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185 results on '"Maneuski, D."'

1. 26.5 ps Time Resolution Using 50 {\mu}m Low Gain Avalanche Detectors Fabricated by Micron Semiconductor Ltd

Author

Moriya, R., Bates, R., Bullough, M., Cooke, N., Docheva, A., Lombigit, L., Maneuski, D., McFeely, R., and Moffat, N.

Subjects
Physics - Instrumentation and Detectors
Abstract

Low Gain Avalanche Detectors (LGADs) are silicon semiconductor sensors with an implanted thin p-doped multiplication layer that is designed to provide low gain. Most importantly, LGADs are specifically engineered to provide excellent spatial and temporal resolution simultaneously. The technology shows promising prospects of fulfilling the 4D tracking requirements of future high energy physics experiments. Micron Semiconductor Ltd. has fabricated LGADs with an active thickness of 50 $\mu$m. The electrical and timing performance has been measured and compared with devices fabricated at IMB-CNM for reference. 50 $\mu$m thin LGADs by Micron Semiconductor Ltd. were measured to have a timing resolution in the region of 30 ps using a dedicated setup involving minimum ionising particles produced by Sr-90. Specifically, the best timing resolution of 26.5 ps was measured at a bias voltage of 200 V at -30{\deg}C.

Published
2023

2. Inverse Low Gain Avalanche Detector (iLGAD) Periphery Design for X-Ray Applications

Author

Doblas, A., Flores, D., Hidalgo, S., Moffat, N., Pellegrini, G., Quirion, D., Villegas, J., Maneuski, D., Ruat, M., and Fajardo, P.

Subjects
Physics - Instrumentation and Detectors
Abstract

LGAD technology is established within the field of particle physics, as the baseline technology for the timing detectors of both the ATLAS and CMS upgrades at the HL-LHC. Pixelated LGADs have been proposed for the High Granularity Timing Detector (HGTD) and for the Endcap Timing Layer (ETL) of the ATLAS and CMS experiments, respectively. The drawback of segmenting an LGAD is the non-gain area between pixels and the consequent reduction in the fill factor. In this sense, inverse LGAD (iLGAD) technology has been proposed by IMB-CNM to enhance the fill factor and to reach excellent tracking capabilities. In this work, we explore the use of iLGAD sensors for X-Ray applications by developing a new generation of iLGADs. The periphery of the first iLGAD generation is optimized by means of TCAD tools, making them suitable for X-Ray irradiations thanks to the double side optimization. The fabricated iLGAD sensors exhibit good electrical performances before and after an X-Ray irradiation. The second iLGAD generation is able to withstand the same voltage, as contrary to the first iLGAD generation after irradiation.

Published
2022

5. Mini-MALTA: Radiation hard pixel designs for small-electrode monolithic CMOS sensors for the High Luminosity LHC

Author

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

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

Depleted Monolithic Active Pixel Sensor (DMAPS) prototypes developed in the TowerJazz 180 nm CMOS imaging process have been designed in the context of the ATLAS upgrade Phase-II at the HL-LHC. The pixel sensors are characterized by a small collection electrode (3 $\mu$m) to minimize capacitance, a small pixel size ($36.4\times 36.4$ $\mu$m), and are produced on high resistivity epitaxial p-type silicon. The design targets a radiation hardness of $1\times10^{15}$ 1 MeV n$_{eq}$/cm$^{2}$, compatible with the outermost layer of the ATLAS ITK Pixel detector. This paper presents the results from characterization in particle beam tests of the Mini-MALTA prototype that implements a mask change or an additional implant to address the inefficiencies on the pixel edges. Results show full efficiency after a dose of $1\times10^{15}$ 1 MeV n$_{eq}$/cm$^{2}$.

Published
2019
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7. Medipix3 Demonstration and understanding of near ideal detector performance for 60 & 80 keV electrons

Author

Mir, J. A., Clough, R., MacInnes, R., Gough, C., Plackett, R., Shipsey, I., Sawada, H., MacLaren, I., Ballabriga, R., Maneuski, D., O'Shea, V., McGrouther, D., and Kirkland, A. I.

