telemetric system. This also means to develop a detector compact enough to be fixed on the rodent head without altering the animal movements. Moreover, the whole system must be allow the implantation of at least two probes in order to be able to measure on same animal, specific and non-specific binding rates of a radiotracer. Theoretical and experimental investigations carried out to demonstrate the feasibility of such a detector will be presented. On this basis, first architecture of the detector based on pixellated Si sensor technology will be proposed and detailed.
Published: 2008

35. Test results of the first 3D-IC prototype chip developed in the framework of HL-LHC/ATLAS hybrid pixel upgrade

Author: Pangaud, P, primary, Arutinov, D, additional, Barbero, M, additional, Bompard, F, additional, Breugnon, P, additional, Clemens, J -C, additional, Fougeron, D, additional, Garcia-Sciveres, M, additional, Godiot, S, additional, Hemperek, T, additional, Krüger, H, additional, Obermann, T, additional, Rozanov, S, additional, and Wermes, N, additional
Published: 2014
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36. Experience with 3D integration technologies in the framework of the ATLAS pixel detector upgrade for the HL-LHC

Author: Aruntinov, D., primary, Barbero, M., additional, Gonella, L., additional, Hemperek, T., additional, Hügging, F., additional, Krüger, H., additional, Wermes, N., additional, Breugnon, P., additional, Chantepie, B., additional, Clemens, J.C., additional, Fei, R., additional, Fougeron, D., additional, Godiot, S., additional, Pangaud, P., additional, Rozanov, A., additional, Garcia-Sciveres, M., additional, and Mekkaoui, A., additional
Published: 2013
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37. A Tezzaron-Chartered 3D-IC electronic for SLHC/ATLAS hybrid pixels detectors test results and irradiations performance

Author: Pangaud, P., primary, Arutinov, D., additional, Barbero, M., additional, Breugnon, P., additional, Chantepie, B., additional, Clemens, J.C., additional, Fei, R., additional, Fougeron, D., additional, Garcia-Sciveres, M., additional, Godiot, S., additional, Hemperek, T., additional, Karagounis, M., additional, Kruger, H., additional, Mekkaoui, A., additional, Perrot, L., additional, Rozanov, A., additional, and Wermes, N., additional
Published: 2011
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38. Performance and Applications of the CdTe- and Si-XPAD3 photon counting 2D detector

Author: Medjoubi, K, primary, Hustache, S, additional, Picca, F, additional, Bérar, J F, additional, Boudet, N, additional, Bompard, F, additional, Breugnon, P, additional, Clémens, J -C, additional, Dawiec, A, additional, Delpierre, P, additional, Dinkespiler, B, additional, Godiot, S, additional, Logier, J -P, additional, Menouni, M, additional, Morel, C, additional, Nicolas, M, additional, Pangaud, P, additional, and Vigeolas, E, additional
Published: 2011
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39. Test results and irradiation performances of 3-D circuits developed in the framework of ATLAS hybrid pixel upgrade

Author: Pangaud, P, primary, Arutinov, D, additional, Barbero, M, additional, Breugnon, P, additional, Chantepie, B, additional, Clemens, J C, additional, Fei, R, additional, Fougeron, D, additional, Garcia-Sciveres, M, additional, Godiot, S, additional, Hemperek, T, additional, Karagounis, M, additional, Kruger, H, additional, Mekkaoui, A, additional, Perrot, L, additional, Rozanov, S, additional, and Wermes, N, additional
Published: 2010
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40. Development of a PCI express based readout electronics for the XPAD3 X-ray photon counting imager

Author: Dawiec, A., primary, Dinkespiler, B., additional, Breugnon, P., additional, Bompard, F., additional, Arnaud, K., additional, Duval, P.-Y., additional, Godiot, S., additional, Hustache, S., additional, Medjoubi, K., additional, Berar, J.-F., additional, Boudet, N., additional, and Morel, C., additional
Published: 2010
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41. Development of the XPAD3 X-ray photon counting imager DAQ electronics

Author: Dawiec, A., primary, Dinkespiler, B., additional, Breugnon, P., additional, Arnaud, K., additional, Godiot, S., additional, Hustache, S., additional, Medjoubi, K., additional, Berar, J.-F., additional, Boudet, N., additional, and Morel, C., additional
Published: 2009
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42. The XPAD3 hybrid pixel detector applications

Author: Boudet, N., primary, Berar, J.-F.J., additional, Breugnon, P., additional, Caillot, B., additional, Chantepie, B., additional, Clemens, J.-C., additional, Delpierre, P., additional, Dikenspiler, B., additional, Godiot, S., additional, Hustache, S., additional, Medjoubi, K., additional, Meesen, C., additional, Menouni, M., additional, Pangaud, P., additional, Vigolas, E., additional, and Morel, C., additional
Published: 2008
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43. Test results and irradiation performances of 3-D circuits developed in the framework of ATLAS hybrid pixel upgrade.

