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166 results on '"Breugnon, P."'

1. The Belle II Detector Upgrades Framework Conceptual Design Report

Author

Aihara, H., Aloisio, A., Auguste, D. P., Aversano, M., Babeluk, M., Bahinipati, S., Banerjee, Sw., Barbero, M., Baudot, J., Beaubien, A., Becherer, F., Bergauer, T., Bernlochner., F. U., Bertacchi, V., Bertolone, G., Bespin, C., Bessner, M., Bettarini, S., Bevan, A. J., Bhuyan, B., Bona, M., Bonis, J. F., Borah, J., Bosi, F., Boudagga, R., Bozek, A., Bračko, M., Branchini, P., Breugnon, P., Browder, T. E., Buch, Y., Budano, A., Campajola, M., Casarosa, G., Cecchi, C., Chen, C., Choudhury, S., Corona, L., de Marino, G., De Nardo, G., De Pietro, G., de Sangro, R., Dey, S., Dingfelder, J. C., Dong, T. V., Dorokhov, A., Dujany, G., Epifanov, D., Federici, L., Ferber, T., Fillinger, T., Finck, Ch., Finocchiaro, G., Forti, F., Frey, A., Friedl, M., Gabrielli, A., Gaioni, L., Gao, Y., Gaudino, G., Gaur, V., Gaz, A., Giordano, R., Giroletti, S., Gobbo, B., Godang, R., Haide, I., Han, Y., Hara, K., Hayasaka, K., Hearty, C., Heidelbach, A., Higuchi, T., Himmi, A., Hoferichter, M., Howgill, D. A., Hu-Guo, C., Iijima, T., Inami, K., Irmler, C., Ishikawa, A., Itoh, R., Iyer, D., Jacobs, W. W., Jaffe, D. E., Jin, Y., Junginger, T., Kandra, J., Kojima, K., Koga, T., Korobov, A. A., Korpar, S., Križan, P., Krüger, H., Kuhr, T., Kumar, A., Kumar, R ., Kuzmin, A., Kwon, Y. -J., Lacaprara, S., Lacasta, C., Lai, Y. -T., Lalwani, K., Lam, T., Lanceri, L., Lee, M. J., Leonidopoulos, C., Levit, D., Lewis, P. M., Libby, J. F., Liu, Q. Y., Liu, Z. Y., Liventsev, D., Longo, S., Mancinelli, G., Manghisoni, M., Manoni, E., Marinas, C., Martellini, C., Martens, A., Massa, M., Massaccesi, L., Mawas, F., Mazorra, J., Merola, M., Miller, C., Minuti, M., Mizuk, R., Modak, A., Moggi, A., Mohanty, G. B., Moneta, S., Muller, Th., Na, I., Nakamura, K. R., Nakao, M., Natochii, A., Niebuhr, C., Nishida, S., Novosel, A., Pangaud, P., Parker, B., Passeri, A., Pedlar, T. K., Peinaud, Y., Peng, Y., Peschke, R., Pestotnik, R., Pham, T. H., Piccolo, M., Piilonen, L. E., Prell, S., Purohit, M. V., Ratti, L., Re, V., Reuter, L., Riceputi, E., Ripp-Baudot, I., Rizzo, G., Roney, J. M., Russo, A., Sandilya, S., Santelj, L., Savinov, V., Scavino, B., Schall, L., Schnell, G., Schwanda, C., Schwartz, A. J., Schwenker, B., Schwickardi, M., Seljak, A., Serrano, J., Shiu, J. -G., Shwartz, B., Simon, F., Soffer, A., Song, W. M., Starič, M., Stavroulakis, P., Stefkova, S., Stroili, R., Tanaka, S., Taniguchi, N., Teotia, V., Tessema, N., Thalmeier, R., Torassa, E., Trabelsi, K., Trantou, F. F., Traversi, G., Urquijo, P., Vahsen, S. E., Valin, I., Varner, G. S., Varvell, K. E., Vitale, L., Vobbilisetti, V., Wang, X. L., Wessel, C., Wienands, H. U., Won, E., Xu, D., Yamada, S., Yin, J. H., Yoshihara, K., Yuan, C. Z., Zani, L., Zong, Z., and Zou, S.

Subjects
High Energy Physics - Experiment, Physics - Instrumentation and Detectors
Abstract

We describe the planned near-term and potential longer-term upgrades of the Belle II detector at the SuperKEKB electron-positron collider operating at the KEK laboratory in Tsukuba, Japan. These upgrades will allow increasingly sensitive searches for possible new physics beyond the Standard Model in flavor, tau, electroweak and dark sector physics that are both complementary to and competitive with the LHC and other experiments., Comment: Editor: F. Forti 170 pages

Published
2024

2. Upgrade of Belle II Vertex Detector with CMOS Pixel Technology

Author

Schwickardi, M., Babeluk, M., Barbero, M., Baudot, J., Bergauer, T., Bertolone, G., Bettarini, S., Bosi, F., Breugnon, P., Buch, Y., Casarosa, G., Dujany, G., Finck, C., Forti, F., Frey, A., Himmi, A., Irmler, C., Kumar, A., Marinas, C., Massa, M., Massaccesi, L., de Cos, J. Mazzora, Minuti, M., Mondal, S., Pangaud, P., Pham, H., Ripp-Baudot, I., Rizzo, G., Schwenker, B., and Valin, I.

Subjects
Physics - Instrumentation and Detectors, High Energy Physics - Experiment
Abstract

The Belle II experiment at KEK in Japan considers upgrading its vertex detector system to address the challenges posed by high background levels caused by the increased luminosity of the SuperKEKB collider. One proposal for upgrading the vertex detector aims to install a 5-layer all monolithic pixel vertex detector based on fully depleted CMOS sensors in 2027. The new system will use the OBELIX MAPS chips to improve background robustness and reduce occupancy levels through small and fast pixels. This causes better track finding, especially for low transverse momenta tracks. This text will focus on the predecessor of the OBELIX sensor, the TJ-Monopix2, presenting laboratory and test beam results on pixel response, efficiency, and spatial resolution., Comment: 8 pages, 8 figures, Proceedings for 24th international Workshop on Radiation Imaging Detectors,25-29 JUNE 20233 Oslo

Published
2023

3. The DMAPS upgrade of the Belle II vertex detector

Author

Babeluk, M., Barbero, M., Baudot, J., Bergauer, T., Bernlochner, F., Bertolone, G., Bespin, C., Bettarini, S., Bosi, F., Boudagga, R., Breugnon, P., Buch, Y., Casarosa, G., Corona, L., Dingfelder, J., Federici, L., Finck, C., Forti, F., Frey, A., Himmi, A., Irmler, C., Krüger, H., Marinas, C., Massa, M., Massaccesi, L., Mazorra de Cos, J., Minuti, M., Mondal, S., Nakamura, K., Pangaud, P., Pham, H., Rizzo, G., Schall, L., Schwenker, B., Schwickardi, M., Wessel, C., Wang, S., and Xu, D.