Subjects
Physics - Instrumentation and Detectors
Abstract

In our article we report first quantitative measurements of imaging performance for the current generation of hybrid pixel detector, Medipix3, as direct electron detector. Utilising beam energies of 60 & 80 keV, measurements of modulation transfer function (MTF) and detective quantum efficiency (DQE) have revealed that, in single pixel mode (SPM), energy threshold values can be chosen to maximize either the MTF or DQE, obtaining values near to, or even exceeding, those for an ideal detector. We have demonstrated that the Medipix3 charge summing mode (CSM) can deliver simultaneous, near ideal values of both MTF and DQE. To understand direct detection performance further we have characterized the detector response to single electron events, building an empirical model which can predict detector MTF and DQE performance based on energy threshold. Exemplifying our findings we demonstrate the Medipix3 imaging performance, recording a fully exposed electron diffraction pattern at 24-bit depth and images in SPM and CSM modes. Taken together our findings highlight that for transmission electron microscopy performed at low energies (energies <100 keV) thick hybrid pixel detectors provide an advantageous and alternative architecture for direct electron imaging

Published
2016

8. Investigations into the impact of locally modified sensor architectures on the detection efficiency of silicon micro-strip sensors

Author

Poley, L, Lohwasser, K, Blue, A, Benoit, M, Bloch, I, Díez, S, Fadeyev, V, Gallop, B, Greenall, A, Gregor, I-M, Keller, J, Lacasta, C, Maneuski, D, Meng, L, Milovanovic, M, Pape, I, Phillips, PW, Rehnisch, L, Sawhney, K, Sawyer, C, Sperlich, D, Stegler, M, Unno, Y, Warren, M, and Yildirim, E

Subjects
Nuclear and Plasma Physics, Synchrotrons and Accelerators, Engineering, Electronics, Sensors and Digital Hardware, Physical Sciences, Bioengineering, Si microstrip and pad detectors, Inspection with x-rays, Hybrid detectors, Instrumentation for particle accelerators and storage rings - high energy, Nuclear & Particles Physics, Physical sciences
Published
2017

9. Study of CMOS strip sensor for future silicon tracker

Author

Han, Y., Zhu, H., Affolder, A., Arndt, K., Bates, R., Benoit, M., Di Bello, F., Blue, A., Bortoletto, D., Buckland, M., Buttar, C., Caragiulo, P., Chen, Y., Das, D., Doering, D., Dopke, J., Dragone, A., Ehrler, F., Fadeyev, V., Fedorko, W., Galloway, Z., Gay, C., Grabas, H., Gregor, I.M., Grenier, P., Grillo, A., Hiti, B., Hoeferkamp, M., Hommels, L.B.A., Huffman, T., John, J., Kanisauskas, K., Kenney, C., Kramberger, G., Liu, P., Lu, W., Liang, Z., Mandić, I., Maneuski, D., Martinez-Mckinney, F., McMahon, S., Meng, L., Mikuz̆, M., Muenstermann, D., Nickerson, R., Peric, I., Phillips, P., Plackett, R., Rubbo, F., Ruckman, L., Segal, J., Seidel, S., Seiden, A., Shipsey, I., Song, W., Stanitzki, M., Su, D., Tamma, C., Turchetta, R., Vigani, L., Volk, J., Wang, R., Warren, M., Wilson, F., Worm, S., Xiu, Q., and Zhang, J.

Published
2020
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12. Investigation of HV/HR-CMOS technology for the ATLAS Phase-II Strip Tracker Upgrade

Author

Fadeyev, V., Galloway, Z., Grabas, H., Grillo, A.A., Liang, Z., Martinez-Mckinney, F., Seiden, A., Volk, J., Affolder, A., Buckland, M., Meng, L., Arndt, K., Bortoletto, D., Huffman, T., John, J., McMahon, S., Nickerson, R., Phillips, P., Plackett, R., Shipsey, I., Vigani, L., Bates, R., Blue, A., Buttar, C., Kanisauskas, K., Maneuski, D., Benoit, M., Di Bello, F., Caragiulo, P., Dragone, A., Grenier, P., Kenney, C., Rubbo, F., Segal, J., Su, D., Tamma, C., Das, D., Dopke, J., Turchetta, R., Wilson, F., Worm, S., Ehrler, F., Peric, I., Gregor, I.M., Stanitzki, M., Hoeferkamp, M., Seidel, S., Hommels, L.B.A., Kramberger, G., Mandić, I., Mikuž, M., Muenstermann, D., Wang, R., Zhang, J., Warren, M., Song, W., Xiu, Q., and Zhu, H.

