Abstract

Simple SummaryThe advancement in both science and technology has contributed to the development of novel diagnostic technologies; such technologies enable medical practitioners to diagnose diseases that could not be previously detected. However, in order to translate new technologies into practical applications, various types of challenges need to be overcome. To address these challenges, including those in clinical management and regulatory science, healthcare policies have been constantly implemented to promote the practical application of outcomes generated by healthcare innovation. This study conducted comparative analyses of three tumor profiling tests approved by the U.S. Food and Drug Administration (FDA) in 2017, hypothesizing that the FDA’s regulatory reforms, early application of new technologies to both research and clinical settings, and open data accumulated as a result of large-scale research programs have promoted new drug development in oncology. The study then discussed the implications potentially suggested by the outcomes and challenges of the three tests.This study investigated a case of Memorial Sloan Kettering-Integrated Mutation Profiling of Actionable Cancer Targets (MSK-IMPACT), a tumor profiling test approved by the U.S. Food and Drug Administration (FDA) in 2017, to examine what factors would contribute to healthcare innovation. First, we set the following three parameters to observe cases: (i) the FDA regulatory reforms, (ii) early application of new technologies, such as next-generation sequencing (NGS), to both research and clinical settings, and (iii) accumulation of open data. Then, we performed a comparative analysis of MSK-IMPACT with FoundationOne CDx and Oncomine Dx Target Test, both of which were FDA-approved tumor profiling tests launched in 2017. As a result, we found that MSK-IMPACT secures neutrality as a non-profit organization, achieves the active incorporation of basic research results, and performs superiorly in clinical operations, such as patient enrollment. On the contrary, we confirmed that FoundationOne CDx was the most prominent case in terms of the number of new drugs and expanded indications approved in which the FDA’s expedited approval programs were considerably utilized. Consequently, to uncover the full potential of MSK-IMPACT, it is suggested that more intersectoral collaborative activities between various healthcare stakeholders, in particular, pharmaceutical companies, for driving clinical development must be carried out based on an organizational framework that facilitates collaboration.

Highlights

  • This study was centered around the following two questions: (i) How have the Food and Drug Administration (FDA)’s regulatory reforms facilitated the development of new drug candidates identified by MSKIMPACT? and (ii) how has MSK-IMPACT helped identify new drug candidates in oncology, leveraging open data accumulated through global research projects. To better answer these questions, this study investigated the following regulatory and technological aspects: (i) FDA’s regulatory reforms and their outcomes, (ii) the contribution of publicly accessible open databases, those based on the genetic mutations provided by cancer patients and established through large-scale research projects, and (iii) early application of new technologies (i.e., MSK-IMPACT) to both research and clinical settings

  • The present study explored factors that contribute to facilitating innovation in cancer clinical sequencing with a particular focus on the case of MSK-IMPACT with two comparative cases, FoundationOne CDx and Oncomine Dx Target Test

  • Through comparative analyses between these three tests, FoundationOne CDx appeared to have outweighed the MSK-IMPACT and Oncomine Dx Target Test in terms of the number of generated outcomes, whereas MSK-IMPACT was functioning as a hub to efficiently enroll cancer patients in clinical trials with its in-house data management platform

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Summary

Introduction

The initiative covered a variety of issues, such as the development and delivery of cancer care, establishment of a nationwide research cohort leveraging over 1 million volunteers, development of new validation methods for Next. NGS is known to have dramatically reduced sequencing costs [2] and has contributed to the practice of large collaborative research projects worldwide. Since this technology has enabled researchers to efficiently analyze the genetic information of target samples at a reasonable cost, the application of NGS ranges from analysis of genetic mutations of cancer patients to that of information on microbial samples, such as the human microbiome

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