Published
2024
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4. The OBELIX chip for the Belle II VTX upgrade

Author

Babeluk, M., Auguste, D., Barbero, M., Barrillon, P., Baudot, J., Bergauer, T., Bernlochner, F., Bertolone, G., Bespin, C., Bettarini, S., Bevan, A., Bona, M., Bonis, J., Bosi, F., Boudagga, R., Breugnon, P., Buch, Y., Casarosa, G., Corona, L., Dingfelder, J., Dorokhov, A., Dujany, G., Finck, C., Forti, F., Frey, A., Fougeron, D., Gabrielli, A., Gaioni, L., Giroletti, S., Hara, K., Higuchi, T., Himmi, A., Howgill, D., Irmler, C., Jeans, D., Kaliyar, A.B., Karagounis, M., Kishishita, T., Krüger, H., Kumar, A., Lacasta, C., Marinas, C., Massa, M., Massaccesi, L., Mazorra de Cos, J., Minuti, M., Moggi, A., Mondal, S., Morel, F., Nakamura, K.R., Okazaki, Y., Onuki, Y., Pangaud, P., Peinaud, Y., Pham, H., Pilsl, B., Ratti, L., Re, V., Riceputi, E., Ripp-Baudot, I., Rizzo, G., Schall, L., Schwanda, C., Schwenker, B., Schwickardi, M., Sefri, R., Serrano, J., Stavroulakis, P., Traversi, G., Valin, I., Vobbilisetti, V., Vogt, M., Wang, S., Winter, M., and Xu, D.

Published
2024
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6. Infectious disease hotlines to provide advice to general practitioners: a prospective study

Author

Anna Luce Sette, Patrice François, Philippe Lesprit, Virginie Vitrat, Olivier Rogeaux, Emma Breugnon, Marion Baldeyrou, Véronique Mondain, Bertrand Issartel, Solen Kerneis, Sylvain Diamantis, Delphine Poitrenaud, Bastien Boussat, and Patricia Pavese

Subjects
Infectious diseases, Hotlines, General practitioner, Antibacterial drug resistance, Intersectoral collaborations, Public aspects of medicine, RA1-1270
Abstract

Abstract Background Telephone hotlines in infectious diseases (ID) are part of antimicrobial stewardship programs designed to provide support and expertise in ID and to control antibiotic resistance. The aim of the study was to characterize the activity of the ID hotlines and estimate their usefulness for general practitioners (GPs). Methods This was a multicenter prospective observational study in different French regions. ID teams involved in antimicrobial stewardship with a hotline for GPs were asked to record their advice from April 2019 to June 2022. In these regions, all GPs were informed of the ID hotline’s operating procedures. The main outcome was usage rate of the hotlines by GPs. Results Ten volunteer ID teams collected 4138 requests for advice from 2171 GPs. The proportion of GPs using the hotline varied pronouncedly by region, from 54% in the Isere department, to less than 1% in departments with the lowest usage. These differences were associated with the number of physicians in ID teams and with the age of the hotline. These results highlighted the value of working time as a means of ensuring the permanence of expertise. The main reasons for calling were: a diagnostic question (44%); choice of antibiotic (31%). The ID specialist provided advice on antibiotic therapy (43%) or a proposal for specialized consultation or hospitalization (11%). Conclusions ID hotlines could help to strengthen cooperation between primary care and hospital medicine. However, the deployment and perpetuation of this activity require reflection concerning its institutional and financial support.

Published
2023
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7. DMAPS Monopix developments in large and small electrode designs

Author

Bespin, Christian, Barbero, Marlon, Barrillon, Pierre, Berdalovic, Ivan, Bhat, Siddharth, Breugnon, Patrick, Caicedo, Ivan, Cardella, Roberto, Chen, Zongde, Degerli, Yavuz, Dingfelder, Jochen, de Acedo, Leyre Flores Sanz, Godiot, Stephanie, Guilloux, Fabrice, Hirono, Toko, Hemperek, Tomasz, Hügging, Fabian, Krüger, Hans, Kugathasan, Thanushan, Tobon, Cesar Augusto Marin, Moustakas, Konstantinos, Pangaud, Patrick, Pernegger, Heinz, Piro, Francesco, Riedler, Petra, Rozanov, Alexandre, Rymaszewski, Piotr, Schwemling, Philippe, Snoeys, Walter, Vandenbroucke, Maxence, Wang, Tianyang, Wermes, Norbert, and Zhang, Sinuo

Subjects
Physics - Instrumentation and Detectors
Abstract

LF-Monopix1 and TJ-Monopix1 are depleted monolithic active pixel sensors (DMAPS) in 150 nm LFoundry and 180 nm TowerJazz CMOS technologies respectively. They are designed for usage in high-rate and high-radiation environments such as the ATLAS Inner Tracker at the High-Luminosity Large Hadron Collider (HL-LHC). Both chips are read out using a column-drain readout architecture. LF-Monopix1 follows a design with large charge collection electrode where readout electronics are placed inside. Generally, this offers a homogeneous electrical field in the sensor and short drift distances. TJ-Monopix1 employs a small charge collection electrode with readout electronics separated from the electrode and an additional n-type implant to achieve full depletion of the sensitive volume. This approach offers a low sensor capacitance and therefore low noise and is typically implemented with small pixel size. Both detectors have been characterized before and after irradiation using lab tests and particle beams., Comment: 7 pages, 8 figures. Proceedings of the 12th International "Hiroshima" Symposium on the Development and Application of Semiconductor Tracking Detectors

Published
2020
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8. Measurements of Single Event Upset in ATLAS IBL

Author

Balbi, G., Barbero, M., Beccherle, R., Bindi, M., Breugnon, P., Butti, P., Cinca, D., Dickinson, J., Ferrere, D., Fougeron, D., Garcia-Sciveres, M., Pascual, J. Garcia, Gaudiello, A., Gemme, C., Giangiacomi, N., Hemperek, T., Jeanty, L., Kepka, O., Kocian, M., Lantzsch, K., Liu, P., Martin, C., Mekkaoui, A., Menouni, M., Potamianos, K., Rozanov, A., Takubo, Y., and Wensing, M.