Published
2016
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13. Study of built-in amplifier performance on HV-CMOS sensor for the ATLAS phase-II strip tracker upgrade

Author

Liang, Z., Affolder, A., Arndt, K., Bates, R., Benoit, M., Di Bello, F., Blue, A., Bortoletto, D., Buckland, M., Buttar, C., Caragiulo, P., Das, D., Dopke, J., Dragone, A., Ehrler, F., Fadeyev, V., Galloway, Z., Grabas, H., Gregor, I.M., Grenier, P., Grillo, A., Hoeferkamp, M., Hommels, L.B.A., Huffman, B.T., John, J., Kanisauskas, K., Kenney, C., Kramberger, J., Mandić, I., Maneuski, D., Martinez-Mckinney, F., McMahon, S., Meng, L., Mikuž, M., Muenstermann, D., Nickerson, R., Peric, I., Phillips, P., Plackett, R., Rubbo, F., Segal, J., Seidel, S., Seiden, A., Shipsey, I., Song, W., Stanitzki, M., Su, D., Tamma, C., Turchetta, R., Vigani, L., Volk, J., Wang, R., Warren, M., Wilson, F., Worm, S., Xiu, Q., Zhang, J., and Zhu, H.

Published
2016
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14. Characterisation of Glasgow/CNM Double-Sided 3D Sensors

Author

Raighne, Aaron Mac, Akiba, K., Balbuena, J.P., Bates, R., van Beuzekom, M., Buytaert, J., Collins, P., Crossley, M., Dumps, R., Eklund, L., Fleta, C., Gallas, A., Gersabeck, M., Gligorov, V.V., John, M., Köhler, M., Lozano, M., Maneuski, D., Parzefall, U., Quirion, D., Plackett, R., Parkes, C., Pellegrini, G., Rodrigues, E., and Stewart, G.

Published
2012
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16. The LHCb VELO upgrade

Author

Collins, P., Akiba, K., Alexander, M., Artuso, M., Bayer, F., van Beuzekom, M.G., Blusk, S., Bowcock, T.J.V., Buytaert, J., Campbell, M., Coco, V., Crossley, M., Dumps, R., Eklund, L., Esperante, D., Ferre Llin, L., Gallas, A., Gandelman, M., Gersabeck, M., Gligorov, V., Huse, T., John, M., Kucharczyk, M., Llopart, X., Maneuski, D., Michel, T., Mountain, R., Nichols, M., Papadelis, A., Parkes, C., Plackett, R., Poikela, T., Rodrigues, E., Tlustos, L., Wang, J.C., Whitehead, M., and Xing, Z.

Published
2011
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18. The Medipix2-based network for measurement of spectral characteristics and composition of radiation in ATLAS detector

Author

Vykydal, Z., Bouchami, J., Campbell, M., Dolezal, Z., Fiederle, M., Greiffenberg, D., Gutierrez, A., Heijne, E., Holy, T., Idarraga, J., Jakubek, J., Kral, V., Kralik, M., Lebel, C., Leroy, C., Llopart, X., Maneuski, D., Nessi, M., O’Shea, V., Platkevic, M., Pospisil, S., Suk, M., Tlustos, L., Vichoudis, P., Visschers, J., Wilhelm, I., and Zemlicka, J.

Published
2009
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25. Characterization and testing of LAS: a prototype 'large area sensor' with performance characteristics suitable for medical imaging applications

Author

Bohndiek, S.E., Blue, A., Cabello, J., Clark, A.T., Guerrini, N., Evans, P.M., Harris, E.J., Konstantinidis, A., Maneuski, D., Osmond, J., O'Shea, V., Speller, R.D., Turchetta, R., Wells, K., Zin, H., and Allinson, N.M.

