基于知识的规划、多标准优化和计划记分卡:制胜组合

IF 4.9 1区 医学 Q1 ONCOLOGY
Carlos E. Cardenas, Rex A. Cardan, Joseph Harms, Eric Simiele, Richard A. Popple
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引用次数: 0

摘要

背景和目的ESTRO 2023物理研讨会主办了全自动放疗治疗计划(Auto-RTP)挑战赛,参赛者在3个挑战阶段中获得了16名前列腺癌患者(6名仅前列腺患者、6名前列腺+结节患者和4名前列腺床+结节患者)的CT图像,目标是在用户干预最少的情况下自动生成治疗计划。在此,我们介绍了我们团队开发的获胜方法,该方法能迅速适应与我们临床所用不同的轮廓指南和治疗处方:1) 自动轮廓和 2) 自动规划引擎,两者均由内部开发,并通过 DICOM 操作激活。自动轮廓引擎采用的三维 U-Net 模型是在 600 例前列腺癌患者的数据集上训练出来的,其中包括正常组织、253 例盆腔淋巴结和 32 例前列腺床。自动规划引擎利用 Eclipse 脚本应用编程接口,自动定义靶体积、术野几何形状、规划参数、优化和剂量计算。RapidPlan 模型与多标准优化和根据挑战评分标准定义的记分卡相结合,确保计划达到挑战目标。我们报告了排行榜得分(0-100 分,其中 100 分为满分),综合了所提供病例的风险器官和目标剂量指标。结果我们的团队在所有三个挑战阶段都获得了第一名,排行榜得分分别为 79.9 分、77.3 分和 78.5 分,超过第二名 6.4 分、0.4 分和 2.9 分。仅前列腺案例的计划得分最高,平均分超过 90 分。挑战赛结束后,"仅限计划 "阶段正式开始,组织者将为计划提供等高线。我们目前的得分是 90.0,在 "仅计划 "排行榜上名列前茅。结论我们的自动化管道展示了对不同指南的适应性,表明我们在实现全自动放疗计划方面取得了进展。未来的研究需要评估自动生成计划的临床可接受性和整合性。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Knowledge-based planning, multicriteria optimization, and plan scorecards: A winning combination

Background and purpose

The ESTRO 2023 Physics Workshop hosted the Fully-Automated Radiotherapy Treatment Planning (Auto-RTP) Challenge, where participants were provided with CT images from 16 prostate cancer patients (6 prostate only, 6 prostate + nodes, and 4 prostate bed + nodes) across 3 challenge phases with the goal of automatically generating treatment plans with minimal user intervention. Here, we present our team’s winning approach developed to swiftly adapt to both different contouring guidelines and treatment prescriptions than those used in our clinic.

Materials and methods

Our planning pipeline comprises two main components: 1) auto-contouring and 2) auto-planning engines, both internally developed and activated via DICOM operations. The auto-contouring engine employs 3D U-Net models trained on a dataset of 600 prostate cancer patients for normal tissues, 253 cases for pelvic lymph node, and 32 cases for prostate bed. The auto-planning engine, utilizing the Eclipse Scripting Application Programming Interface, automates target volume definition, field geometry, planning parameters, optimization, and dose calculation. RapidPlan models, combined with multicriteria optimization and scorecards defined on challenge scoring criteria, were employed to ensure plans met challenge objectives. We report leaderboard scores (0–100, where 100 is a perfect score) which combine organ-at-risk and target dose-metrics on the provided cases.

Results

Our team secured 1st place across all three challenge phases, achieving leaderboard scores of 79.9, 77.3, and 78.5 outperforming 2nd place scores by margins of 6.4, 0.4, and 2.9 points for each phase, respectively. Highest plan scores were for prostate only cases, with an average score exceeding 90. Upon challenge completion, a “Plan Only” phase was opened where organizers provided contours for planning. Our current score of 90.0 places us at the top of the “Plan Only” leaderboard.

Conclusions

Our automated pipeline demonstrates adaptability to diverse guidelines, indicating progress towards fully automated radiotherapy planning. Future studies are needed to assess the clinical acceptability and integration of automatically generated plans.
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来源期刊
Radiotherapy and Oncology
Radiotherapy and Oncology 医学-核医学
CiteScore
10.30
自引率
10.50%
发文量
2445
审稿时长
45 days
期刊介绍: Radiotherapy and Oncology publishes papers describing original research as well as review articles. It covers areas of interest relating to radiation oncology. This includes: clinical radiotherapy, combined modality treatment, translational studies, epidemiological outcomes, imaging, dosimetry, and radiation therapy planning, experimental work in radiobiology, chemobiology, hyperthermia and tumour biology, as well as data science in radiation oncology and physics aspects relevant to oncology.Papers on more general aspects of interest to the radiation oncologist including chemotherapy, surgery and immunology are also published.
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