FDA and Clinical Drug Trials: a Short History
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Off-Label-Use-Sept-2003.Pdf
An Initiative of NSW Clinical Pharmacologists & Pharmacists Funded by the NSW Department of Health Off-Label Use of Registered Medicines and Use of Medicines under the Personal Importation Scheme in NSW Public Hospitals A Discussion Paper Prepared by a Working Group of NSW TAG Inc (See Appendix 1) September 2003 1 Contents Page Executive Summary 3 Section 1: Background 4 1.1 Regulation 4 1.2 Definitions: 5 1.2.1 Off-label (Unlabeled, Unapproved) Drug Use 5 1.2.2 Registered medicines 6 1.2 3 Unregistered (Unlicenced) Drugs 6 1.2.3.1 Unregistered medicines where hospital approval processes 6 normally defined 1.2.3.2 Unregistered medicines where hospital approval processes not normally 6 defined 1.2.4 Orphan Drugs 7 1.2.5 Complementary Medicines 8 1.3 Extent of Off-label Use: 8 1.3.1 General Population 8 1.3.2 Psychiatric Medicine 8 1.3.3 Paediatric Medicine 8 1.3.4 During Pregnancy 10 1.3.5 Oncology 10 1.4 Reasons why drugs (including indication/dose/route/age) may 10 remain off-label Section 2: Local Policy Development 11 2.1 Off-label Use of Registered medicines: 11 2.1.1 Evidence Supporting Use 12 2.1.2 Patient Consent 14 2.1.3 Information to Consumers 15 2.1.4 Adverse Drug Reactions 15 2.1.5 Implications Post Hospital Discharge 15 2.2 Drugs Imported For Personal Use: 15 2.2.1 Medication History 16 2.2.2 Documentation 16 2.2.3 Supply 16 2.2.4 Administration 16 2.2.5 Patient Consent 16 2.2.6 Storage 16 Appendices 1. -
FDA Comments on CBD in Foods
Popular Content Public Health Focus FDA and Marijuana: Questions and Answers 1. How is marijuana therapy being used by some members of the medical community? 2. Why hasn’t the FDA approved marijuana for medical uses? 3. Is marijuana safe for medical use? 4. How does FDA’s role differ from NIH and DEA’s role when it comes to the investigation of marijuana for medical use? 5. Does the FDA object to the clinical investigation of marijuana for medical use? 6. What kind of research is the FDA reviewing when it comes to the efficacy of marijuana? 7. How can patients get into expanded access program for marijuana for medical use? 8. Does the FDA have concerns about administering a cannabis product to children? 9. What is FDA’s reaction to states that are allowing marijuana to be sold for medical uses without the FDA’s approval? 10. What is the FDA’s position on state “Right to Try” bills? 11. Has the agency received any adverse event reports associated with marijuana for medical conditions? 12. Can products that contain cannabidiol be sold as dietary supplements? 13. Is it legal, in interstate commerce, to sell a food to which cannabidiol has been added? 14. In making the two previous determinations, why did FDA conclude that substantial clinical investigations have been authorized for and/or instituted about cannabidiol, and that the existence of such investigations has been made public? 15. Will FDA take enforcement action regarding cannabidiol products that are marketed as dietary supplements? What about foods to which cannabidiol has been added? 16. -
Evolution of Clinical Trials Throughout History
Evolution of clinical trials throughout history Emma M. Nellhaus1, Todd H. Davies, PhD1 Author Affiliations: 1. Office of Research and Graduate Education, Marshall University Joan C. Edwards School of Medicine, Huntington, West Virginia The authors have no financial disclosures to declare and no conflicts of interest to report. Corresponding Author: Todd H. Davies, PhD Director of Research Development and Translation Marshall University Joan C. Edwards School of Medicine Huntington, West Virginia Email: [email protected] Abstract The history of clinical research accounts for the high ethical, scientific, and regulatory standards represented in current practice. In this review, we aim to describe the advances that grew from failures and provide a comprehensive view of how the current gold standard of clinical practice was born. This discussion of the evolution of clinical trials considers the length of time and efforts that were made in order to designate the primary objective, which is providing improved care for our patients. A gradual, historic progression of scientific methods such as comparison of