Subjects
Medical imaging equipment, Complementary metal oxide semiconductors, Sensors, Business, Electronics, Electronics and electrical industries
Published
2009

28. Recent measurements on MiniMALTA, a radiationhard CMOS sensor with small collection electrodesfor ATLAS

Author

Freeman, Patrick Moriishi, primary, Allport, P., additional, Andreazza, A., additional, Asensi Tortajada, I., additional, Barbero, M., additional, Bhat, S., additional, Bortoletto, D., additional, Berdalovic, I., additional, Bespin, C., additional, Buttar, C., additional, Caicedo, I., additional, Cardella, R., additional, Dachs, F., additional, Dao, V., additional, Degerli, Y., additional, Denizli, H., additional, Dyndal, M., additional, Flores Sanz de Acedo, L., additional, Gonella, L., additional, Habib, A., additional, Hemperek, T., additional, Hirono, T., additional, Kugathasan, T., additional, Liberali, V., additional, Mandic, I., additional, Maneuski, D., additional, Metodiev, K., additional, Mikuž, M., additional, Mironova, M., additional, Moustakas, K., additional, Munker, M., additional, Oyulmaz, K. Y., additional, Pangaud, P., additional, Pernegger, H., additional, Piro, F., additional, Plackett, R., additional, Riedler, P., additional, Sandaker, H., additional, Schioppa, E. J., additional, Schwemling, P., additional, Sharma, A., additional, Shipsey, I., additional, Simon Argemim, L., additional, Solans Sanchez, C., additional, Snoeys, W., additional, Suligoj, T., additional, Vigorelli, L., additional, Wang, T., additional, Weatherill, D., additional, Wennlöf, H., additional, Wermes, N., additional, Wood, D., additional, and Worm, S., additional

Published
2020
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29. Mini-MALTA: radiation hard pixel designs for small-electrode monolithic CMOS sensors for the High Luminosity LHC

Author

Dyndal, M., primary, Dao, V., additional, Allport, P., additional, Tortajada, I. Asensi, additional, Barbero, M., additional, Bhat, S., additional, Bortoletto, D., additional, Berdalovic, I., additional, Bespin, C., additional, Buttar, C., additional, Caicedo, I., additional, Cardella, R., additional, Dachs, F., additional, Degerli, Y., additional, Denizli, H., additional, de Acedo, L. Flores Sanz, additional, Freeman, P., additional, Gonella, L., additional, Habib, A., additional, Hemperek, T., additional, Hirono, T., additional, Hiti, B., additional, Kugathasan, T., additional, Mandić, I., additional, Maneuski, D., 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, Argemi, L. Simon, additional, Sanchez, C. Solans, additional, Snoeys, W., additional, Suligoj, T., additional, Wang, T., additional, Wermes, N., additional, and Worm, S., additional

Published
2020
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30. Low Gain Avalanche Detectors (LGAD) for particle physics and synchrotron applications

Author

Moffat, N., Bates, R., Bullough, M., Flores, L., Maneuski, D., Simon, L., Tartoni, N., Doherty, F., and Ashby, J.

Abstract

A new avalanche silicon detector concept is introduced with a low gain in the region of ten, known as a Low Gain Avalanche Detector, LGAD. The detector's characteristics are simulated via a full process simulation to obtain the required doping profiles which demonstrate the desired operational characteristics of high breakdown voltage (500 V) and a gain of 10 at 200 V reverse bias for X-ray detection. The first low gain avalanche detectors fabricated by Micron Semiconductor Ltd are presented. The doping profiles of the multiplication junctions were measured with SIMS and reproduced by simulating the full fabrication process which enabled further development of the manufacturing process. The detectors are 300 μm thick p-type silicon with a resistivity of 8.5 kΩcm, which fully depletes at 116 V. The current characteristics are presented and demonstrate breakdown voltages in excess of 500 V and a current density of 40 to 100 nAcm−2 before breakdown measured at 20oC. The gain of the LGAD has been measured with a red laser (660 nm) and shown to be between 9 and 12 for an external bias voltage range from 150 V to 300 V.

