Depth of interaction measurements based on rectangular light sharing window technology and nine-crystals-to-one-SiPM coupling method

Depth of interaction (DOI) decoding capability shows great application potential for positron emission tomography (PET), especially for high-resolution small-animal PET or long axial field of view PET systems. On the basis of GATE optical simulation results, we presented a novel 9 × 9 lutetium-yttri...

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Veröffentlicht in:IEEE transactions on radiation and plasma medical sciences 2021-05, Vol.5 (3), p.1-1
Hauptverfasser: Zhang, Xi, Ye, Baihezi, Yu, Hongsen, Zhang, Yuyu, Xie, Siwei, Xu, Jianfeng, Peng, Qiyu
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container_title IEEE transactions on radiation and plasma medical sciences
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Ye, Baihezi
Yu, Hongsen
Zhang, Yuyu
Xie, Siwei
Xu, Jianfeng
Peng, Qiyu
description Depth of interaction (DOI) decoding capability shows great application potential for positron emission tomography (PET), especially for high-resolution small-animal PET or long axial field of view PET systems. On the basis of GATE optical simulation results, we presented a novel 9 × 9 lutetium-yttrium oxyorthosilicate array with 10 mm rectangular light-sharing windows (RLSWs) and assembly the detector with nine crystals coupled to one SiPM method; this caused DOI-related position shifts in the crystal decoding spots of the flood map. Homogeneous radiation was used to establish transfer functions to convert spot shifts into DOI measurements. The conventional collimated radiation experiments were used to assess the accuracy of the DOI measurements. Flood map results show that 81 segmented crystals can be clearly resolved, including 16 crystals adjacent to two RLSW windows (M-type), 40 crystals adjacent to one RLSW window (E-type), and 25 crystals not adjacent to any RLSW window (C-type). The mean absolute error of all DOI-capable crystals, M-type crystals, and E-type crystals are 2.15±0.61 mm, 1.95±0.50 mm, 2.23±0.63 mm, respectively. The novel nine-crystals-to-one-SiPM coupling technology is a low cost approach for constructing high-performance DOI detector modules. Detectors using nine-crystals-to-one-SiPM coupling technology are good candidates for high-resolution preclinical PET and for total-body PET.
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On the basis of GATE optical simulation results, we presented a novel 9 × 9 lutetium-yttrium oxyorthosilicate array with 10 mm rectangular light-sharing windows (RLSWs) and assembly the detector with nine crystals coupled to one SiPM method; this caused DOI-related position shifts in the crystal decoding spots of the flood map. Homogeneous radiation was used to establish transfer functions to convert spot shifts into DOI measurements. The conventional collimated radiation experiments were used to assess the accuracy of the DOI measurements. Flood map results show that 81 segmented crystals can be clearly resolved, including 16 crystals adjacent to two RLSW windows (M-type), 40 crystals adjacent to one RLSW window (E-type), and 25 crystals not adjacent to any RLSW window (C-type). The mean absolute error of all DOI-capable crystals, M-type crystals, and E-type crystals are 2.15±0.61 mm, 1.95±0.50 mm, 2.23±0.63 mm, respectively. The novel nine-crystals-to-one-SiPM coupling technology is a low cost approach for constructing high-performance DOI detector modules. 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subjects Biomedical optical imaging
Coupling
Crystals
Decoding
Depth of Interaction
Detectors
Field of view
Flood mapping
High resolution
Light sharing window
Lutetium
Optical detectors
Optical reflection
Optical simulation
PET detector
Photomultiplier tubes
Photonics
Positron emission
Positron emission tomography
Radiation
Technology
Tomography
Transfer functions
Yttrium
title Depth of interaction measurements based on rectangular light sharing window technology and nine-crystals-to-one-SiPM coupling method
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