Subjects
Physics - Instrumentation and Detectors, High Energy Physics - Experiment
Abstract

Effects of Single Event Upsets (SEU) and Single Event Transients (SET) are studied in the FE-I4B chip of the innermost layer of the ATLAS pixel system. SEU/SET affect the FE-I4B Global Registers as well as the settings for the individual pixels, causing, among other things, occupancy losses, drops in the low voltage currents, noisy pixels, and silent pixels. Quantitative data analysis and simulations indicate that SET dominate over SEU on the load line of the memory. Operational issues and mitigation techniques are presented., Comment: 30 pages with 32 figures

Published
2020
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9. 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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10. The Monopix chips: Depleted monolithic active pixel sensors with a column-drain read-out architecture for the ATLAS Inner Tracker upgrade

Author

Caicedo, Ivan, Barbero, Marlon, Barrillon, Pierre, Berdalovic, Ivan, Bhat, Siddharth, Bespin, Christian, Breugnon, Patrick, Cardella, Roberto, Chen, Zongde, Degerli, Yavuz, Dingfelder, Jochen, Godiot, Stephanie, Guilloux, Fabrice, Hirono, Toko, Hemperek, Tomasz, Hügging, Fabian, Krüger, Hans, Kugathasan, Thanushan, Moustakas, Konstantinos, Pangaud, Patrick, Pernegger, Heinz, Pohl, David-Leon, Riedler, Petra, Rozanov, Alexandre, Rymaszewski, Piotr, Schwemling, Philippe, Snoeys, Walter, Vandenbroucke, Maxence, Wang, Tianyang, and Wermes, Norbert

Subjects
Physics - Instrumentation and Detectors
Abstract

Two different depleted monolithic CMOS active pixel sensor (DMAPS) prototypes with a fully synchronous column-drain read-out architecture were designed and tested: LF-Monopix and TJ-Monopix. These chips are part of a R&D effort towards a suitable implementation of a CMOS DMAPS for the HL-LHC ATLAS Inner Tracker. LF-Monopix was developed using a 150nm CMOS process on a highly resistive substrate (>2 k$\Omega\,$cm), while TJ-Monopix was fabricated using a modified 180 nm CMOS process with a 1 k$\Omega\,$cm epi-layer for depletion. The chips differ in their front-end design, biasing scheme, pixel pitch, dimensions of the collecting electrode relative to the pixel size (large and small electrode design, respectively) and the placement of read-out electronics within such electrode. Both chips were operational after thinning down to 100 $\mathrm{\mu}$m and additional back-side processing in LF-Monopix for total bulk depletion. The results in this work include measurements of their leakage current, noise, threshold dispersion, response to minimum ionizing particles and efficiency in test beam campaigns. In addition, the outcome from measurements after irradiation with neutrons up to a dose of $1\times10^{15}\,\mathrm{n_{eq} / cm}^{2}$ and its implications for future designs are discussed., Comment: Proceedings of the PIXEL 2018 Workshop

Published
2019
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11. Measurements of Single Event Upset in ATLAS IBL

Author

Balbi, G, Barbero, M, Beccherle, R, Bindi, M, Breugnon, P, Butti, P, Cinca, D, Dickinson, J, Ferrere, D, Fougeron, D, Garcia-Sciveres, M, Pascual, J Garcia, Gaudiello, A, Gemme, C, Giangiacomi, N, Hemperek, T, Jeanty, L, Kepka, O, Kocian, M, Lantzsch, K, Liu, P, Martin, C, Mekkaoui, A, Menouni, M, Potamianos, K, Rozanov, A, Takubo, Y, and Wensing., M

Subjects
Engineering, Electrical Engineering, Performance of High Energy Physics Detectors, Radiation damage to electronic components, Radiation-hard electronics, Si microstrip and pad detectors, physics.ins-det, hep-ex, Physical Sciences, Nuclear & Particles Physics, Physical sciences
Abstract

Effects of Single Event Upsets (SEU) and Single Event Transients (SET) are studied in the FE-I4B chip of the innermost layer of the ATLAS pixel system. SEU/SET affect the FE-I4B Global Registers as well as the settings for the individual pixels, causing, among other things, occupancy losses, drops in the low voltage currents, noisy pixels, and silent pixels. Quantitative data analysis and simulations indicate that SET dominate over SEU on the load line of the memory. Operational issues and mitigation techniques are presented.

Published
2020

12. 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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13. 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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14. Depleted Fully Monolithic Active CMOS Pixel Sensors (DMAPS) in High Resistivity 150~nm Technology for LHC

Author

Hirono, Toko, Barbero, Marlon, Barrillon, Pierre, Bhat, Siddharth, Breugnon, Patrick, Caicedo, Ivan, Chen, Zongde, Daas, Michael, Degerli, Yavuz, Guilloux, Fabrice, Hemperek, Tomasz, Hugging, Fabian, Kruger, Hans, Pangaud, Patrick, Rymaszewski, Piotr, Schwemling, Philippe, Vandenbroucke, Maxence, Wang, Tianyang, and Wermes, Norbert

Subjects
Physics - Instrumentation and Detectors
Abstract

Depleted monolithic CMOS active pixel sensors (DMAPS) have been developed in order to demonstrate their suitability as pixel detectors in the outer layers of a toroidal LHC apparatus inner tracker (ATLAS ITk) pixel detector in the high-luminosity large hadron collider (HL-LHC). Two prototypes have been fabricated using 150 nm CMOS technology on high resistivity (> 2 k$\Omega$ $cm^2$) wafers. The chip size is equivalent to that of the current ATLAS pixel detector readout chip. One of the prototypes is used for detailed characterization of the sensor and the analog readout of the DMAPS. The other is a fully monolithic DMAPS including fast readout digital logic that handles the required hit rate. In order to yield a strong homogeneous electric field within the sensor volume, thinning of the wafer was tested. The prototypes were irradiated with X-ray up to a total ionization dose (TID) of 50 Mrad and with neutrons up to non-ionizing energy loss (NIEL) of $10^{15}$ $n_{eq}/cm^2$. The analog readout circuitry maintained its performance after TID irradiation, and the hit-efficiency at > $10^7$ noise occupancy was as high as 98.9 % after NIEL irradiation.