Published
2018

32. Charge collection in irradiated HV-CMOS detectors

Author

Hiti, B., primary, Affolder, A., additional, Arndt, K., additional, Bates, R., additional, Benoit, M., additional, Bello, F. Di, additional, Blue, A., additional, Bortoletto, D., additional, Buckland, M., additional, Buttar, C., additional, Caragiulo, P., additional, Das, D., additional, Doering, D., additional, Dopke, J., additional, Dragone, A., additional, Ehrler, F., additional, Fadeyev, V., additional, Fedorko, W., additional, Galloway, Z., additional, Gay, C., additional, Grabas, H., additional, Gregor, I.M., additional, Grenier, P., additional, Grillo, A., additional, Han, Y., additional, Hoeferkamp, M., additional, Hommels, L.B.A., additional, Huffman, T., additional, John, J., additional, Kanisauskas, K., additional, Kenney, C., additional, Kramberger, G., additional, Liang, Z., additional, Mandić, I., additional, Maneuski, D., additional, Martinez-Mckinney, F., additional, McMahon, S., additional, Meng, L., additional, Mikuž, M., additional, Muenstermann, D., additional, Nickerson, R., additional, Peric, I., additional, Phillips, P., additional, Plackett, R., additional, Rubbo, F., additional, Ruckman, L., additional, Segal, J., additional, Seidel, S., additional, Seiden, A., additional, Shipsey, I., additional, Song, W., additional, Stanitzki, M., additional, Su, D., additional, Tamma, C., additional, Turchetta, R., additional, Vigani, L., additional, Volk, J., additional, Wang, R., additional, Warren, M., additional, Wilson, F., additional, Worm, S., additional, Xiu, Q., additional, Zhang, J., additional, and Zhu, H., additional

Published
2019
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33. Investigations into the impact of locally modified sensor architectures on the detection efficiency of silicon micro-strip sensors

Author

Poley, L., Lohwasser, K., Blue, A., Benoit, M., Bloch, I., Díez, S., Fadeyev, V., Gallop, B., Greenall, A., Gregor, I.-M., Keller, J., Lacasta, C., Maneuski, D., Meng, L., Milovanovic, M., Pape, I., Phillips, P.W., Rehnisch, L., Sawhney, K., Sawyer, C., Sperlich, D., Stegler, M., Unno, Y., Warren, M., and Yildirim, E.

Subjects
Physics - Instrumentation and Detectors, synchrotrons), Physics::Instrumentation and Detectors, FOS: Physical sciences, Hybrid detectors, Bioengineering, Instrumentation and Detectors (physics.ins-det), Si microstrip and pad detectors, Inspection with x-rays, Nuclear & Particles Physics, Instrumentation for particle accelerators and storage rings - high energy (linear accelerators, Other Physical Sciences, Engineering, Instrumentation for particle accelerators and storage rings - high energy, Physical Sciences, ddc:610, Detectors and Experimental Techniques, physics.ins-det, Instrumentation for particle accelerators and storage rings - high energy (linear accelerators, synchrotrons)
Abstract

The High Luminosity Upgrade of the LHC will require the replacement of the Inner Detector of ATLAS with the Inner Tracker (ITk) in order to cope with higher radiation levels and higher track densities. Prototype silicon strip detector modules are currently developed and their performance is studied in both particle test beams and X-ray beams. In previous test beam studies of prototype modules, silicon sensor strips were found to respond in regions varying from the strip pitch of 74.5 {\upmu}m. The variations have been linked to local features of the sensor architecture. This paper presents results of detailed sensor measurements in both X-ray and particle beams investigating the impact of sensor features (metal pads and p-stops) on the responding area of a sensor strip., Comment: to be published in Journal of Instrumentation

Published
2017

34. Characterisation of the Medipix3 detector for 60 and 80keV electrons

Author

Mir, J.A., Clough, R., MacInnes, R., Gough, C., Plackett, R., Shipsey, I., Sawada, H., MacLaren, I., Ballabriga, R., Maneuski, D., O'Shea, V., McGrouther, D., and Kirkland, A.I.

Subjects
Physics::Instrumentation and Detectors, Detectors and Experimental Techniques
Abstract

In this paper we report quantitative measurements of the imaging performance for the current generation of hybrid pixel detector, Medipix3, used as a direct electron detector. We have measured the modulation transfer function and detective quantum efficiency at beam energies of 60 and 80 keV. In single pixel mode, energy threshold values can be chosen to maximize either the modulation transfer function or the detective quantum efficiency, obtaining values near to, or exceeding those for a theoretical detector with square pixels. The Medipix3 charge summing mode delivers simultaneous, high values of both modulation transfer function and detective quantum efficiency. We have also characterized the detector response to single electron events and describe an empirical model that predicts the detector modulation transfer function and detective quantum efficiency based on energy threshold. Exemplifying our findings we demonstrate the Medipix3 imaging performance recording a fully exposed electron diffraction pattern at 24-bit depth together with images in single pixel and charge summing modes. Our findings highlight that for transmission electron microscopy performed at low energies (energies