interventions, randomization, blinding, and placebos in clinical trials demonstrates how these techniques are collectively responsible for a continuous advancement of clinical care. Developments over the years have been ethical as well as clinical. The Belmont Report, which many investigators lack appreciation for due to time constraints, represents the pinnacle of ethical standards and was developed due to significant misconduct. Understanding the history of clinical research may help investigators value the responsibility of conducting human subjects’ research. Keywords Clinical Trials, Clinical Research, History, Belmont Report In modern medicine, the clinical trial is the gold standard and most dominant form of clinical research. -
U.S. Investments in Medical and Health Research and Development 2013 - 2017 Advocacy Has Helped Bring About Five Years of Much-Needed Growth in U.S
Fall 2018 U.S. Investments in Medical and Health Research and Development 2013 - 2017 Advocacy has helped bring about five years of much-needed growth in U.S. medical and health research investment. More advocacy is critical now to ensure our nation steps up in response to health threats that we can—we must—overcome. More Than Half Favor Doubling Federal Spending on Medical Research Do you favor or oppose doubling federal spending on medical research over the next five years? 19% Not Sure 23% 8% Strongly favor Strongly oppose 16% 35% Somewhat oppose Somewhat favor Source: A Research!America survey of U.S. adults conducted in partnership with Zogby Analytics in January 2018. Research!America 3 Introduction Investment1 in medical and health research and development (R&D) in the U.S. grew by $38.8 billion or 27% from 2013 to 2017. Industry continues to invest more than any other sector, accounting for 67% of total spending in 2017, followed by the federal government at 22%. Federal investments increased from 2016 to 2017, the second year of growth after a dip from 2014 to 2015. Overall, federal investment increased by $6.1 billion or 18.4% from 2013 to 2017, but growth has been uneven across federal health agencies. Investment by other sectors, including academic and research institutions, foundations, state and local governments, and voluntary health associations and professional societies, also increased from 2013 to 2017. Looking ahead, medical and health R&D spending is expected to move in an upward trajectory in 2018 but will continue to fall short relative to the health and economic impact of major health threats. -
Vaccines, Diagnostics, and Treatments): Frequently Asked Questions
Development and Regulation of Medical Countermeasures for COVID-19 (Vaccines, Diagnostics, and Treatments): Frequently Asked Questions June 25, 2020 Congressional Research Service https://crsreports.congress.gov R46427 SUMMARY R46427 Development and Regulation of Medical June 25, 2020 Countermeasures for COVID-19 (Vaccines, Agata Dabrowska Diagnostics, and Treatments): Frequently Analyst in Health Policy Asked Questions Frank Gottron Specialist in Science and In recent months, the Coronavirus Disease 2019 (COVID-19) pandemic has spread globally, with Technology Policy the United States now reporting the highest number of cases of any country in the world. Currently, there are few treatment options available to lessen the health impact of the disease and no vaccines or other prophylactic treatments to curb the spread of the virus. Amanda K. Sarata Specialist in Health Policy The biomedical community has been working to develop new therapies or vaccines, and to repurpose already approved therapeutics, that could prevent COVID-19 infections or lessen Kavya Sekar severe outcomes in patients. In addition, efforts have been underway to develop new diagnostic Analyst in Health Policy tools (i.e., testing) to help better identify and isolate positive cases, thereby reducing the spread of the disease. To this end, Congress has appropriated funds for research and development into new medical countermeasures (MCMs) in several recent supplemental appropriations acts. MCMs are medical products that may be used to treat, prevent, or diagnose conditions associated with emerging infectious diseases or chemical, biological, radiological, or nuclear (CBRN) agents. MCMs include biologics (e.g., vaccines, monoclonal antibodies), drugs (e.g., antimicrobials, antivirals), and medical devices (e.g., diagnostic tests). -
