Implantation of an Artificial Intelligence Denoising Algorithm Using SubtlePET™ with Various Radiotracers: 18F-FDG, 68Ga PSMA-11 and 18F-FDOPA, Impact on the Technologist Radiation Doses.

IF 2.7 Q3 IMAGING SCIENCE & PHOTOGRAPHIC TECHNOLOGY
Jules Zhang-Yin, Octavian Dragusin, Paul Jonard, Christian Picard, Justine Grangeret, Christopher Bonnier, Philippe P Leveque, Joel Aerts, Olivier Schaeffer
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Abstract

This study assesses the clinical deployment of SubtlePET™, a commercial AI-based denoising algorithm, across three radiotracers-18F-FDG, 68Ga-PSMA-11, and 18F-FDOPA-with the goal of improving image quality while reducing injected activity, technologist radiation exposure, and scan time. A retrospective analysis on a digital PET/CT system showed that SubtlePET™ enabled dose reductions exceeding 33% and time savings of over 25%. AI-enhanced images were rated interpretable in 100% of cases versus 65% for standard low-dose reconstructions. Notably, 85% of AI-enhanced scans received the maximum Likert quality score (5/5), indicating excellent diagnostic confidence and noise suppression, compared to only 50% with conventional reconstruction. The quantitative image quality improved significantly across all tracers, with SNR and CNR gains of 50-70%. Radiotracer dose reductions were particularly substantial in low-BMI patients (up to 41% for FDG), and the technologist exposure decreased for high-exposure roles. The daily patient throughput increased by an average of 4.84 cases. These findings support the robust integration of SubtlePET™ into routine clinical PET practice, offering improved efficiency, safety, and image quality without compromising lesion detectability.

基于不同示踪剂(18F-FDG, 68Ga PSMA-11和18F-FDOPA)的人工智能去噪算法植入技术人员辐射剂量的影响
本研究评估了商用人工智能去噪算法在三种放射性示踪剂(18f - fdg、68Ga-PSMA-11和18f - fdopa)上的临床应用,目的是提高图像质量,同时减少注射活性、技术人员辐射暴露和扫描时间。对数字PET/CT系统的回顾性分析表明,该系统可使剂量减少超过33%,节省超过25%的时间。人工智能增强图像在100%的病例中被评为可解释,而在标准低剂量重建中为65%。值得注意的是,85%的人工智能增强扫描获得了最高的李克特质量评分(5/5),表明出色的诊断置信度和噪声抑制,而传统重建只有50%。所有示踪剂的定量图像质量都得到了显著改善,信噪比和CNR增益为50-70%。在低bmi患者中,放射性示踪剂的剂量减少尤其显著(FDG减少41%),高暴露角色的技术人员暴露减少。每日病人吞吐量平均增加4.84例。这些发现支持将该技术整合到常规临床PET实践中,在不影响病变可检测性的情况下提高效率、安全性和图像质量。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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来源期刊
Journal of Imaging
Journal of Imaging Medicine-Radiology, Nuclear Medicine and Imaging
CiteScore
5.90
自引率
6.20%
发文量
303
审稿时长
7 weeks
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