Published
2016

36. Monolithic pixel development in TowerJazz 180 nm CMOS for the outer pixel layers in the ATLAS experiment

Author

Berdalovic, I., primary, Bates, R., additional, Buttar, C., additional, Cardella, R., additional, Plaja, N. Egidos, additional, Hemperek, T., additional, Hiti, B., additional, Hoorne, J.W. van, additional, Kugathasan, T., additional, Mandic, I., additional, Maneuski, D., additional, Tobon, C.A. Marin, additional, Moustakas, K., additional, Musa, L., additional, Pernegger, H., additional, Riedler, P., additional, Riegel, C., additional, Schaefer, D., additional, Schioppa, E.J., additional, Sharma, A., additional, Snoeys, W., additional, Sanchez, C. Solans, additional, Wang, T., additional, and Wermes, N., additional

Published
2018
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37. A tuneable ultra-compact high-power, ultra-short pulsed, bright gamma-ray source based on bremsstrahlung radiation from laser-plasma accelerated electrons.

Author

Cipiccia, S., Wiggins, S. M., Shanks, R. P., Islam, M. R., Vieux, G., Issac, R. C., Brunetti, E., Ersfeld, B., Welsh, G. H., Anania, M. P., Maneuski, D., Lemos, N. R. C., Bendoyro, R. A., Rajeev, P. P., Foster, P., Bourgeois, N., Ibbotson, T. P. A., Walker, P. A., Shea, V. O., and Dias, J. M.

Subjects
BREMSSTRAHLUNG, SYNCHROTRON radiation, GAMMA ray sources, LASER-plasma interactions, PHYSICS
Abstract

The laser driven plasma wakefield accelerator is a very compact source of high energy electrons. When the quasi-monoenergetic beam from these accelerators passes through dense material, high energy bremsstrahlung photons are emitted in a collimated beam with high flux. We show how a source based on this emission process can produce more than 109 photons per pulse with a mean energy of 10 MeV. We present experimental results that show the feasibility of this method of producing high energy photons and compare the experimental results with GEANT4 Montecarlo simulations, which also give the scaling required to evaluate its suitability as method to produce radioisotopes via photo-nuclear reactions or for imaging applications. [ABSTRACT FROM AUTHOR]

Published
2012
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38. The LHCb VELO upgrade

Author

Collins, P, Akiba, K, Alexander, M, Artuso, M, Bayer, F, van Beuzekom, MG, Blusk, S, Bowcock, T, Buytaert, J, Campbell, M, Coco, V, Crossley, M, Dumps, R, Eklund, L, Esperante, D, Ferre Llin, L, Gallas, A, Gandelman, M, Gersabeck, M, Gligorov, V, Huse, T, John, M, Kucharczyk, M, Llopart, X, and Maneuski, D

Published
2016

39. Characterisation of the Medipix3 detector for 60 and 80 keV electrons

Author

Mir, J.A., primary, Clough, R., additional, MacInnes, R., additional, Gough, C., additional, Plackett, R., additional, Shipsey, I., additional, Sawada, H., additional, MacLaren, I., additional, Ballabriga, R., additional, Maneuski, D., additional, O'Shea, V., additional, McGrouther, D., additional, and Kirkland, A.I., additional

Published
2017
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40. Development in a Novel CMOS Process for Depleted Monolithic Active Pixel Sensors

Author

Moustakas, K., primary, Bates, R., additional, Buttar, C., additional, Dalla, M., additional, Hemperek, T., additional, Van Hoorne, J. W., additional, Kugathasan, T., additional, Maneuski, D., additional, Tobon, C. A. Marin, additional, Musa, L., additional, Pernegger, H., additional, Riedler, P., additional, Riegel, C., additional, Sbarra, C., additional, Schaefer, D. M., additional, Sharma, A., additional, Schioppa, E. J., additional, Snoeys, W., additional, Sanchez, C. Solans, additional, Wang, T., additional, and Wermes, N., additional

Published
2017
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41. First tests of a novel radiation hard CMOS sensor process for Depleted Monolithic Active Pixel Sensors

Author

Pernegger, H., primary, Bates, R., additional, Buttar, C., additional, Dalla, M., additional, Hoorne, J.W. van, additional, Kugathasan, T., additional, Maneuski, D., additional, Musa, L., additional, Riedler, P., additional, Riegel, C., additional, Sbarra, C., additional, Schaefer, D., additional, Schioppa, E.J., additional, and Snoeys, W., additional