Observational Clinical Research
E REVIEW ARTICLE Clinical Research Methodology 2: Observational Clinical Research Daniel I. Sessler, MD, and Peter B. Imrey, PhD * † Case-control and cohort studies are invaluable research tools and provide the strongest fea- sible research designs for addressing some questions. Case-control studies usually involve retrospective data collection. Cohort studies can involve retrospective, ambidirectional, or prospective data collection. Observational studies are subject to errors attributable to selec- tion bias, confounding, measurement bias, and reverse causation—in addition to errors of chance. Confounding can be statistically controlled to the extent that potential factors are known and accurately measured, but, in practice, bias and unknown confounders usually remain additional potential sources of error, often of unknown magnitude and clinical impact. Causality—the most clinically useful relation between exposure and outcome—can rarely be defnitively determined from observational studies because intentional, controlled manipu- lations of exposures are not involved. In this article, we review several types of observa- tional clinical research: case series, comparative case-control and cohort studies, and hybrid designs in which case-control analyses are performed on selected members of cohorts. We also discuss the analytic issues that arise when groups to be compared in an observational study, such as patients receiving different therapies, are not comparable in other respects. (Anesth Analg 2015;121:1043–51) bservational clinical studies are attractive because Group, and the American Society of Anesthesiologists they are relatively inexpensive and, perhaps more Anesthesia Quality Institute. importantly, can be performed quickly if the required Recent retrospective perioperative studies include data O 1,2 data are already available. -
Clinical Research Services
Clinical Research Services Conducting efficient, innovative clinical research from initial planning to closeout WHY LEIDOS LIFE SCIENCES? In addition to developing large-scale technology programs for U.S. federal f Leidos has expertise agencies with a focus on health, Leidos provides a broad range of clinical supporting all product services and solutions to researchers, product sponsors, U.S. government development phases agencies, and other biomedical enterprises, hospitals, and health systems. for vaccines, drugs, and Our broad research experience enables us to support programs throughout biotherapeutics the development life cycle: from concept through the exploratory, f Leidos understands the development, pre-clinical, and clinical phases, as well as with product need to control clinical manufacturing and launching. Leidos designs and develops customized project scope, timelines, solutions that support groundbreaking medical research, optimize business and cost while remaining operations, and expedite the discovery of safe and effective medical flexible amidst shifting products. We apply our technical knowledge and experience in selecting research requirements institutions, clinical research organizations, and independent research f Leidos remains vendor- facilities to meet the specific needs of each clinical study. We also manage neutral while fostering and team integration, communication, and contracts throughout the project. managing collaborations Finally, Leidos has a proven track record of ensuring that research involving with -
Comparisons of Food and Drug Administration and European
View metadata, citation and similar papers at core.ac.uk brought to you by CORE provided by Elsevier - Publisher Connector VALUE IN HEALTH 15 (2012) 1108–1118 Available online at www.sciencedirect.com journal homepage: www.elsevier.com/locate/jval Health Policy Analyses Comparisons of Food and Drug Administration and European Medicines Agency Risk Management Implementation for Recent Pharmaceutical Approvals: Report of the International Society for Pharmacoeconomics and Outcomes Research Risk Benefit Management Working Group Yvonne Lis, PhD1, Melissa H. Roberts, MS2, Shital Kamble, PhD3, Jeff J. Guo, PhD4, Dennis W. Raisch, PhD5,* 1PAREXEL International, Uxbridge, UK; 2Lovelace Clinic Foundation Research, Albuquerque, New Mexico, USA; 