Performance comparison between signal digitizers and low-cost digital oscilloscopes: spectroscopic, pulse shape discrimination and timing capabilities for nuclear detectors
Cristiano L. Fontana, Nicol\`o Tuccori, Felix E. Pino, Marcello, Lunardon, Luca Stevanato, Sandra Moretto

TL;DR
This study compares traditional signal digitizers with low-cost digital oscilloscopes for nuclear detector signal processing, evaluating their performance in spectroscopy, timing, pulse shape discrimination, and data acquisition rate.
Contribution
It demonstrates that low-cost oscilloscopes can be viable alternatives to specialized digitizers in nuclear physics applications.
Findings
Low-cost oscilloscopes achieve comparable energy resolution to traditional digitizers.
Timing and pulse shape discrimination performance are similar across devices.
Data acquisition rates are sufficient for many nuclear physics experiments.
Abstract
Signal digitizers revolutionized the approach to the electronics readout of radiation detectors in Nuclear Physics. These highly specialized pieces of equipment are designed to acquire the signals that are characteristic of the detectors in nuclear physics experiments. The functions of the several modules that were once needed for signal acquisition, can now be substituted by a single digitizer. As suggested by the name, with such readout modules, signals are first digitized (i.e. the signal waveform is sampled and converted to a digital representation) and then either stored or analyzed on-the-fly. The performances can be comparable or better than the traditional analog counterparts, in terms of energy, time resolution, and acquisition rate. In this work, we investigate the use of general-purpose digital oscilloscopes as signal digitizers for nuclear detectors. In order to have a…
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