Author: Pangaud, P., Arutinov, D., Barbero, M., Breugnon, P., Chantepie, B., Clemens, J.C., Fei, R., Fougeron, D., Garcia-Sciveres, M., Godiot, S., Hemperek, T., Karagounis, M., Kruger, H., Mekkaoui, A., Perrot, L., Rozanov, S., and Wermes, N.
Published: 2010
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44. 3D electronics for hybrid pixel detectors - TWEPP-09

Author: Godiot, S., Barbero, M., Chantepie, B., Clemens, J. C., Fei, R., Fleury, J., Fougeron, D., Maurice Garcia-Sciveres, Hemperek, T., Karagounis, M., Krueger, H., Mekkaoui, A., Pangaud, P., Rozanov, A., and Wermes, N.
Subjects: Detectors and Experimental Techniques
Abstract: Future hybrid pixel detectors are asking for smaller pixels in order to improve spatial resolution and to deal with an increasing counting rate. Facing these requirements is foreseen to be done by microelectronics technology shrinking. However, this straightforward approach presents some disadvantages in term of performances and cost. New 3D technologies offer an alternative way with the advantage of technology mixing. For the upgrade of ATLAS pixel detector, a 3D conception of the read-out chip appeared as an interesting solution. Splitting the pixel functionalities into two separate levels will reduce pixel size and open the opportunity to take benefit of technology's mixing. Based on a previous prototype of the read-out chip FE-I4 (IBM 130nm), this paper presents the design of a hybrid pixel read-out chip using threedimensional Tezzaron-Chartered technology. In order to disentangle effects due to Chartered 130nm technology from effects involved by 3D architecture, a first translation of FEI4 prototype had been designed at the beginning of this year in Chartered 2D technology, and first test results will be presented in the last part of this paper.

45. 65 nm technology for HEP: Status and perspective

Author: Valerio, P., Barbero, M. B., Fougeron, D., Gensolen, F., Godiot, S., Menouni, M., Pangaud, P., Rozanov, A., Wang, A., Bomben, M., Calderini, G., Crescioli, F., Genat, J. -F, Le Dortz, O., Marchiori, G., Dzahini, D., Rarbi, F. E., Gaglione, R., Gonella, L., Hemperek, T., Huegging, F., Karagounis, M., Kishishita, T., Krueger, H., Rymaszewski, P., Wermes, N., Ciciriello, F., Corsi, F., Licciulli, F., Marzocca, C., Robertis, G., Loddo, F., Tamma, C., Andreazza, A., Liberali, V., Shojaii, S., Alberto Stabile, Bagatin, M., Bisello, D., Mattiazzo, S., Ding, L., Gerardin, S., Giubilato, P., Neviani, A., Paccagnella, A., Vogrig, D., Wyss, J., Bacchetta, N., Canio, F., Gaioni, L., Nodari, B., Manghisoni, M., Re, V., Traversi, G., Comotti, D., Ratti, L., Vacchi, C., Beccherle, R., Bellazzini, R., Magazzu, G., Minuti, M., Morsani, F., Palla, F., Fanucci, L., Rizzi, A., Saponara, S., Androsov, K., Bilei, G. M., Menichelli, M., Conti, E., Marconi, S., Passeri, D., Placidi, P., Della Casa, G., Demaria, N., Mazza, G., Rivetti, A., Da Rocha Rolo, M. D., Monteil, E., Pacher, L., Gajanana, D., Gromov, V., Hessey, N., Kluit, R., Zivkovic, V., Havranek, M., Janoska, Z., Marcisovsky, M., Neue, G., Tomasek, L., Kafka, V., Sicho, P., Vrba, V., Vila, I., Aguirre, M. A., Muñoz, F., Palomo, F. R., Abbaneo, D., Christiansen, J., Dannheim, D., Dobos, D., Linssen, L., Pernegger, H., Alipour Tehrani, N., Bell, S., Prydderch, M. L., Thomas, S., Christian, D. C., Deptuch, G., Fahim, F., Hoff, J., Lipton, R., Liu, T., Zimmerman, T., Garcia-Sciveres, M., Gnani, D., Mekkaoui, A., Gorelov, I., Hoeferkamp, M., Seidel, S., Toms, K., Witt, J. N., and Grillo, A.
Subjects: Physics, Multidisciplinary, Large Hadron Collider, Pixel, Pixels, Settore ING-INF/01 - Elettronica, Nanotechnology, Pixels, Reliability (semiconductor), Perspective (geometry), CMOS, Electronic engineering, Systems engineering, Nanotechnology, Detectors and Experimental Techniques
Abstract: The development of new experiments such as CLIC and the the foreseen Phase 2 pixel upgrades of ATLAS and CMS have very challenging requirements for the design of hybrid pixel readout chips, both in terms of performances and reliability. To face these challenges, the use of a more downscaled CMOS technology compared to previous projects is necessary. The CERN RD53 collaboration is undertaking a R&D programme to evaluate the use of a commercial 65 nm technology and to develop tools and frameworks which will help to design future pixel detectors. This paper gives a short overview of the RD53 collaboration activities and describes some examples of recent developments.