3Quintiles-Outcome, Rockville, MD, USA; 4College of Pharmacy, University of Cincinnati Medical Center, Cincinnati, OH, USA; 5College of Pharmacy, University of New Mexico, Albuquerque, NM, USA ABSTRACT Objective: 1) To compare the Food and Drug Administration’s (FDA’s) requirements not included in RMPs were patient medication guides Risk Evaluation and Mitigation Strategies (REMS) and European (100% of the drugs), provider communication plans (38%), and routine Medicines Agency’s (EMA’s) Risk Management Plan (RMP) guidances monitoring of REMS (66%). RMP requirements not included in REMS and 2) to compare REMS and RMPs for specific chemical entities and were specific adverse event reporting (45% of the drugs), prospective biological products. Methods: FDA, EMA, and pharmaceutical com- registry studies (34%), prospective epidemiology studies (24%), addi- pany Web sites were consulted for details pertaining to REMS and tional trial data (28%), and Summary of Product Characteristics RMPs. REMS requirements include medication guides, communication contraindications (76%). Conclusions: Both REMS and RMPs provide plans, elements to ensure safe use, implementation systems, and positive guidance for identification, monitoring, and minimization of specified assessment intervals. -
VHA Hbk 1108.04, Investigational Drugs and Supplies
Department of Veterans Affairs VHA HANDBOOK 1108.04 Veterans Health Administration Transmittal Sheet Washington, DC 20420 February 29, 2012 INVESTIGATIONAL DRUGS AND SUPPLIES 1. REASON FOR ISSUE. This Veterans Health Administration (VHA) Handbook provides specific direction and procedures related to the appropriate handling of investigational drugs and supplies. 2. SUMMARY OF MAJOR CHANGES. This VHA Handbook contains additional information regarding: a. Responsibilities, b. Expanded access to Investigational Drugs; and c. Identification of specific areas of reference. 3. RELATED DIRECTIVE. VHA Directive 1058 and VHA Directive 1108 (to be published). 4. RESPONSIBLE OFFICE. The Office of Patient Care Services, Pharmacy Benefits Management Services (10P4P), is responsible for the contents of this Handbook. Questions may be addressed to 202-461-7326. 5. RESCISSIONS. VHA Handbook 1108.04, dated October 14, 2005, is rescinded. 6. RECERTIFICATION. This VHA Handbook is scheduled for recertification on/or before the last working day of February 2017. Robert A. Petzel, M.D. Under Secretary for Health DISTRIBUTION: E-mailed to VHA Publications Distribution List 3/2/2012 T-1 February 29, 2012 VHA HANDBOOK 1108.04 CONTENTS INVESTIGATIONAL DRUGS AND SUPPLIES 1. PURPOSE ............................................................................................................................... 1 2. DEFINITIONS ....................................................................................................................... 1 3. SCOPE ................................................................................................................................... -
NIH Definition of a Clinical Trial
UNIVERSITY OF CALIFORNIA, SAN DIEGO HUMAN RESEARCH PROTECTIONS PROGRAM NIH Definition of a Clinical Trial The NIH has recently changed their definition of clinical trial. This Fact Sheet provides information regarding this change and what it means to investigators. NIH guidelines include the following: “Correctly identifying whether a study is considered to by NIH to be a clinical trial is crucial to how [the investigator] will: Select the right NIH funding opportunity announcement for [the investigator’s] research…Write the research strategy and human subjects section of the [investigator’s] grant application and contact proposal…Comply with appropriate policies and regulations, including registration and reporting in ClinicalTrials.gov.” NIH defines a clinical trial as “A research study in which one or more human subjects are prospectively assigned to one or more interventions (which may include placebo or other control) to evaluate the effects of those interventions on health-related biomedical or behavioral outcomes.” NIH notes, “The term “prospectively assigned” refers to a pre-defined process (e.g., randomization) specified in an approved protocol that stipulates the assignment of research subjects (individually or in clusters) to one or more arms (e.g., intervention, placebo, or other control) of a clinical trial. And, “An ‘intervention’ is defined as a manipulation of the subject or subject’s environment for the purpose of modifying one or more health-related biomedical or behavioral processes and/or endpoints. Examples include: -