Published
2017
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44. Radiation hardness studies of AMS HV-CMOS 350 nm prototype chip HVStripV1

Author

Kanisauskas, K., primary, Affolder, A., additional, Arndt, K., additional, Bates, R., additional, Benoit, M., additional, Bello, F. Di, additional, Blue, A., additional, Bortoletto, D., additional, Buckland, M., additional, Buttar, C., additional, Caragiulo, P., additional, Das, D., additional, Dopke, J., additional, Dragone, A., additional, Ehrler, F., additional, Fadeyev, V., additional, Galloway, Z., additional, Grabas, H., additional, Gregor, I.M., additional, Grenier, P., additional, Grillo, A., additional, Hiti, B., additional, Hoeferkamp, M., additional, Hommels, L.B.A., additional, Huffman, B.T., additional, John, J., additional, Kenney, C., additional, Kramberger, J., additional, Liang, Z., additional, Mandic, I., additional, Maneuski, D., additional, Martinez-Mckinney, F., additional, MacMahon, S., additional, Meng, L., additional, Mikuž, M., additional, Muenstermann, D., additional, Nickerson, R., additional, Peric, I., additional, Phillips, P., additional, Plackett, R., additional, Rubbo, F., additional, Segal, J., additional, Seidel, S., additional, Seiden, A., additional, Shipsey, I., additional, Song, W., additional, Staniztki, M., additional, Su, D., additional, Tamma, C., additional, Turchetta, R., additional, Vigani, L., additional, Volk, J., additional, Wang, R., additional, Warren, M., additional, Wilson, F., additional, Worm, S., additional, Xiu, Q., additional, Zhang, J., additional, and Zhu, H., additional

Published
2017
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46. Radiation hardness of two CMOS prototypes for the ATLAS HL-LHC upgrade project

Author

Huffman, B. T., Affolder, A., Arndt, K., Bates, R., Benoit, M., Di Bello, F., Blue, A., Bortoletto, D., Buckland, M., Buttar, C., Caragiulo, P., Das, D., Dopke, J., Dragone, A., Ehrler, F., Fadeyev, V., Galloway, Z., Grabas, H., Gregor, I. M., Grenier, P., Grillo, A., Hoeferkamp, M., Hommels, L. B. A., John, J., Kanisauskas, K., Kenney, C., Kramberger, J., Liang, Z., Mandić, I., Maneuski, D., Martinez-Mckinney, F., McMahon, S., Meng, L., Mikuž, M., Muenstermann, Daniel Matthias Alfred, Nickerson, R., Perić, I., Phillips, P., Plackett, R., Rubbo, F., Segal, J., Seiden, A., Shipsey, I., Song, W., Stanitzki, M., Su, D., Tamma, C., Turchetta, R., Vigani, L., Volk, J., Wang, R., Warren, M., Wilson, F., Worm, S., Xiu, Q., Zhang, J., Zhu, H., Huffman, B. T., Affolder, A., Arndt, K., Bates, R., Benoit, M., Di Bello, F., Blue, A., Bortoletto, D., Buckland, M., Buttar, C., Caragiulo, P., Das, D., Dopke, J., Dragone, A., Ehrler, F., Fadeyev, V., Galloway, Z., Grabas, H., Gregor, I. M., Grenier, P., Grillo, A., Hoeferkamp, M., Hommels, L. B. A., John, J., Kanisauskas, K., Kenney, C., Kramberger, J., Liang, Z., Mandić, I., Maneuski, D., Martinez-Mckinney, F., McMahon, S., Meng, L., Mikuž, M., Muenstermann, Daniel Matthias Alfred, Nickerson, R., Perić, I., Phillips, P., Plackett, R., Rubbo, F., Segal, J., Seiden, A., Shipsey, I., Song, W., Stanitzki, M., Su, D., Tamma, C., Turchetta, R., Vigani, L., Volk, J., Wang, R., Warren, M., Wilson, F., Worm, S., Xiu, Q., Zhang, J., and Zhu, H.

Abstract

The LHC luminosity upgrade, known as the High Luminosity LHC (HL-LHC), will require the replacement of the existing silicon strip tracker and the transistion radiation tracker. Although a baseline design for this tracker exists the ATLAS collaboration and other non-ATLAS groups are exploring the feasibility of using CMOS Monolithic Active Pixel Sensors (MAPS) which would be arranged in a strip-like fashion and would take advantage of the service and support structure already being developed for the upgrade. Two test devices made with the AMS H35 process (a High voltage or HV CMOS process) have been subjected to various radiation environments and have performed well. The results of these tests are presented in this paper.