46. RD53A: A large scale prototype for HL-LHC silicon pixel detector phase 2 upgrades

Author: Monteil, E., Barbero, M. B., Fougeron, D., Godiot, S., Menouni, M., Pangaud, P., Rozanov, A., Breugnon, P., Bomben, M., Calderini, G., Crescioli, F., Le Dortz, O., Marchiori, G., Dzahini, D., Rarbi, F. E., Gaglione, R., Krüger, H., Daas, M., Dieter, Y., Hemperek, T., Hügging, F., Konstantinos Moustakas, Pohl, D., Rymaszewski, P., Standke, M., Vogt, M., Wang, T., Wermes, N., Karagounis, M., Stiller, A., Marzocca, C., Robertis, G., Loddo, F., Licciulli, F., Andreazza, A., Liberali, V., Stabile, A., Frontini, L., Bagatin, M., Bisello, D., Gerardin, S., Mattiazzo, S., Paccagnella, A., Vogrig, D., Bonaldo, S., Bacchetta, N., Gaioni, L., Canio, F., Manghisoni, M., Re, V., Riceputi, E., Traversi, G., Ratti, L., Vacchi, C., Androsov, K., Beccherle, R., Magazzu, G., Minuti, M., Morsani, F., Palla, F., Poulios, S., Bilei, G. M., Menichelli, M., Marconi, S., Placidi, P., Dellacasa, G., Demaria, N., Mazza, G., Pacher, L., Paternò, A., Rivetti, A., Da Rocha Rolo, M. D., Gajanana, D., Gromov, V., Eijk, B., Kluit, R., Vitkovskiy, A., Benka, T., Havranek, M., Janoska, Z., Marcisovsky, M., Neue, G., Tomasek, L., Kafka, V., Vrba, V., Lopez-Morillo, E., Palomo, F. R., Muñoz, F., Vila, I., Jiménez, E. M. S., Abbaneo, D., Christiansen, J., Orfanelli, S., Jara Casas, L. M., Conti, E., Bell, S., Prydderch, M. L., Thomas, S., Christian, D. C., Deptuch, G., Fahim, F., Hoff, J., Lipton, R., Liu, T., Zimmerman, T., Miryala, S., Garcia-Sciveres, M., Gnani, D., Krieger, A., Papadopoulou, K., Heim, T., Carney, R., Nachman, B., Renteira, C., Wallangen, V., Hoeferkamp, M., and Seidel, S.
Subjects: Large Hadron Collider, Pixel, Scale (ratio), Physics::Instrumentation and Detectors, business.industry, Computer science, Phase (waves), Chip, Settore ING-INF/01 - Elettronica, Particle Tracking, Matrix (mathematics), Microelectronics, CMOS, Feature (computer vision), business, Computer hardware, Pixel sensors
Abstract: The Phase 2 upgrades of silicon pixel detectors at HL-LHC experiments feature extreme require- ments, such as: 50x50 μm pixels, high rate (3 GHz/cm2), unprecedented radiation levels (1 Grad), high readout speed and serial powering. As a consequence a new readout chip is required. In this framework the RD53 collaboration submitted RD53A, a large scale chip demonstrator de- signed in 65 nm CMOS technology, integrating a matrix of 400×192 pixels. It features design variations in the analog and digital pixel matrix for testing purposes. An overview of the building blocks will be given together with test results on single chips.

