Background The ethical use both of human and non-human animals in research is predicated on the assumption that it is of a high quality and its projected benefits are more significant than the risks and harms imposed on subjects. Yet questions remain about whether and how IRBs and IACUCs should consider the scientific value of proposed research studies.Methods We draw upon 45 interviews with IRB and IACUC members and researchers with oversight experience about their perceptions of their own roles in (...) reviewing the quality and value of scientific protocols. Interview transcripts were memoed to highlight specific findings, which were then used to identify key themes through an iterative process.Results IRB and IACUC members expressed broad trust in the need for and value of research, and they often assumed that protocols had social value or that prior review, especially when associated with funding, affirmed both the rigor and merit of those protocols. Some oversight members also took an explicit stance against scientific review by stating that such review is not within the regulatory mandates governing their parts in the oversight system. Yet other interviewees expressed uneasiness about the current paradigm for evaluating the quality and overall value of science, suggesting that IRB and IACUC members perceive gaps in the oversight systems.Conclusions These findings reveal many similarities in how IRB and IACUC members understand the roles and limitations of their respective oversight committees. We conclude with a discussion of how the lack of a clear mandate regarding scientific review within US federal regulations may undermine ethical engagement of whether human and animal research is scientifically justified, resulting in a “mission lapse” wherein no organizational body is clearly responsible for ensuring that the research being conducted has the potential to advance science and benefit society. (shrink)

The precautionary principle is often invoked in relation to pregnant women and may be one of the underlying reasons for their continuous underrepresentation in clinical research. The principle is appealing, because potential fetal harm as a result of research participation is considered to be serious and irreversible. In our paper, we explore through conceptual analysis whether and if so how the precautionary principle should apply to pregnant women. We argue that the principle is a decision-making strategy underlying risk-benefit decisions in (...) clinical research, which can be applied to pregnant women. However, the current application is a strong one, leading to the promotion of absolute exclusion or, less often, absolute inclusion of pregnant women. In order to change this paralyzing situation, a shift toward weak precautionary thinking is necessary. Instead of automatic extreme precaution, a balance will be found between harms and potential benefits of including pregnant women in clinical research. (shrink)

As biomedical research with volunteers was expanded in the United States, the rule of subject selection, constituting scientific and ethical criteria, was generated in 1981 to resolve selection bias in research. Few historical studies, however, have investigated the role of this new hybrid rule in institutional review systems. This paper describes how bioethics commissions and federal agencies have created the subject selection rule based on the concept of justice. I argue that the standardization of this rule as temporal measures, linked (...) with risk-benefit assessment, has reformed the review mechanism, specifically investigators’ modification of research plans, thereby developing justice as balancing. (shrink)

Clinical trials of nanotechnology medical products present complex risk management challenges that involve many uncertainties and important risk-risk trade-offs. This paper inquires whether the precautionary principle can help to inform risk management approaches to nanomedicine clinical trials. It concludes that prudent precaution may be appropriate for ensuring the safety of such trials, but that the precautionary principle itself, especially in its more extreme forms, does not provide useful guidance for specific safety measures.

Medical technologies, including nanomedicine products, are intended to improve health but in many cases may also create their own health risks. Medical products that create their own health risks differ from most other risk-creating technologies in that the very purpose of the medical technology is to prevent or treat health risks. This paradox of technologies intended to reduce existing risks that may have the effect of creating new risks has two conflicting implications. On one hand, we may be more tolerant (...) of health risks from medical technologies because these products are intended to, and often do, reduce overall health risks and improve our health. The health benefits of a medical technology may outweigh the unavoidable adverse effects of that same technology in an individual patient or in the overall treated population. (shrink)

Risk takes center stage in ethical debates over nanomedical technologies. Yet concepts of risk may hold different meanings, and they are embedded within particular political, economic, and social contexts. This article discusses framings of risk in debates over medical innovations such as nanomedicine, and draws attention to organizational and institutional forms of risk which are less visible in bioethical policy debates. While significant, possibly unique risks may exist in specific nano-based products, risk may also arise from the very processes and (...) procedures that develop, test, and oversee any novel technology. This supports recommendations to coordinate efforts through an interagency Working Group and a Secretary-level Advisory Committee to provide flexibility and sensitivity to emerging issues of concern. (shrink)

Risk is the most often cited reason for ethical concern about any medical science or technology, particularly those new technologies that are not yet well understood, or create unfamiliar conditions. In fact, while risk and risk-benefit analyses are but one aspect of ethical oversight, ethical review and risk assessment are sometimes taken to mean the same thing. This is not surprising, since both the Common Rule and Food and Drug Administration foreground procedures for minimizing risk for human subjects and require (...) local IRBs to engage in some sort of risk-benefit analysis in decisions to approve or deny proposed research. Existing ethical review and oversight practices are based on the presumption that risk can be clearly identified within the planned activities of the protocol, that metrics can reasonably accurately predict potential hazards, and that mitigation measures can be taken to deal with unintended, harmful, or catastrophic events. (shrink)

Nanomedicine is yielding new and improved treatments and diagnostics for a range of diseases and disorders. Nanomedicine applications incorporate materials and components with nanoscale dimensions where novel physiochemical properties emerge as a result of size-dependent phenomena and high surface-to-mass ratio. Nanotherapeutics and in vivo nanodiagnostics are a subset of nanomedicine products that enter the human body. These include drugs, biological products, implantable medical devices, and combination products that are designed to function in the body in ways unachievable at larger scales. (...) Nanotherapeutics andin vivonanodiagnostics incorporate materials that are engineered at the nanoscale to express novel properties that are medicinally useful. These nanomedicine applications can also contain nanomaterials that are biologically active, producing interactions that depend on biological triggers. Examples include nanoscale formulations of insoluble drugs to improve bioavailability and pharmacokinetics, drugs encapsulated in hollow nanoparticles with the ability to target and cross cellular and tissue membranes and to release their payload at a specific time or location, imaging agents that demonstrate novel optical properties to aid in locating micrometastases, and antimicrobial and drug-eluting components or coatings of implantable medical devices such as stents. (shrink)