Published
2016

47. The CHESS-2 prototype in AMS 0.35 μm process: A high voltage CMOS monolithic sensor for ATLAS upgrade

Author

Tamma, C., primary, Caragiulo, P., additional, Grabas, H., additional, Xu, X., additional, Markovic, B., additional, Segal, J., additional, Dragone, A., additional, Kenney, C., additional, Su, D., additional, Grenier, P., additional, Fadeyev, V., additional, Grillo, A. A., additional, Haller, G., additional, Affolder, A., additional, Arndt, K., additional, Bates, R., additional, Benoit, M., additional, Di Bello, F., additional, Blue, A., additional, Bortoletto, D., additional, Buckland, M., additional, Buttar, C., additional, Das, D., additional, Dopke, J., additional, Ehrler, F., additional, Galloway, Z., additional, Gregor, I. M., additional, Hiti, B., additional, Hoeferkamp, M., additional, Hommels, L. B. A., additional, Huffman, T., additional, John, J., additional, Kanisauskas, K., additional, Kramberger, G., additional, Liang, Z., additional, Mandic, I., additional, Maneuski, D., additional, Martinez-Mckinney, F., additional, McMahon, S., additional, Meng, L., additional, Mikuz, M., additional, Muenstermann, D., additional, Nickerson, R., additional, Peric, I., additional, Phillips, P., additional, Plackett, R., additional, Rubbo, F., additional, Seidel, S., additional, Seiden, A., additional, Shipsey, I., additional, Song, W., additional, Stanitzki, M., additional, Turchetta, R., additional, Vigani, L., additional, Volk, J., additional, Wang, R., additional, Warren, M., additional, Wilson, F., additional, Worm, S., additional, Xiu, Q., additional, Zhang, J., additional, and Zhu, H., additional

Published
2016
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49. Characterisation of strip silicon detectors for the ATLAS Phase-II Upgrade with a micro-focused X-ray beam

Author

Poley, L., primary, Blue, A., additional, Bates, R., additional, Bloch, I., additional, Díez, S., additional, Fernandez-Tejero, J., additional, Fleta, C., additional, Gallop, B., additional, Greenall, A., additional, Gregor, I.-M., additional, Hara, K., additional, Ikegami, Y., additional, Lacasta, C., additional, Lohwasser, K., additional, Maneuski, D., additional, Nagorski, S., additional, Pape, I., additional, Phillips, P.W., additional, Sperlich, D., additional, Sawhney, K., additional, Soldevila, U., additional, Ullan, M., additional, Unno, Y., additional, and Warren, M., additional

Published
2016
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50. Charge collection studies in irradiated HV-CMOS particle detectors

Author

Affolder, A., primary, Andelković, M., additional, Arndt, K., additional, Bates, R., additional, Blue, A., additional, Bortoletto, D., additional, Buttar, C., additional, Caragiulo, P., additional, Cindro, V., additional, Das, D., additional, Dopke, J., additional, Dragone, A., additional, Ehrler, F., additional, Fadeyev, V., additional, Galloway, Z., additional, Gorišek, A., additional, Grabas, H., additional, Gregor, I.M., additional, Grenier, P., additional, Grillo, A., additional, Hommels, L.B.A., additional, Huffman, T., additional, John, J., additional, Kanisauskas, K., additional, Kenney, C., additional, Kramberger, G., additional, Liang, Z., additional, Mandić, I., additional, Maneuski, D., additional, McMahon, S., additional, Mikuž, M., additional, Muenstermann, D., additional, Nickerson, R., additional, Perić, I., additional, Phillips, P., additional, Plackett, R., additional, Rubbo, F., additional, Segal, J., additional, Seiden, A., additional, Shipsey, I., additional, Song, W., additional, Stanitzki, M., additional, Su, D., additional, Tamma, C., additional, Turchetta, R., additional, Vigani, L., additional, Volk, J., additional, Wang, R., additional, Warren, M., additional, Wilson, F., additional, Worm, S., additional, Xiu, Q., additional, Zavrtanik, M., additional, Zhang, J., additional, and Zhu, H., additional

Published
2016
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