Published
2018
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15. Production and Integration of the ATLAS Insertable B-Layer

Author

Abbott, B., Albert, J., Alberti, F., Alex, M., Alimonti, G., Alkire, S., Allport, P., Altenheiner, S., Ancu, L., Anderssen, E., Andreani, A., Andreazza, A., Axen, B., Arguin, J., Backhaus, M., Balbi, G., Ballansat, J., Barbero, M., Barbier, G., Bassalat, A., Bates, R., Baudin, P., Battaglia, M., Beau, T., Beccherle, R., Bell, A., Benoit, M., Bermgan, A., Bertsche, C., Bertsche, D., de Mendizabal, J. Bilbao, Bindi, F., Bomben, M., Borri, M., Bortolin, C., Bousson, N., Boyd, R., Breugnon, P., Bruni, G., Brossamer, J., Bruschi, M., Buchholz, P., Budun, E., Buttar, C., Cadoux, F., Calderini, G., Caminada, L., Capeans, M., Carney, R., Casse, G., Catinaccio, A., Cavalli-Sforza, M., Červ, M., Cervelli, A., Chau, C., Chauveau, J., Chen, S., Chu, M., Ciapetti, M., Cindro, V., Citterio, M., Clark, A., Cobal, M., Coelli, S., Collot, J., Crespo-Lopez, O., Betta, G. Dalla, Daly, C., D'Amen, G., Dann, N., Dao, V., Darbo, G., DaVia, C., David, P., Debieux, S., Delebecque, P., De Lorenzi, F., de Oliveira, R., Dette, K., Dietsche, W., Di Girolamo, B., Dinu, N., Dittus, F., Diyakov, D., Djama, F., Dobos, D., Dondero, P., Doonan, K., Dopke, J., Dorholt, O., Dube, S., Dzahini, D., Egorov, K., Ehrmann, O., Einsweiler, K., Elles, S., Elsing, M., Eraud, L., Ereditato, A., Eyring, A., Falchieri, D., Falou, A., Fausten, C., Favareto, A., Favre, Y., Feigl, S., Perez, S. Fernandez, Ferrere, D., Fleury, J., Flick, T., Forshaw, D., Fougeron, D., Franconi, L., Gabrielli, A., Gaglione, R., Gallrapp, C., Gan, K., Garcia-Sciveres, M., Gariano, G., Gastaldi, T., Gavrilenko, I., Gaudiello, A., Geffroy, N., Gemme, C., Gensolen, F., George, M., Ghislain, P., Giangiacomi, N., Gibson, S., Giordani, M., Giugni, D., Gjersdal, H., Glitza, K., Gnani, D., Godlewski, J., Gonella, L., Gonzalez-Sevilla, S., Gorelov, I., Gorišek, A., Gössling, C., Grancagnolo, S., Gray, H., Gregor, I., Grenier, P., Grinstein, S., Gris, A., Gromov, V., Grondin, D., Grosse-Knetter, J., Guescini, F., Guido, E., Gutierrez, P., Hallewell, G., Hartman, N., Hauck, S., Hasi, J., Hasib, A., Hegner, F., Heidbrink, S., Heim, T., Heinemann, B., Hemperek, T., Hessey, N., Hetmánek, M., Hinman, R., Hoeferkamp, M., Holmes, T., Hostachy, J., Hsu, S., Hügging, F., Husi, C., Iacobucci, G., Ibragimov, I., Idarraga, J., Ikegami, Y., Ince, T., Ishmukhametov, R., Izen, J. M., Janoška, Z., Janssen, J., Jansen, L., Jeanty, L., Jensen, F., Jentzsch, J., Jezequel, S., Joseph, J., Kagan, H., Kagan, M., Karagounis, M., Kass, R., Kastanas, A., Kenney, C., Kersten, S., Kind, P., Klein, M., Klingenberg, R., Kluit, R., Kocian, M., Koffeman, E., Korchak, O., Korolkov, I., Kostyukhina-Visoven, I., Kovalenko, S., Kretz, M., Krieger, N., Krüger, H., Kruth, A., Kugel, A., Kuykendall, W., La Rosa, A., Lai, C., Lantzsch, K., Lapoire, C., Laporte, D., Lari, T., Latorre, S., Leyton, M., Lindquist, B., Looper, K., Lopez, I., Lounis, A., Lu, Y., Lubatti, H., Maeland, S., Maier, A., Mallik, U., Manca, F., Mandelli, B., Mandić, I., Marchand, D., Marchiori, G., Marx, M., Massol, N., Mättig, P., Mayer, J., Goldrick, G. Mc, Mekkaoui, A., Menouni, M., Menu, J., Meroni, C., Mesa, J., Michal, S., Miglioranzi, S., Mikuž, M., Miucci, A., Mochizuki, K., Monti, M., Moore, J., Morettini, P., Morley, A., Moss, J., Muenstermann, D., Murray, P., Nakamura, K., Nellist, C., Nelson, D., Nessi, M., Nisius, R., Nordberg, M., Nuiry, F., Obermann, T., Ockenfels, W., Oide, H., Oriunno, M., Ould-Saada, F., Padilla, C., Pangaud, P., Parker, S., Pelleriti, G., Pernegger, H., Piacquadio, G., Picazio, A., Pohl, D., Polini, A., Pons, X., Popule, J., Bueso, X. Portell, Potamianos, K., Povoli, M., Puldon, D., Pylypchenko, Y., Quadt, A., Quayle, B., Rarbi, F., Ragusa, F., Rambure, T., Richards, E., Riegel, C., Ristic, B., Rivière, F., Rizatdinova, F., Røhne, O., Rossi, C., Rossi, L., Rovani, A., Rozanov, A., Rubinskiy, I., Rudolph, M., Rummler, A., Ruscino, E., Sabatini, F., Salek, D., Salzburger, A., Sandaker, H., Sannino, M., Sanny, B., Scanlon, T., Schipper, J., Schmidt, U., Schneider, B., Schorlemmer, A., Schroer, N., Schwemling, P., Sciuccati, A., Seidel, S., Seiden, A., Šícho, P., Skubic, P., Sloboda, M., Smith, D., Smith, M., Sood, A., Spencer, E., Stramaglia, M., Strauss, M., Stucci, S., Stugu, B., Stupak, J., Styles, N., Su, D., Takubo, Y., Tassan, J., Teng, P., Teixeira, A., Terzo, S., Therry, X., Todorov, T., Tomášek, M., Toms, K., Travaglini, R., Trischuk, W., Troncon, C., Troska, G., Tsiskaridze, S., Tsurin, I., Tsybychev, D., Unno, Y., Vacavant, L., Verlaat, B., Vigeolas, E., Vogt, M., Vrba, V., Vuillermet, R., Wagner, W., Walkowiak, W., Wang, R., Watts, S., Weber, M., Weingarten, J., Welch, S., Wenig, S., Wensing, M., Wermes, N., Wittig, T., Wittgen, M., Yildizkaya, T., Yang, Y., Yao, W., Yi, Y., Zaman, A., Zaidan, R., Zeitnitz, C., Ziolkowski, M., Zivkovic, V., Zoccoli, A., and Zwalinski, L.