New Drugs Are Not Enough‑Drug Repositioning in Oncology: an Update
INTERNATIONAL JOURNAL OF ONCOLOGY 56: 651-684, 2020 New drugs are not enough‑drug repositioning in oncology: An update ROMINA GABRIELA ARMANDO, DIEGO LUIS MENGUAL GÓMEZ and DANIEL EDUARDO GOMEZ Laboratory of Molecular Oncology, Science and Technology Department, National University of Quilmes, Bernal B1876, Argentina Received August 15, 2019; Accepted December 16, 2019 DOI: 10.3892/ijo.2020.4966 Abstract. Drug repositioning refers to the concept of discov- 17. Lithium ering novel clinical benefits of drugs that are already known 18. Metformin for use treating other diseases. The advantages of this are that 19. Niclosamide several important drug characteristics are already established 20. Nitroxoline (including efficacy, pharmacokinetics, pharmacodynamics and 21. Nonsteroidal anti‑inflammatory drugs toxicity), making the process of research for a putative drug 22. Phosphodiesterase-5 inhibitors quicker and less costly. Drug repositioning in oncology has 23. Pimozide received extensive focus. The present review summarizes the 24. Propranolol most prominent examples of drug repositioning for the treat- 25. Riluzole ment of cancer, taking into consideration their primary use, 26. Statins proposed anticancer mechanisms and current development 27. Thalidomide status. 28. Valproic acid 29. Verapamil 30. Zidovudine Contents 31. Concluding remarks 1. Introduction 2. Artesunate 1. Introduction 3. Auranofin 4. Benzimidazole derivatives In previous decades, a considerable amount of work has been 5. Chloroquine conducted in search of novel oncological therapies; however, 6. Chlorpromazine cancer remains one of the leading causes of death globally. 7. Clomipramine The creation of novel drugs requires large volumes of capital, 8. Desmopressin alongside extensive experimentation and testing, comprising 9. Digoxin the pioneer identification of identifiable targets and corrobora- 10. -
Adaptive Designs in Clinical Trials: Why Use Them, and How to Run and Report Them Philip Pallmann1* , Alun W
Pallmann et al. BMC Medicine (2018) 16:29 https://doi.org/10.1186/s12916-018-1017-7 CORRESPONDENCE Open Access Adaptive designs in clinical trials: why use them, and how to run and report them Philip Pallmann1* , Alun W. Bedding2, Babak Choodari-Oskooei3, Munyaradzi Dimairo4,LauraFlight5, Lisa V. Hampson1,6, Jane Holmes7, Adrian P. Mander8, Lang’o Odondi7, Matthew R. Sydes3,SofíaS.Villar8, James M. S. Wason8,9, Christopher J. Weir10, Graham M. Wheeler8,11, Christina Yap12 and Thomas Jaki1 Abstract Adaptive designs can make clinical trials more flexible by utilising results accumulating in the trial to modify the trial’s course in accordance with pre-specified rules. Trials with an adaptive design are often more efficient, informative and ethical than trials with a traditional fixed design since they often make better use of resources such as time and money, and might require fewer participants. Adaptive designs can be applied across all phases of clinical research, from early-phase dose escalation to confirmatory trials. The pace of the uptake of adaptive designs in clinical research, however, has remained well behind that of the statistical literature introducing new methods and highlighting their potential advantages. We speculate that one factor contributing to this is that the full range of adaptations available to trial designs, as well as their goals, advantages and limitations, remains unfamiliar to many parts of the clinical community. Additionally, the term adaptive design has been misleadingly used as an all-encompassing label to refer to certain methods that could be deemed controversial or that have been inadequately implemented. We believe that even if the planning and analysis of a trial is undertaken by an expert statistician, it is essential that the investigators understand the implications of using an adaptive design, for example, what the practical challenges are, what can (and cannot) be inferred from the results of such a trial, and how to report and communicate the results.