Material Trends and Clinical Costings in Systematically Identified CDER-Approved Nanomedicines

IF 3.7 4区 医学 Q2 PHARMACOLOGY & PHARMACY
Thomas Ryan Jarrett, Lisette Pregelj, Craig Andrew Bell, Nicholas Lyle Fletcher, Kristofer James Thurecht
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Abstract

Research into mechanisms and potential applications of nanomaterials in medicine has expanded steadily in recent decades, with increasing translational focus. Development costs, including for clinical trials, are often cited as factors limiting the translational viability of novel nanomedicines, especially compared to small new molecular entities (NMEs) and therapeutic biologics. Yet, to date, there has been no systematic investigation into the clinical programs or costs of translating and commercializing nanomedicines, nor a comparison to NMEs and therapeutic biologics, to support these claims. Here, nanomedicines approved by the United States Food and Drug Administration's Center for Drug Evaluation and Research (CDER) from 2011 to 2023 are systematically identified and categorized. Nanomedicines were identified as formulations where submicron particle size contributes to product function. Like biologics and NMEs, nanomedicines are most frequently approved for oncological indications. Notably, all anti-cancer nanomedicines are indicated to treat orphan diseases, which is representative of the potential for nanomedicines to occupy pharmaceutical niches in treating diseases affecting smaller patient cohorts. The median estimated cost of pivotal trials for nanomedicines is 47% that of biologics and NMEs approved in the same timeframe. The findings indicate higher manufacturing costs in nanomedicine development may be mitigated by savings elsewhere, increasing translational viability.

Abstract Image

Abstract Image

系统识别 CDER 批准的纳米药物的材料趋势和临床成本计算
近几十年来,对纳米材料在医学中的机理和潜在应用的研究稳步发展,并越来越注重转化。开发成本(包括临床试验成本)经常被认为是限制新型纳米药物转化可行性的因素,尤其是与小型新分子实体(NME)和治疗性生物制剂相比。然而,迄今为止,还没有对纳米药物转化和商业化的临床项目或成本进行系统调查,也没有与 NMEs 和治疗性生物制剂进行比较,以支持这些说法。本文对美国食品和药物管理局药物评价与研究中心(CDER)从 2011 年到 2023 年批准的纳米药物进行了系统的识别和分类。纳米药物被认定为亚微米粒径有助于产品功能的制剂。与生物药和非处方药一样,纳米药物最常被批准用于肿瘤适应症。值得注意的是,所有抗癌纳米药物都适用于治疗孤儿病,这代表了纳米药物在治疗影响较小患者群体的疾病方面占据制药壁龛的潜力。纳米药物关键试验的估计成本中位数是同期批准的生物制剂和 NME 的 47%。研究结果表明,纳米药物开发过程中较高的制造成本可以通过在其他方面节省成本而得到缓解,从而提高转化的可行性。
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来源期刊
Advanced Therapeutics
Advanced Therapeutics Pharmacology, Toxicology and Pharmaceutics-Pharmaceutical Science
CiteScore
7.10
自引率
2.20%
发文量
130
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