Subjects
Physics - Instrumentation and Detectors, High Energy Physics - Experiment
Abstract

During the shutdown of the CERN Large Hadron Collider in 2013-2014, an additional pixel layer was installed between the existing Pixel detector of the ATLAS experiment and a new, smaller radius beam pipe. The motivation for this new pixel layer, the Insertable B-Layer (IBL), was to maintain or improve the robustness and performance of the ATLAS tracking system, given the higher instantaneous and integrated luminosities realised following the shutdown. Because of the extreme radiation and collision rate environment, several new radiation-tolerant sensor and electronic technologies were utilised for this layer. This paper reports on the IBL construction and integration prior to its operation in the ATLAS detector., Comment: 90 pages in total. Author list: ATLAS IBL Collaboration, starting page 2. 69 figures, 20 tables. Published in Journal of Instrumentation. All figures available at: https://atlas.web.cern.ch/Atlas/GROUPS/PHYSICS/PLOTS/PIX-2018-001

Published
2018
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17. Development of depleted monolithic pixel sensors in 150 nm CMOS technology for the ATLAS Inner Tracker upgrade

Author

Rymaszewski, Piotr, Barbero, Marlon, Bhat, Siddharth, Breugnon, Patrick, Caicedo, Ivan, Chen, Zongde, Degerli, Yavuz, Godiot, Stephanie, Guilloux, Fabrice, Guyot, Claude, Hemperek, Tomasz, Hirono, Toko, Hügging, Fabian, Krüger, Hans, Lachkar, Mohamed, Pangaud, Patrick, Rozanov, Alexandre, Schwemling, Philippe, Vandenbroucke, Maxence, Wang, Tianyang, and Wermes, Norbert

Subjects
Physics - Instrumentation and Detectors, High Energy Physics - Experiment
Abstract

This work presents a depleted monolithic active pixel sensor (DMAPS) prototype manufactured in the LFoundry 150 nm CMOS process. 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 for the High Luminosity Large Hadron Collider (HL-LHC). Implementing such a device in the detector module will result in a lower production cost and lower material budget compared to the presently used hybrid designs. In this paper the chip architecture will be described followed by the simulation and measurement results.

Published
2017

18. 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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19. Progress in DMAPS developments and first tests of the Monopix2 chips in 150 nm LFoundry and 180 nm TowerJazz technology

Author

Dingfelder, J., Barbero, M., Barrillon, P., Berdalovic, I., Bespin, C., Breugnon, P., Caicedo, I., Cardella, R., Degerli, Y., Flores Sanz de Acedo, L., Guilloux, F., Habib, A., Hirono, T., Hemperek, T., Hügging, F., Krüger, H., Kugathasan, T., Moustakas, K., Pangaud, P., Pernegger, H., Piro, F., Pohl, D.-L., Riedler, P., Rozanov, A., Rymaszewski, P., Schwemling, P., Snoeys, W., Wang, T., Wermes, N., and Zhang, S.

Published
2022
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20. 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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21. Characterization of Fully Depleted CMOS Active Pixel Sensors on High Resistivity Substrates for Use in a High Radiation Environment

Author

Hirono, Toko, Barbero, Marlon, Breugnon, Patrick, Godiot, Stéphanie, Hemperek, Tomasz, Hügging, Fabian, Janssen, Jens, Krüger, Hans, Liu, Jian, Pangaud, Patrick, Perić, Ivan, Pohl, David-Leon, Rozanov, Alexandre, Rymaszewski, Piotr, and Wermes, Norbert

Subjects
Physics - Instrumentation and Detectors
Abstract

Depleted CMOS active sensors (DMAPS) are being developed for high-energy particle physics experiments in high radiation environments, such as in the ATLAS High Luminosity Large Hadron Collider (HL-LHC). Since charge collection by drift is mandatory for harsh radiation environment, the application of high bias voltage to high resistive sensor material is needed. In this work, a prototype of a DMAPS was fabricated in a 150nm CMOS process on a substrate with a resistivity of >2 k{\Omega}cm that was thinned to 100 {\mu}m. Full depletion occurs around 20V, which is far below the breakdown voltage of 110 V. A readout chip has been attached for fast triggered readout. Presented prototype also uses a concept of sub-pixel en/decoding three pixels of the prototype chip are readout by one pixel of the readout chip. Since radiation tolerance is one of the largest concerns in DMAPS, the CCPD_LF chip has been irradiated with X-rays and neutrons up to a total ionization dose of 50 Mrad and a fluence of 10E15neq/cm2, respectively.

