PKBOIN-12:贝叶斯最优间隔 I/II 期设计,纳入药代动力学结果以找到最佳生物剂量。

IF 1.3 4区 医学 Q4 PHARMACOLOGY & PHARMACY Pharmaceutical Statistics Pub Date : 2024-10-24 DOI:10.1002/pst.2444
Hao Sun, Jieqi Tu
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引用次数: 0

摘要

免疫疗法和靶向疗法在多个治疗领域都具有良好的治疗效果,因此受到了越来越多人的青睐。早期剂量探索临床试验的重点已从寻找最大耐受剂量(MTD)转向确定最佳生物剂量(OBD),其目的是平衡毒性和疗效结果,从而优化风险-效益权衡。这些试验通常会收集多种药代动力学(PK)结果来评估药物暴露,PK 结果与毒性和疗效结果之间存在相关性,但在目前的 OBD 选择剂量探索设计中尚未得到利用。此外,PK 结果通常可在初始治疗后几天内获得,比毒性和疗效结果快得多。为了弥补这一差距,我们引入了创新的模型辅助 PKBOIN-12 设计,通过将 PK 信息整合到剂量查找算法和最终的 OBD 确定过程中,增强了 BOIN12 的功能。我们进一步将 PKBOIN-12 扩展为 TITE-PKBOIN-12,以应对晚发毒性和疗效结果的挑战。模拟结果表明,与 BOIN12 相比,PKBOIN-12 能更有效地确定 OBD 并将更多患者分配到 OBD。此外,PKBOIN-12 还能排除药物暴露量低的患者,从而降低选择低效剂量作为 OBD 的概率。全面的模拟研究和敏感性分析证实了 PKBOIN-12 和 TITE-PKBOIN-12 在各种情况下的稳健性。
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PKBOIN-12: A Bayesian Optimal Interval Phase I/II Design Incorporating Pharmacokinetics Outcomes to Find the Optimal Biological Dose.

Immunotherapies and targeted therapies have gained popularity due to their promising therapeutic effects across multiple treatment areas. The focus of early phase dose-finding clinical trials has shifted from finding the maximum tolerated dose (MTD) to identifying the optimal biological dose (OBD), which aims to balance the toxicity and efficacy outcomes, thus optimizing the risk-benefit trade-off. These trials often collect multiple pharmacokinetics (PK) outcomes to assess drug exposure, which has shown correlations with toxicity and efficacy outcomes but has not been utilized in the current dose-finding designs for OBD selection. Moreover, PK outcomes are usually available within days after initial treatment, much faster than toxicity and efficacy outcomes. To bridge this gap, we introduce the innovative model-assisted PKBOIN-12 design, which enhances BOIN12 by integrating PK information into both the dose-finding algorithm and the final OBD determination process. We further extend PKBOIN-12 to TITE-PKBOIN-12 to address the challenges of late-onset toxicity and efficacy outcomes. Simulation results demonstrate that PKBOIN-12 more effectively identifies the OBD and allocates a greater number of patients to it than BOIN12. Additionally, PKBOIN-12 decreases the probability of selecting inefficacious doses as the OBD by excluding those with low drug exposure. Comprehensive simulation studies and sensitivity analysis confirm the robustness of both PKBOIN-12 and TITE-PKBOIN-12 in various scenarios.

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来源期刊
Pharmaceutical Statistics
Pharmaceutical Statistics 医学-统计学与概率论
CiteScore
2.70
自引率
6.70%
发文量
90
审稿时长
6-12 weeks
期刊介绍: Pharmaceutical Statistics is an industry-led initiative, tackling real problems in statistical applications. The Journal publishes papers that share experiences in the practical application of statistics within the pharmaceutical industry. It covers all aspects of pharmaceutical statistical applications from discovery, through pre-clinical development, clinical development, post-marketing surveillance, consumer health, production, epidemiology, and health economics. The Journal is both international and multidisciplinary. It includes high quality practical papers, case studies and review papers.
期刊最新文献
Bayesian Solutions for Assessing Differential Effects in Biomarker Positive and Negative Subgroups. Pre-Posterior Distributions in Drug Development and Their Properties. Beyond the Fragility Index. A Model-Based Trial Design With a Randomization Scheme Considering Pharmacokinetics Exposure for Dose Optimization in Oncology. Potential Bias Models With Bayesian Shrinkage Priors for Dynamic Borrowing of Multiple Historical Control Data.
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