Ian Alberts, Stuart More, Karen Knapp, Riccardo Mei, Stefano Fanti, Clemens Mingels, Lorenzo Nardo, Nii Boye Hammond, Harish Nagaraj, Axel Rominger, Gary J.R. Cook, Don Wilson
{"title":"Is Long–Axial-Field-of-View PET/CT Cost-Effective? An International Health–Economic Analysis","authors":"Ian Alberts, Stuart More, Karen Knapp, Riccardo Mei, Stefano Fanti, Clemens Mingels, Lorenzo Nardo, Nii Boye Hammond, Harish Nagaraj, Axel Rominger, Gary J.R. Cook, Don Wilson","doi":"10.2967/jnumed.124.269203","DOIUrl":null,"url":null,"abstract":"<p>Our aim is to assess the cost-effectiveness of long–axial-field-of-view (LAFOV) versus short–axial FOV (SAFOV) PET/CT systems using international data. <strong>Methods:</strong> Our model compares equipment and operational costs for a PET/CT center and investigates the effect of camera choice (SAFOV vs. LAFOV) and operational models. Variables include scanner, personnel, radiopharmaceuticals, and operational costs. Economic performance was measured as cost per scan per patient, the total maximum number of scans possible, and the incremental cost-effectiveness ratio. The willingness-to-pay threshold (WTPT) was taken as the cost of a PET/CT scan using the baseline scenario. Radiopharmaceutical requirements, radiation dose to staff and patients, and patient time were modeled. <strong>Results:</strong> An LAFOV system can examine as many patients per day (<em>n</em> = 36) as 2 SAFOV systems but requires fewer technologists (4.5 LAFOV vs. 6.8 SAFOV full-time equivalents) and lower activity (12.5 vs. 35.6 GBq/d), resulting in lower personnel doses (0.9 vs. 2.0 mSv/y). For all countries, LAFOV resulted in lowest per-patient scan costs. The most cost-ineffective method was the use of extended hours. Incremental cost-effectiveness ratio analysis strongly favored LAFOV for all countries, including low-income economies, with WTPT met for all jurisdictions. Net monetary benefit was highest for LAFOV. The minimum number of patients needed to meet WTPT for LAFOV was lowest in lower-income countries, suggesting that high throughput or high per-procedure income is not a prerequisite for cost-effective LAFOV usage. <strong>Conclusion:</strong> LAFOV was shown to facilitate higher patient throughput at lower per-patient and total lifetime operational costs and with lower radiopharmaceutical requirements. These data suggest that LAFOV systems are not just suited to well-resourced academic centers but also are an economically attractive solution for community and resource-limited settings.</p>","PeriodicalId":22820,"journal":{"name":"The Journal of Nuclear Medicine","volume":"24 1","pages":""},"PeriodicalIF":0.0000,"publicationDate":"2025-04-17","publicationTypes":"Journal Article","fieldsOfStudy":null,"isOpenAccess":false,"openAccessPdf":"","citationCount":"0","resultStr":null,"platform":"Semanticscholar","paperid":null,"PeriodicalName":"The Journal of Nuclear Medicine","FirstCategoryId":"1085","ListUrlMain":"https://doi.org/10.2967/jnumed.124.269203","RegionNum":0,"RegionCategory":null,"ArticlePicture":[],"TitleCN":null,"AbstractTextCN":null,"PMCID":null,"EPubDate":"","PubModel":"","JCR":"","JCRName":"","Score":null,"Total":0}
引用次数: 0
Abstract
Our aim is to assess the cost-effectiveness of long–axial-field-of-view (LAFOV) versus short–axial FOV (SAFOV) PET/CT systems using international data. Methods: Our model compares equipment and operational costs for a PET/CT center and investigates the effect of camera choice (SAFOV vs. LAFOV) and operational models. Variables include scanner, personnel, radiopharmaceuticals, and operational costs. Economic performance was measured as cost per scan per patient, the total maximum number of scans possible, and the incremental cost-effectiveness ratio. The willingness-to-pay threshold (WTPT) was taken as the cost of a PET/CT scan using the baseline scenario. Radiopharmaceutical requirements, radiation dose to staff and patients, and patient time were modeled. Results: An LAFOV system can examine as many patients per day (n = 36) as 2 SAFOV systems but requires fewer technologists (4.5 LAFOV vs. 6.8 SAFOV full-time equivalents) and lower activity (12.5 vs. 35.6 GBq/d), resulting in lower personnel doses (0.9 vs. 2.0 mSv/y). For all countries, LAFOV resulted in lowest per-patient scan costs. The most cost-ineffective method was the use of extended hours. Incremental cost-effectiveness ratio analysis strongly favored LAFOV for all countries, including low-income economies, with WTPT met for all jurisdictions. Net monetary benefit was highest for LAFOV. The minimum number of patients needed to meet WTPT for LAFOV was lowest in lower-income countries, suggesting that high throughput or high per-procedure income is not a prerequisite for cost-effective LAFOV usage. Conclusion: LAFOV was shown to facilitate higher patient throughput at lower per-patient and total lifetime operational costs and with lower radiopharmaceutical requirements. These data suggest that LAFOV systems are not just suited to well-resourced academic centers but also are an economically attractive solution for community and resource-limited settings.
我们的目的是利用国际数据评估长轴视场(LAFOV)与短轴视场(SAFOV) PET/CT系统的成本效益。方法:我们的模型比较了PET/CT中心的设备和运营成本,并研究了相机选择(SAFOV vs. LAFOV)和运营模式的影响。变量包括扫描仪、人员、放射性药物和操作成本。经济效益是通过每位患者每次扫描的成本、可能的最大扫描次数和增量成本-效果比来衡量的。使用基线方案,将支付意愿阈值(WTPT)作为PET/CT扫描的成本。对放射性药物的要求、对工作人员和病人的辐射剂量以及病人的时间进行了建模。结果:一个LAFOV系统每天可以检查与2个SAFOV系统一样多的患者(n = 36),但需要更少的技术人员(4.5 LAFOV vs. 6.8 SAFOV全职当量)和更低的活度(12.5 vs. 35.6 GBq/d),导致更低的人员剂量(0.9 vs. 2.0 mSv/年)。在所有国家,LAFOV的人均扫描费用最低。最具成本效益的方法是延长工作时间。增量成本效益比分析强烈支持所有国家,包括低收入经济体的LAFOV, WTPT满足所有司法管辖区。净货币效益最高的是LAFOV。在低收入国家,LAFOV达到WTPT所需的最低患者人数最低,这表明高通量或高单次收入并不是具有成本效益的LAFOV使用的先决条件。结论:LAFOV被证明能够以更低的每名患者和总生命周期操作成本以及更低的放射性药物要求促进更高的患者吞吐量。这些数据表明,LAFOV系统不仅适用于资源充足的学术中心,而且在社区和资源有限的环境中也是一种经济上有吸引力的解决方案。