Published
2016
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22. Production and integration of the ATLAS Insertable B-Layer

Author

Abbott, B, Albert, J, Alberti, F, Alex, M, Alimonti, G, Alkire, S, Allport, P, Altenheiner, S, Ancu, LS, Anderssen, E, Andreani, A, Andreazza, A, Axen, B, Arguin, J, Backhaus, M, Balbi, G, Ballansat, J, Barbero, M, Barbier, G, Bassalat, A, Bates, R, Baudin, P, Battaglia, M, Beau, T, Beccherle, R, Bell, A, Benoit, M, Bermgan, A, Bertsche, C, Bertsche, D, De Mendizabal, JB, Bindi, F, Bomben, M, Borri, M, Bortolin, C, Bousson, N, Boyd, RG, Breugnon, P, Bruni, G, Brossamer, J, Bruschi, M, Buchholz, P, Budun, E, Buttar, C, Cadoux, F, Calderini, G, Caminada, L, Capeans, M, Carney, R, Casse, G, Catinaccio, A, Cavalli-Sforza, M, Červ, M, Cervelli, A, Chau, CC, Chauveau, J, Chen, SP, Chu, M, Ciapetti, M, Cindro, V, Citterio, M, Clark, A, Cobal, M, Coelli, S, Collot, J, Crespo-Lopez, O, Betta, GFD, Daly, C, D'Amen, G, Dann, N, Dao, V, Darbo, G, Davia, C, David, P, Debieux, S, Delebecque, P, Lorenzi, FD, De Oliveira, R, Dette, K, Dietsche, W, Girolamo, BD, Dinu, N, Dittus, F, Diyakov, D, Djama, F, Dobos, D, Dondero, P, Doonan, K, Dopke, J, Dorholt, O, Dube, S, Dzahini, D, Egorov, K, Ehrmann, O, Einsweiler, K, Elles, S, Elsing, M, Eraud, L, Ereditato, A, and Eyring, A

Subjects
Large detector systems for particle and astroparticle physics, Particle tracking detectors, Nuclear & Particles Physics, Other Physical Sciences, Physical Sciences, Engineering
Abstract

During the shutdown of the CERN Large Hadron Collider in 2013-2014, an additional pixel layer was installed between the existing Pixel detector of the ATLAS experiment and a new, smaller radius beam pipe. The motivation for this new pixel layer, the Insertable B-Layer (IBL), was to maintain or improve the robustness and performance of the ATLAS tracking system, given the higher instantaneous and integrated luminosities realised following the shutdown. Because of the extreme radiation and collision rate environment, several new radiation-tolerant sensor and electronic technologies were utilised for this layer. This paper reports on the IBL construction and integration prior to its operation in the ATLAS detector.

Published
2018

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

Author

Rymaszewski, Piotr, Barbero, Marlon, Breugnon, Patrick, Godiot, Stépahnie, Gonella, Laura, Hemperek, Tomasz, Hirono, Toko, Hügging, Fabian, Krüger, Hans, Liu, Jian, Pangaud, Patrick, Peric, Ivan, Rozanov, Alexandre, Wang, Anqing, and Wermes, Norbert

Subjects
Physics - Instrumentation and Detectors, High Energy Physics - Experiment
Abstract

The LHC Phase-II upgrade will lead to a significant increase in luminosity, which in turn will bring new challenges for the operation of inner tracking detectors. A possible solution is to use active silicon sensors, taking advantage of commercial CMOS technologies. Currently ATLAS R&D programme is qualifying a few commercial technologies in terms of suitability for this task. In this paper a prototype designed in one of them (LFoundry 150 nm process) will be discussed. The chip architecture will be described, including different pixel types incorporated into the design, followed by simulation and measurement results., Comment: 9 pages, 9 figures, TWEPP 2015 Conference, submitted to JINST

Published
2016
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24. Management of Long COVID—The CoviMouv' Pilot Study: Importance of Adapted Physical Activity for Prolonged Symptoms Following SARS-CoV2 Infection

Author

Claire Colas, Manon Bayle, Pierre Labeix, Elisabeth Botelho-Nevers, Amandine Gagneux-Brunon, Céline Cazorla, Flora Schein, Emma Breugnon, Arnauld Garcin, Léonard Feasson, Frédéric Roche, and David Hupin

Subjects
COVID-19, long COVID, ongoing symptomatic COVID-19, fatigue, exercise, education, Sports, GV557-1198.995
Abstract

ContextAfter a COVID-19 infection, some patients have persistent symptoms, the most common is fatigue. To prevent it from becoming chronic (post-COVID-19 syndrome), early management before 3 months could be useful. Exercise and education are recommended.ObjectiveTo assess fatigue in patients with prolonged symptoms after COVID-19 infection and who received a mixed program of remote adapted physical activity and therapeutic education. The secondary objective was to evaluate the efficacy and safety of this training method thanks to aerobic and anaerobic parameters.Methods“CoviMouv': From Coaching in Visual to Mouv in real” is a nonrandomized controlled pilot study. Patients in telerehabilitation followed 12 remote exercise sessions and 3 therapeutic education workshops. Patients on traditional rehabilitation followed their program with a community-based physiotherapist.ResultsFatigue was reduced after the one-month intervention in both groups (p = 0.010). The majority of aerobic parameters were significantly improved, e.g., maximal oxygen uptake (p = 0.005), walking distance (p = 0.019) or hyperventilation values (p = 0.035). The anaerobic parameter was not improved (p = 0.400). No adverse event was declared.DiscussionTelerehabilitation is a good alternative when a face-to-face program is not possible. This care at an early stage of the disease could help prevent the chronicity of post-COVID-19 symptoms and the installation of vicious circles of physical deconditioning. A larger study would be necessary.