47. CMOS Monolithic Pixel Sensors based on the Column-Drain Architecture for the HL-LHC Upgrade

Author: Walter Snoeys, N. Egidos Plaja, Thanushan Kugathasan, P. Breugnon, T. Hirono, Hans Krüger, M. Barbero, P. Rymaszewski, C. Bespin, P. Pangaud, Y. Degerli, Tianyang Wang, Petra Riedler, I. Caicedo, Tomasz Hemperek, C. A. Marin Tobon, I. Berdalovic, Heinz Pernegger, Enrico Junior Schioppa, F. Guilloux, N. Wermes, Roberto Cardella, M. Vandenbroucke, S. Godiot, K. Moustakas, Centre de Physique des Particules de Marseille (CPPM), Centre National de la Recherche Scientifique (CNRS)-Institut National de Physique Nucléaire et de Physique des Particules du CNRS (IN2P3)-Aix Marseille Université (AMU), Institut de Recherches sur les lois Fondamentales de l'Univers (IRFU), Commissariat à l'énergie atomique et aux énergies alternatives (CEA)-Université Paris-Saclay, Moustakas, K., Barbero, M., Berdalovic, I., Bespin, C., Breugnon, P., Caicedo, I., Cardella, R., Degerli, Y., Egidos Plaja, N., Godiot, S., Guilloux, F., Hemperek, T., Hirono, T., Krueger, H., Kugathasan, T., Marin Tobon, C. A., Pangaud, P., Pernegger, H., Schioppa, E. J., Snoeys, W., Vandenbroucke, M., Wang, T., Wermes, N., and Aix Marseille Université (AMU)-Institut National de Physique Nucléaire et de Physique des Particules du CNRS (IN2P3)-Centre National de la Recherche Scientifique (CNRS)
Subjects: Nuclear and High Energy Physics, noise, Pixel detectors, Physics - Instrumentation and Detectors, Fabrication, FOS: Physical sciences, Novel high voltage and resistive CMOS sensors [6], fabrication, 01 natural sciences, Capacitance, 030218 nuclear medicine & medical imaging, Front and back ends, 03 medical and health sciences, 0302 clinical medicine, semiconductor detector: pixel, 0103 physical sciences, [PHYS.PHYS.PHYS-INS-DET]Physics [physics]/Physics [physics]/Instrumentation and Detectors [physics.ins-det], Detectors and Experimental Techniques, Instrumentation, physics.ins-det, radiation: damage, Physics, semiconductor detector: technology, Large Hadron Collider, DMAPS, Pixel, irradiation, 010308 nuclear & particles physics, business.industry, tracking detector: upgrade, ATLAS experiment, Front end electronics, Instrumentation and Detectors (physics.ins-det), ATLAS, CMOS, efficiency, Electrode, electronics: readout, Optoelectronics, dispersion, business, performance, semiconductor detector: design
Abstract: Depleted Monolithic Active Pixel Sensors (DMAPS) constitute a promising low cost alternative for the outer layers of the ATLAS experiment Inner Tracker (ITk). Realizations in modern, high resistivity CMOS technologies enhance their radiation tolerance by achieving substantial depletion of the sensing volume. Two DMAPS prototypes that use the same “column-drain” readout architecture and are based on different sensor implementation concepts named LF-Monopix and TJ-Monopix have been developed for the High Luminosity upgrade of the Large Hadron Collider (HL-LHC). Depleted Monolithic Active Pixel Sensors (DMAPS) constitute a promising low cost alternative for the outer layers of the ATLAS experiment Inner Tracker (ITk). Realizations in modern, high resistivity CMOS technologies enhance their radiation tolerance by achieving substantial depletion of the sensing volume. Two DMAPS prototypes that use the same "column-drain" readout architecture and are based on different sensor implementation concepts named LF-Monopix and TJ-Monopix have been developed for the High Luminosity upgrade of the Large Hardon Collider (HL-LHC). LF-Monopix was fabricated in the LFoundry 150 nm technology and features pixel size of $50x250~\mu m^{2}$ and large collection electrode opted for high radiation tolerance. Detection efficiency up to 99\% has been measured after irradiation to $1\cdot10^{15}~n_{eq}/cm^{2}$. TJ-Monopix is a large scale $(1x2~cm^{2})$ prototype featuring pixels of $36x40~\mu m^{2}$ size. It was fabricated in a novel TowerJazz 180 nm modified process that enables full depletion of the sensitive layer, while employing a small collection electrode that is less sensitive to crosstalk. The resulting small sensor capacitance ($
Published: 2018

