Observational analysis reveals high-resolution timing and tracking in charged particles, indicating advancements in PET detection.
<ns3:p>Objective: To explore readout architectures for the simultaneous high-resolution timing and bidimensional tracking of charged particles with Resistive Plate Chambers (TOF-tracker) and for the accurate detection of gamma rays for Positron Emission Tomography (PET).Materials and methods: Resistive plate chambers and their corresponding readout systems under evaluation were exposed to cosmic rays and β⁺ sources.Results: Over an active area of 625 cm², we obtained a time resolution of 61 ps ơ and bidimensional position resolution below 150 μm ơ for the tracking and timing of charged particles from cosmic rays. The intrinsic precision for localising a small β⁺ source via the detection of its annihilation radiation was determined to be 0.49 mm FWHM.Conclusions: The proposed device exhibits excellent timing and position resolution for the tracking and timing of charged particles, with potential applications in nuclear and high-energy particle physics, as well as gamma imaging with applications in PET.</ns3:p>
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Fonte et al. (2025) studied this question.
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