Published
2022
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25. Radiation hard monolithic CMOS sensors with small electrodes for High Luminosity LHC

Author

Pernegger, H., Allport, P., Asensi Tortajada, I., Barbero, M., Barrillon, P., Berdalovic, I., Bespin, C., Bhat, S., Bortoletto, D., Breugnon, P., Buttar, C., Cardella, R., Dachs, F., Dao, V., Degerli, Y., Denizli, H., Dyndal, M., Flores Sanz de Acedo, L., Freeman, P., Gonella, L., Habib, A., Hemperek, T., Hirono, T., Hiti, B., Kugathasan, T., Mandić, I., Mikuž, M., Moustakas, K., Munker, M., Oyulmaz, K.Y., Pangaud, P., Piro, F., Riedler, P., Sandaker, H., Schioppa, E.J., Schwemling, P., Sharma, A., Simon Argemi, L., Solans Sanchez, C., Snoeys, W., Suligoj, T., Wang, T., and Wermes, N.

Published
2021
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26. 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

27. High-voltage pixel sensors for ATLAS upgrade

Author

Perić, I., Kreidl, C., Fischer, P., Bompard, F., Breugnon, P., Clemens, J.-C., Fougeron, D., Liu, J., Pangaud, P., Rozanov, A., Barbero, M., Feigl, S., Capeans, M., Ferrere, D., Pernegger, H., Ristic, B., Muenstermann, D., Gonzalez Sevilla, S., La Rosa, A., Miucci, A., Nessi, M., Iacobucci, G., Backhaus, M., Hügging, Fabian, Krüger, H., Hemperek, T., Obermann, T., Wermes, N., Garcia-Sciveres, M., Quadt, A., Weingarten, J., George, M., Grosse-Knetter, J., Rieger, J., Bates, R., Blue, A., Buttar, C., and Hynds, D.

Published
2014
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28. Hardware Architecture and Cutting-Edge Assembly Process of a Tiny Curved Compound Eye

Author

Stéphane Viollet, Stéphanie Godiot, Robert Leitel, Wolfgang Buss, Patrick Breugnon, Mohsine Menouni, Raphaël Juston, Fabien Expert, Fabien Colonnier, Géraud L'Eplattenier, Andreas Brückner, Felix Kraze, Hanspeter Mallot, Nicolas Franceschini, Ramon Pericet-Camara, Franck Ruffier, and Dario Floreano

Subjects
compound optics, optical sensors, active pixel sensors, flexible electronics, fast bus, robotics, Chemical technology, TP1-1185
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 \(180^\circ\) \(\times\) \(60^\circ\)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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29. 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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30. Latest Developments and Results of Radiation Tolerance CMOS Sensors with Small Collection Electrodes

Author

Asensi Tortajada, I., primary, Allport, P., additional, Barbero, M., additional, Barrillon, P., additional, Berdalovic, I., additional, Bespin, C., additional, Bhat, S., additional, Bortoletto, D., additional, Breugnon, P., additional, Buttar, C., additional, Cardella, R., additional, Dachs, F., additional, Dao, V., additional, Degerli, Y., additional, Denizli, H., additional, Dyndal, M., additional, Sanz de Acedo, L. Flores, additional, Freeman, P., additional, Gonella, L., additional, Habib, A., additional, Hemperek, T., additional, Hirono, T., additional, Kugathasan, T., additional, Mandić, I., additional, Mikuž, M., additional, Moustakas, K., additional, Munker, M., additional, Oyulmaz, K. Y., additional, Pangaud, P., additional, Pernegger, H., additional, Piro, F., additional, Riedler, P., additional, Sandaker, H., additional, Schioppa, E. J., additional, Schwemling, P., additional, Sharma, A., additional, Simon Argemi, L., additional, Sanchez, C. Solans, additional, Snoeys, W., additional, Suligoj, T., additional, Wang, T., additional, and Wermes, N., additional

Published
2021
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33. PIXSCAN: Pixel detector CT-scanner for small animal imaging

Author

Delpierre, P., Debarbieux, F., Basolo, S., Berar, J.F., Bonissent, A., Boudet, N., Breugnon, P., Caillot, B., Cassol Brunner, F., Chantepie, B., Clemens, J.C., Dinkespiler, B., Khouri, R., Koudobine, I., Mararazzo, V., Meessen, C., Menouni, M., Morel, C., Mouget, C., Pangaud, P., Peyrin, F., Rougon, G., Sappey-Marinier, D., Valton, S., and Vigeolas, E.

Published
2007
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34. XPAD: pixel detector for material sciences

Author

Basolo, S., Berar, J.-F., Boudet, N., Breugnon, P., Caillot, B., Clemens, J.-C., Delpierre, P., Dinkespiler, B., Koudobine, I., Meessen, C., Menouni, M., Mouget, C., Pangaud, P., Potheau, R., and Vigeolas, E.

Subjects
Radiation warning systems -- Mechanical properties, Synchrotron radiation sources -- Research, Scattering, Radiation -- Research, Business, Electronics, Electronics and electrical industries
Abstract

Currently available 2D detectors do not make full use of the high flux and high brilliance of third generation synchrotron sources. The XPAD prototype, using active pixels, has been developed to fulfill the needs of materials science scattering experiments. At the time, its prototype is build of eight modules of eight chips. The threshold calibration of [approximately equal to] 4 [10.sup.4] pixels is discussed. Applications to powder diffraction or SAXS experiments prove that it allows to record high quality data. Index Terms--Detector, pixel, powder diffraction, SAXS, synchrotron.

Published
2005

35. DMAPS Monopix developments in large and small electrode designs

Author

Bespin, C., primary, Barbero, M., additional, Barrillon, P., additional, Berdalovic, I., additional, Bhat, S., additional, Breugnon, P., additional, Caicedo, I., additional, Cardella, R., additional, Chen, Z., additional, Degerli, Y., additional, Dingfelder, J., additional, Flores Sanz de Acedo, L., additional, Godiot, S., additional, Guilloux, F., additional, Hirono, T., additional, Hemperek, T., additional, Hügging, F., additional, Krüger, H., additional, Kugathasan, T., additional, Marin Tobon, C., additional, Moustakas, K., additional, Pangaud, P., additional, Pernegger, H., additional, Piro, F., additional, Riedler, P., additional, Rozanov, A., additional, Rymaszewski, P., additional, Schwemling, P., additional, Snoeys, W., additional, Vandenbroucke, M., additional, Wang, T., additional, Wermes, N., additional, and Zhang, S., additional