48. A bio-inspired analog silicon retina with Michaelis-Menten auto-adaptive pixels sensitive to small and large changes in light.

Author: Mafrica S, Godiot S, Menouni M, Boyron M, Expert F, Juston R, Marchand N, Ruffier F, and Viollet S
Abstract: In this paper, we present: (i) a novel analog silicon retina featuring auto-adaptive pixels that obey the Michaelis-Menten law, i.e. V=V(m) I(n)/I(n)+σ(n); (ii) a method of characterizing silicon retinas, which makes it possible to accurately assess the pixels' response to transient luminous changes in a ±3-decade range, as well as changes in the initial steady-state intensity in a 7-decade range. The novel pixel, called M(2)APix, which stands for Michaelis-Menten Auto-Adaptive Pixel, can auto-adapt in a 7-decade range and responds appropriately to step changes up to ±3 decades in size without causing any saturation of the Very Large Scale Integration (VLSI) transistors. Thanks to the intrinsic properties of the Michaelis-Menten equation, the pixel output always remains within a constant limited voltage range. The range of the Analog to Digital Converter (ADC) was therefore adjusted so as to obtain a Least Significant Bit (LSB) voltage of 2.35mV and an effective resolution of about 9 bits. The results presented here show that the M(2)APix produced a quasi-linear contrast response once it had adapted to the average luminosity. Differently to what occurs in its biological counterparts, neither the sensitivity to changes in light nor the contrast response of the M(2)APix depend on the mean luminosity (i.e. the ambient lighting conditions). Lastly, a full comparison between the M(2)APix and the Delbrück auto-adaptive pixel is provided.
Published: 2015
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49. Hardware architecture and cutting-edge assembly process of a tiny curved compound eye.

Author: Viollet S, Godiot S, Leitel R, Buss W, Breugnon P, Menouni M, Juston R, Expert F, Colonnier F, L'Eplattenier G, Brückner A, Kraze F, Mallot H, Franceschini N, Pericet-Camara R, Ruffier F, and Floreano D
Subjects: Animals, Equipment Design, Equipment Failure Analysis, Eye, Artificial, Insecta physiology, Lenses, Miniaturization, Systems Integration, Biomimetics instrumentation, Compound Eye, Arthropod physiology, Image Interpretation, Computer-Assisted instrumentation, Imaging, Three-Dimensional instrumentation, Photometry instrumentation, Semiconductors, Signal Processing, Computer-Assisted instrumentation
Abstract: The demand for bendable sensors increases constantly in the challenging field of soft and micro-scale robotics. We present here, in more detail, the flexible, functional, insect-inspired curved artificial compound eye (CurvACE) that was previously introduced in the Proceedings of the National Academy of Sciences (PNAS, 2013). This cylindrically-bent sensor with a large panoramic field-of-view of 180° × 60° composed of 630 artificial ommatidia weighs only 1.75 g, is extremely compact and power-lean (0.9 W), while it achieves unique visual motion sensing performance (1950 frames per second) in a five-decade range of illuminance. In particular, this paper details the innovative Very Large Scale Integration (VLSI) sensing layout, the accurate assembly fabrication process, the innovative, new fast read-out interface, as well as the auto-adaptive dynamic response of the CurvACE sensor. Starting from photodetectors and microoptics on wafer substrates and flexible printed circuit board, the complete assembly of CurvACE was performed in a planar configuration, ensuring high alignment accuracy and compatibility with state-of-the art assembling processes. The characteristics of the photodetector of one artificial ommatidium have been assessed in terms of their dynamic response to light steps. We also characterized the local auto-adaptability of CurvACE photodetectors in response to large illuminance changes: this feature will certainly be of great interest for future applications in real indoor and outdoor environments.
Published: 2014
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