M. Putignano
University of Liverpool
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Publication
Featured researches published by M. Putignano.
Journal of Instrumentation | 2012
M. Putignano; A Intermite; Carsten Welsch
Read-out of Silicon Photomultipliers is commonly achieved by means of charge integration, a method particularly susceptible to after-pulsing noise and not efficient for low level light signals. Current signal monitoring, characterized by easier electronic implementation and intrinsically faster than charge integration, is also more suitable for low level light signals and can potentially result in much decreased after-pulsing noise effects. However, its use is to date limited by the need of developing a suitable read-out algorithm for signal analysis and filtering able to achieve current peak detection and measurement with the needed precision and accuracy. In this paper we present an original algorithm, based on a piecewise linear-fitting approach, to filter the noise of the current signal and hence efficiently identifying and measuring current peaks. The proposed algorithm is then compared with the optimal linear filtering algorithm for time-encoded peak detection, based on a moving average routine, and assessed in terms of accuracy, precision, and peak detection efficiency, demonstrating improvements of 1÷2 orders of magnitude in all these quality factors.
Proceedings of the 12th International Conference on Low Energy Antiproton Physics (LEAP2016) | 2017
Carsten Welsch; H. Zhang; Adam Jeff; M. Putignano; Miguel Fernandes; Javier Resta-Lopez; J. Harasimowicz; Vasilis Tzoganis; Alexandra Alexandrova; James Hunt; Alejandro Sosa
This paper presents a comprehensive set of beam diagnostics that has been developed to characterize low energy antiproton and ion beams (during initial machine commissioning) and subsequent facility operation. It shows results from simulations and experiments using invasive and non-invasive monitors for absolute beam current measurements; capacitive pickups for position detection; scintillating screens, secondary emission monitors and micro channel plate detectors for transverse profile monitoring, as well as an ultra-cold gas jet for minimally-invasive profile measurements and in-ring experiments. The identified limits are discussed for each technique, and options for further improvements are indicated.
Nuclear Instruments & Methods in Physics Research Section A-accelerators Spectrometers Detectors and Associated Equipment | 2012
M. Putignano; Carsten Welsch
Hyperfine Interactions | 2012
Carsten Welsch; A. I. Papash; O. Gorda; J. Harasimowicz; Oleg Karamyshev; G. Karamysheva; D. Newton; M. Panniello; M. Putignano; M. R. F. Siggel-King; A.V. Smirnov
Presented at | 2010
M. Putignano; Carsten Welsch
Archive | 2012
J. Harasimowicz; M. Putignano; Carsten Welsch
Hyperfine Interactions | 2012
M. Panniello; Kai-Uwe Kühnel; A. Papash; J. Harasimowicz; M. Putignano; M. R. F. Siggel-King; Carsten Welsch
Archive | 2010
M. Putignano; Carsten Welsch
Hyperfine Interactions | 2014
Carsten Welsch; A. I. Papash; J. Harasimowicz; O. Karamyshev; G. Karamysheva; D. Newton; M. Panniello; M. Putignano; M. R. F. Siggel-King; A.V. Smirnov
Nuclear Instruments & Methods in Physics Research Section A-accelerators Spectrometers Detectors and Associated Equipment | 2012
A. Intermite; M. Putignano; A. Wolski