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Your search keyword '"Fenoglio, C.A."' showing total 4 results
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4 results on '"Fenoglio, C.A."'

1. 20 ps time resolution with a fully-efficient monolithic silicon pixel detector without internal gain layer

Author

Zambito, S., primary, Milanesio, M., additional, Moretti, T., additional, Paolozzi, L., additional, Munker, M., additional, Cardella, R., additional, Kugathasan, T., additional, Martinelli, F., additional, Picardi, A., additional, Elviretti, M., additional, Rücker, H., additional, Trusch, A., additional, Cadoux, F., additional, Cardarelli, R., additional, Débieux, S., additional, Favre, Y., additional, Fenoglio, C.A., additional, Ferrere, D., additional, Gonzalez-Sevilla, S., additional, Iodice, L., additional, Kotitsa, R., additional, Magliocca, C., additional, Nessi, M., additional, Pizarro-Medina, A., additional, Sabater Iglesias, J., additional, Saidi, J., additional, Vicente Barreto Pinto, M., additional, and Iacobucci, G., additional

Published
2023
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2. Testbeam results of the Picosecond Avalanche Detector proof-of-concept prototype

Author

Iacobucci, G., primary, Zambito, S., additional, Milanesio, M., additional, Moretti, T., additional, Saidi, J., additional, Paolozzi, L., additional, Munker, M., additional, Cardella, R., additional, Martinelli, F., additional, Picardi, A., additional, Rücker, H., additional, Trusch, A., additional, Valerio, P., additional, Cadoux, F., additional, Cardarelli, R., additional, Débieux, S., additional, Favre, Y., additional, Fenoglio, C.A., additional, Ferrere, D., additional, Gonzalez-Sevilla, S., additional, Gurimskaya, Y., additional, Kotitsa, R., additional, Magliocca, C., additional, Nessi, M., additional, Pizarro-Medina, A., additional, Sabater Iglesias, J., additional, and Vicente Barreto Pinto, M., additional

Published
2022
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3. Picosecond Avalanche Detector — working principle and gain measurement with a proof-of-concept prototype

Author

Paolozzi, L., primary, Munker, M., additional, Cardella, R., additional, Milanesio, M., additional, Gurimskaya, Y., additional, Martinelli, F., additional, Picardi, A., additional, Rücker, H., additional, Trusch, A., additional, Valerio, P., additional, Cadoux, F., additional, Cardarelli, R., additional, Débieux, S., additional, Favre, Y., additional, Fenoglio, C.A., additional, Ferrere, D., additional, Gonzalez-Sevilla, S., additional, Kotitsa, R., additional, Magliocca, C., additional, Moretti, T., additional, Nessi, M., additional, Pizarro Medina, A., additional, Sabater Iglesias, J., additional, Saidi, J., additional, Vicente Barreto Pinto, M., additional, Zambito, S., additional, and Iacobucci, G., additional

Published
2022
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4. Picosecond Avalanche Detector — working principle and gain measurement with a proof-of-concept prototype

Author

Paolozzi, L., Munker, M., Cardella, R., Milanesio, M., Gurimskaya, Y., Martinelli, F., Picardi, A., Rücker, H., Trusch, A., Valerio, P., Cadoux, F., Cardarelli, R., Débieux, S., Favre, Y., Fenoglio, C.A., Ferrere, D., Gonzalez-Sevilla, S., Kotitsa, R., Magliocca, C., Moretti, T., Nessi, M., Pizarro Medina, A., Sabater Iglesias, J., Saidi, J., Vicente Barreto Pinto, M., Zambito, S., and Iacobucci, G.

Subjects
Physics - Instrumentation and Detectors, Physics::Instrumentation and Detectors, Particle tracking detectors (Solid-state detectors), Pixelated detectors and associated VLSI electronics, FOS: Physical sciences, Instrumentation and Detectors (physics.ins-det), Detectors and Experimental Techniques, Solid state detectors, physics.ins-det, Instrumentation, Timing detectors, Mathematical Physics
Abstract

The Picosecond Avalanche Detector is a multi-junction silicon pixel detector based on a (NP)$_{drift}$(NP)$_{gain}$ structure, devised to enable charged-particle tracking with high spatial resolution and picosecond time-stamp capability. It uses a continuous junction deep inside the sensor volume to amplify the primary charge produced by ionizing radiation in a thin absorption layer. The signal is then induced by the secondary charges moving inside a thicker drift region. A proof-of-concept monolithic prototype, consisting of a matrix of hexagonal pixels with 100 μm pitch, has been produced using the 130 nm SiGe BiCMOS process by IHP microelectronics. Measurements on probe station and with a $^{55}$Fe X-ray source show that the prototype is functional and displays avalanche gain up to a maximum electron gain of 23. A study of the avalanche characteristics, corroborated by TCAD simulations, indicates that space-charge effects due to the large primary charge produced by the conversion of X-rays from the ^55Fe source limits the effective gain. The Picosecond Avalanche Detector is a multi-junction silicon pixel detector based on a $\mathrm{(NP)_{drift}(NP)_{gain}}$ structure, devised to enable charged-particle tracking with high spatial resolution and picosecond time-stamp capability. It uses a continuous junction deep inside the sensor volume to amplify the primary charge produced by ionizing radiation in a thin absorption layer. The signal is then induced by the secondary charges moving inside a thicker drift region. A proof-of-concept monolithic prototype, consisting of a matrix of hexagonal pixels with 100 $\mu$m pitch, has been produced using the 130 nm SiGe BiCMOS process by IHP microelectronics. Measurements on probe station and with a $^{55}$Fe X-ray source show that the prototype is functional and displays avalanche gain up to a maximum electron gain of 23. A study of the avalanche characteristics, corroborated by TCAD simulations, indicates that space-charge effects due to the large primary charge produced by the conversion of X-rays from the $^{55}$Fe source limits the effective gain.

Published
2022
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