The US Food and Drug Administration and Cardiovascular Medicine: Reflections and Observations.
The US Food and Drug Administration (FDA) is a remarkable hybrid. Part regulatory agency, part public health agency, it sits at the intersection of science, law, and public policy. The FDA’s mission can be considered in the context of 2 broad dimensions: the products it regulates and its core functions. Both fall under the rubric of protecting and promoting the public health. The FDA’s remit is both broad and diverse: altogether, the agency has regulatory responsibility for >20% of the US economy. The products it is charged with overseeing through its various centers1 encompass food and cosmetics (regulated by the Center for Food Safety and Applied Nutrition); food and drugs for animals, including companion animals and animals used for food (regulated by the Center for Veterinary Medicine); and medical devices, drugs, and biologics (regulated by the Centers for Devices and Radiological Health, Drug Evaluation and Research, and Biologics Evaluation and Research, respectively). Tobacco products were added to the FDA’s portfolio by the Tobacco Control Act of 2009, and are overseen by the Center for Tobacco Products. Regardless of the specific product regulated, the FDA’s core mission remains the same: to protect the US population by helping to ensure the fundamental safety of the food Americans consume and the medical products prescribed by their clinicians. At the same time, this primary mission is complemented by a mandate to promote the public health by reviewing research and taking appropriate action on the marketing of regulated products in a timely manner. Not only do people need access to advances in nutrition and medical therapies, but also the American spirit is itself characterized by a strong current of scientific and technological innovation. At first glance, differences in these 2 priorities, protecting the public safety and promoting the public health through encouraging innovation, might …
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British chef and food activist Jamie Oliver ignited a firestorm in January 2011 when he mentioned on the Late Show with David Letterman that castoreum, a substance used to augment some strawberry and vanilla flavorings, comes from what he described as “rendered beaver anal gland.”1 The next year, vegans were outraged to learn that Starbucks used cochineal extract, a color additive derived from insect shells, to dye their strawberry Frappuccino® drinks2 (eventually, the company decided to transition to lycopene, a pigment found in tomatoes3). Although substances like castoreum and cochineal extract may be long on the “yuck factor,”4 research has shown them to be perfectly safe for most people; strident opposition arose not from safety issues but from the ingredients’ origins. But these examples demonstrate that the public often lacks significant knowledge about the ingredients in foods and where they come from. This is not a new development; the public relationship to food additives has a long history of trust lost, regained, and in some cases lost again. The Federal Food, Drug, and Cosmetic (FD&C) Act of 19385 was passed shortly after the deaths of 100 people who took an untested new form of a popular drug, which contained what turned out to be a deadly additive.6 The new law was consumer oriented and intended to ensure that people knew what was in the products they bought, and that those products were safe. The law has been amended over the years in attempts to streamline and bring order to the sprawling task of assessing and categorizing the thousands of substances used in foods, drugs, and cosmetics. One result of this streamlining is that under current U.S. law, companies can add certain types of ingredients to foods without premarket approval from the thin-stretched Food and Drug Administration (FDA). In other words, there are substances in the food supply that are unknown to the FDA. In 2010 the Government Accountability Office (GAO) concluded that a “growing number of substances … may effectively be excluded from federal oversight.”7 Is this a problem? The answer depends on whom you ask.