Published
2020
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36. Design, assembly and validation of the Filter Exchange System of LSSTCam

Author

Marshall, Heather K., Spyromilio, Jason, Usuda, Tomonori, Antilogus, Pierre, Aubourg, Éric, Boucaud, Alexandre, Breugnon, Patrick, Coridian, Julien, Croizet, Hervé, Daubard, Guillaume, Gallo, Fabrice, Juramy, Claire, Karst, Pierre, Kusulja, Mile, Labat, Daniel, Lagorio, Eric, Laporte, Didier, Marini, Aurélien, Verdier, Pierre, Vezzu, Francis, Virieux, Françoise, and Weicherding, Teo

Published
2022
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37. 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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38. 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

39. 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

40. 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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41. 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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43. 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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44. 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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45. 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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46. Electrical characteristics of silicon pixel detectors

Author

Gorelov, I, Gorfine, G, Hoeferkamp, M, Mata-Bruni, V, Santistevan, G, Seidel, S.C, Ciocio, A, Einsweiler, K, Emes, J, Gilchriese, M, Joshi, A, Kleinfelder, S, Marchesini, R, McCormack, F, Milgrome, O, Palaio, N, Pengg, F, Richardson, J, Zizka, G, Ackers, M, Comes, G, Fischer, P, Keil, M, Martinez, G, Peric, I, Runolfsson, O, Stockmanns, T, Treis, J, Wermes, N, Gößling, C, Hügging, F, Klaiber-Lodewigs, J, Krasel, O, Wüstenfeld, J, Wunstorf, R, Barberis, D, Beccherle, R, Caso, C, Cervetto, M, Darbo, G, Gagliardi, G, Gemme, C, Morettini, P, Netchaeva, P, Osculati, B, Rossi, L, Charles, E, Fasching, D, Blanquart, L, Breugnon, P, Calvet, D, Clemens, J.-C, Delpierre, P, Hallewell, G, Laugier, D, Mouthuy, T, Rozanov, A, Valin, I, Andreazza, A, Caccia, M, Citterio, M, Lari, T, Meroni, C, Ragusa, F, Troncon, C, Vegni, G, Lutz, G, Richter, R.H, Rohe, T, Boyd, G.R, Skubic, P.L, Šı́cho, P, Tomasek, L, Vrba, V, Holder, M, Ziolkowski, M, Cauz, D, Cobal-Grassmann, M, D’Auria, S, De Lotto, B, del Papa, C, Grassmann, H, Santi, L, Becks, K.H, Lenzen, G, and Linder, C

Published
2002
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47. A measurement of Lorentz angle and spatial resolution of radiation hard silicon pixel sensors

Author

Gorelov, I., Gorfine, G., Hoeferkamp, M., Seidel, S.C., Ciocio, A., Einsweiler, K., Gilchriese, M., Joshi, A., Kleinfelder, S., Marchesini, R., Milgrome, O., Palaio, N., Pengg, F., Richardson, J., Zizka, G., Ackers, M., Fischer, P., Keil, M., Meuser, S., Stockmanns, T., Treis, J., Wermes, N., Gößling, C., Hügging, F., Wüstenfeld, J., Wunstorf, R., Barberis, D., Beccherle, R., Cervetto, M., Darbo, G., Gagliardi, G., Gemme, C., Morettini, P., Netchaeva, P., Osculati, B., Parodi, F., Rossi, L., Dao, K., Fasching, D., Blanquart, L., Breugnon, P., Calvet, D., Clemens, J.-C., Delpierre, P., Hallewell, G., Laugier, D., Mouthuy, T., Rozanov, A., Trouilleau, C., Valin, I., Aleppo, M., Andreazza, A., Caccia, M., Lari, T., Meroni, C., Ragusa, F., Troncon, C., Vegni, G., Rohe, T., Boyd, G.R., Severini, H., Skubic, P.L., Snow, J., Šı́cho, P., Tomasek, L., Vrba, V., Holder, M., Lipka, D., Ziolkowski, M., Cauz, D., D'Auria, S., del Papa, C., Grassman, H., Santi, L., Becks, K.H., Gerlach, P., Grah, C., Gregor, I., Harenberg, T., and Linder, C.

Published
2002
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48. Large surface X-ray pixel detector

Author

Delpierre, P., Berar, J.F., Blanquart, L., Boudet, N., Breugnon, P., Caillot, B., Clemens, J.C., Mouget, C., Potheau, R., and Valin, I.

Subjects
Pixels -- Analysis, Crystallography -- Equipment and supplies, Business, Electronics, Electronics and electrical industries
Abstract

A large surface semiconductor photon counting pixel detector is being built. As a first step, this detector is optimized for X-ray crystallography. The aim is to provide a high dynamic range (> [10.sup.9]), high counting rate ([10.sup.7] ph/s per pixel), and fast image readout (3 ms). A full custom chip has been produced and tested, and results are presented. Prototypes of 6 [cm.sup.2] containing pixels of 330 x 330 [micro][m.sup.2] have been built together with a full fast readout system. These prototypes have been tested in the D2am beam line at the ESRF synchrotron (Grenoble, France) for photon energies between 10 and 24 KeV. For photon energies above 10 keV, the signal is separable from the noise. We give results on the efficiency as a0 function of the photon rate and the effect of the threshold on the efficiency in the region between the pixels. Furthermore, to demonstrate the large dynamic range, we made diffraction images. Index Terms--Crystallography, detector, instrumentation, pixels, X-rays.

Published
2002

49. COVID-19 outpatient management: Shorter time to recovery in Healthcare workers according to an electronic daily symptoms assessment

Author

Breugnon, E., Thollot, H., Fraissenon, A., Saunier, F., Labetoulle, R., Pillet, S., Lucht, F., Berthelot, P., Botelho-Nevers, E., and Gagneux-Brunon, A.

Abstract

•COVID-19 outcomes are favorable in patients eligible for outpatient care.•Individuals with mild symptoms of COVID-19 could be treated at home.•The median time to recovery was 9 days after symptoms onset.•Median time to recovery from symptoms onset was shorter in healthcare workers than in non-healthcare workers.•At day 7, more than the half of the individuals reported no symptoms.

Published
2024
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50. 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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