Time-of-flight PET
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Cited by (120)
Improved light yield and growth of large-volume ultrafast single crystal scintillators Cs<inf>2</inf>ZnCl<inf>4</inf> and Cs<inf>3</inf>ZnCl<inf>5</inf>
2022, Optical MaterialsCitation Excerpt :The timing resolution of the system is limited by the decay time of the scintillator; therefore, fast scintillators are essential to achieve the desired performance (timing resolution on the order of ten to several hundred picoseconds). First generation TOF-PET scanners developed in the 1980's and 1990's were constructed with BaF2 and CsF crystals [8,9], which drew substantial interest due to their unprecedented decay times during this period (∼0.6 ns and 2.5 ns–5 ns, respectively) [9–11]. Unfortunately, the drawbacks of these two materials outweighed their benefits, so widespread use was not implemented.
Dynamic cardiac PET imaging: Technological improvements advancing future cardiac health
2019, Journal of Nuclear CardiologyPositron emission tomography in ischemic heart disease
2019, Revista Portuguesa de CardiologiaCitation Excerpt :The recent shift in the management of IHD from an anatomical to a functional gold standard has highlighted the importance of functional imaging techniques. Positron emission tomography (PET) is a nuclear medicine imaging technique that uses radiotracers to produce images of radionuclide distribution with an exterior detector system.2 These tracers can provide information on a wide range of biological pathways by non-invasive methods, using physiological substrates labeled with positron-emitting radionuclides.
PET/MRI Hybrid Systems
2018, Seminars in Nuclear Medicine