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Annals of the New York Academy of SciencesVolume 691, Issue 1 p. 259-261 The Absence of a Synergistic Protective Effect of β3-Carotene and Vitamin E on Skin Tumorigenesis in Mice L. A. LAMBERT, L. A. LAMBERT US Food and Drug Administration, Center for Food Safety and Applied Nutrition, HFS-128, 200 C Street SW, Washington, DC 20204Search for more papers by this authorW. G. WAMER, W. G. WAMER US Food and Drug Administration, Center for Food Safety and Applied Nutrition, HFS-128, 200 C Street SW, Washington, DC 20204Search for more papers by this authorR. R. WEI, R. R. WEI US Food and Drug Administration, Center for Food Safety and Applied Nutrition, HFS-128, 200 C Street SW, Washington, DC 20204Search for more papers by this authorS. LAVU, S. LAVU US Food and Drug Administration, Center for Food Safety and Applied Nutrition, HFS-128, 200 C Street SW, Washington, DC 20204Search for more papers by this authorA. KORNHAUSER, A. KORNHAUSER US Food and Drug Administration, Center for Food Safety and Applied Nutrition, HFS-128, 200 C Street SW, Washington, DC 20204Search for more papers by this author L. A. LAMBERT, L. A. LAMBERT US Food and Drug Administration, Center for Food Safety and Applied Nutrition, HFS-128, 200 C Street SW, Washington, DC 20204Search for more papers by this authorW. G. WAMER, W. G. WAMER US Food and Drug Administration, Center for Food Safety and Applied Nutrition, HFS-128, 200 C Street SW, Washington, DC 20204Search for more papers by this authorR. R. WEI, R. R. WEI US Food and Drug Administration, Center for Food Safety and Applied Nutrition, HFS-128, 200 C Street SW, Washington, DC 20204Search for more papers by this authorS. LAVU, S. LAVU US Food and Drug Administration, Center for Food Safety and Applied Nutrition, HFS-128, 200 C Street SW, Washington, DC 20204Search for more papers by this authorA. KORNHAUSER, A. KORNHAUSER US Food and Drug Administration, Center for Food Safety and Applied Nutrition, HFS-128, 200 C Street SW, Washington, DC 20204Search for more papers by this author First published: December 1993 https://doi.org/10.1111/j.1749-6632.1993.tb26188.xAboutPDF ToolsRequest permissionExport citationAdd to favoritesTrack citation ShareShare Give accessShare full text accessShare full-text accessPlease review our Terms and Conditions of Use and check box below to share full-text version of article.I have read and accept the Wiley Online Library Terms and Conditions of UseShareable LinkUse the link below to share a full-text version of this article with your friends and colleagues. Learn more.Copy URL Volume691, Issue1Carotenoids in Human HealthDecember 1993Pages 259-261 RelatedInformation
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Medical Device Safety Communications (MDSCs) are used by the US Food and Drug Administration (FDA) to convey important new safety information to patients and health care professionals. The sources of initial safety signals that trigger MDSCs have not been described previously. To assess the sources of initial safety signals that trigger publication of MDSCs and the potential associations among MDSC data source, type of safety issue, and subsequent FDA action. In this cross-sectional study, all MDSCs published on the FDA website between January 1, 2011, and December 31, 2019, were assessed. The MDSC characteristics, sources of initiating safety signals, regulatory approval or clearance pathways of the related medical devices, and subsequent FDA actions were collected from the FDA website. The main outcome was the distribution of sources of initial safety signals that led to publication of MDSCs. Secondary aims included exploration of potential associations among safety signal sources (direct reporting vs other), type of safety issue (death vs other), and FDA action (withdrawal vs other). A total of 93 MDSCs were evaluated. Median time from device approval to MDSC posting was 10 years (interquartile range, 6-16 years). The most common data sources that triggered MDSCs were direct reports to the FDA through the Medical Device Reporting (MDR) program (44 of 93 [47%]) followed by regulator-initiated assessments (32 [34%]). Common safety issues included patient injury (25 [27%]), potential wrong diagnoses (19 [20%]), and death (18 [19%]). Frequent FDA action after MDSC posting included recommendation for increased vigilance and caution (47 [51%]), complete device withdrawal (12 [13%]), and warnings of specific lots or clinics (12 [13%]). There was a statistically significant correlation between direct reports of adverse events to the FDA through the MDR program and risk of death as a safety issue (14 of 44 [32%] for direct reporting vs 4 of 49 [8%] for any other data sources, P = .007). In this cross-sectional study, the most common source of initial safety signals that triggered MDSCs was direct reports of real-world adverse events to the FDA through the MDR program. The delayed detection of postmarketing adverse events highlights the importance of proactive identification of emerging device-related safety issues.
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