Academic literature on the topic 'Clinical protocols approval process'

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Journal articles on the topic "Clinical protocols approval process"

1

Wang, D., E. Heath, A. Powell, T. Chaperon, F. LaGrone, and P. LoRusso. "Barriers to phase I clinical trial protocol IRB approval at KCI." Journal of Clinical Oncology 25, no. 18_suppl (2007): 9080. http://dx.doi.org/10.1200/jco.2007.25.18_suppl.9080.

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9080 Phase I oncology clinical trials are critical in the oncology drug development process. To protect human subjects, every phase 1 protocol must be approved by an institutional review board (IRB) to assure safety before patient accrual. As the volume and complexity of phase 1 trials have increased, the amount of time spent on IRB protocol reviews have also increased for various reasons. Objectives: 1) Determine the average time spent on protocol approval by IRB at KCI/WSU; 2) Identify potential issues raised by IRB resulting in approval delays; 3) Identify the redundancies for which “standard language” implementation could facilitate future IRB applications thereby expediting approval. Methods: 96 Phase 1 research IRB applications at KCI/WSU between 8/1/2005 and 10/31/2006 were reviewed. These applications were stratified based on submission (new protocol versus amendment) and IRB approval (tabled, provisional or approved) status. Concerns frequently brought up by the IRB were identified. Results: The average and median time spent from initial submission to final approval of all 96 applications were 41.4 days and 43 days, respectively. Forty eight of 96 applications (50%) were provisionally approved from the initial review. Average and median time of obtaining final approval were 52.5 days and 52 days. Nine of 96 (9.4%) protocols were tabled with their average approval 83 days. The most common concerns raised by IRB were risks/benefit issues. These concerns were an even greater approval barrier when protocols involved specialized technologies of molecular therapeutics or complicated study designs. Regulatory policy changes issued by oversight organizations also required “real-time” updates into protocols and consent form amendments. Areas of “standard language” for future IRB applications are being compiled and will be discussed upon presentation. Conclusion: Phase 1 clinical trials are essential to anti-cancer drug development. The complicated ethical issues and science warrant an ongoing constructive collaboration of both parties. Identification of commonalities that delay IRB approval will lead to more expeditious IRB approval not only at our institution, but could also benefit other institutions. No significant financial relationships to disclose.
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2

Rodriguez, Emily, Challace Pahlevan-lbrekic, and Elaine L. Larson. "Facilitating Timely Institutional Review Board Review: Common Issues and Recommendations." Journal of Empirical Research on Human Research Ethics 16, no. 3 (2021): 255–62. http://dx.doi.org/10.1177/15562646211009680.

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Review of clinical research by institutional review boards (IRBs) is integral to the protection of human subjects and necessary for the conduct of legal and ethical research. Because such review is time and resource intensive, it is critical to identify common issues that contribute to delayed review and approval of research. Hence, the aim of this quality improvement project was to identify factors associated with long delays in IRB approval and identify potential strategies to streamline the review process. In collaboration with the human subjects research protection program at a large academic health center in the northeastern United States, we conducted a content analysis of minutes of convened IRB meetings for every new protocol (initial submission) approved between January and September 2019 that required greater than or equal to two full board reviews prior to approval ( n = 33). We also examined characteristics of new protocols that were reviewed less than twice at convened meetings during the same time frame ( n = 244). Using χ2 or Fisher's exact tests, the characteristics of protocols with multiple reviews by the convened IRBs were compared with those protocol submissions reviewed by the convened IRBs only once. Three factors significantly associated with increased delays were researcher conflict of interest (30% vs. 12%, respectively, p < .01), need for radiation safety evaluation (36% vs. 20%, respectively, p = .03), and protocols that were clinical trials (73% vs. 60%, respectively, p < .01). Other factors associated with delayed IRB approval were excessive technical jargon (93.94%, n = 31), inadequate description of data security or inability to meet data security requirements of the institution (75.76%, n = 25), protocol design affecting patient safety (57.58%, n = 19), and lack of clarity regarding compensation and payment or study duration ( n = 18, 54.54% each). Approaches to mitigate delays in approval and increase the efficiency and efficacy of the IRB process are recommended.
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3

Camacho, Luis H., Lisa Marubio, Michelle A. Purdom, et al. "Improving the Institutional Submission and Approval Process for Clinical Research Protocols in Oncology." Journal of Clinical Oncology 25, no. 12 (2007): 1632–33. http://dx.doi.org/10.1200/jco.2006.09.5422.

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4

Fortner, Clarence L., and Paul J. Vilk. "Aspects of Investigational Antineoplastic Agents." Journal of Pharmacy Practice 4, no. 1 (1991): 64–71. http://dx.doi.org/10.1177/089719009100400107.

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Investigational drugs are regulated by the Food and Drug Administration (FDA) and are not available for widespread patient use. They are screened and evaluated extensively before they are administered to humans in clinical trials. The clinical development process is divided into three phases: phase I, II, and III. Protocols for the investigational agent in each of these phases must be approved by an institutional review board and the patient must be informed of the risks of the study and sign an informed consent document. Once adequate clinical data are collected and analyzed, the information is submitted to the FDA for their review and approval for marketing. Prior to that approval, the FDA may approve broader distribution of the drug for specific indications under a Treatment Investigational New Drug (IND) or the National Cancer Institute's (NCI) group C mechanism. Pharmacists can play a unique role during development of the Treatment IND by contributing to design of the protocol and screening patient qualifications. The investigator of the clinical trial has responsibility for the conduct of the clinical trial and must comply with FDA regulations and sponsor policies. This is a US government work. There are no restrictions on its use.
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5

Dietrich, Martin Frederik, Ning Ning, Jingsheng Yan, Xian-Jin Xie, and David E. Gerber. "Institutional scientific review of cancer clinical research protocols: Impact of requirement on activation timelines." Journal of Clinical Oncology 35, no. 15_suppl (2017): e18224-e18224. http://dx.doi.org/10.1200/jco.2017.35.15_suppl.e18224.

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e18224 Background: The National Cancer Institute (NCI) requirement that clinical trials at NCI-designated cancer centers undergo institutional scientific review in addition to Institutional Review Board review is unique among medical specialties. We evaluated the impact of this process on protocol activation timelines. Methods: We analyzed oncology clinical trials that underwent full board review by the Harold C. Simmons Comprehensive Cancer Center Protocol Review and Monitoring Committee (PRMC) from January 1, 2009, through June 30, 2013. We analyzed associations between trial characteristics, PRMC decisions, protocol modifications, and process timelines using Chi-square test, Fisher’s exact test, Wilcoxon rank-sum test, Kruskal-Wallis test, and logistic regression. Results: A total of 226 trials were analyzed. Of these, 77% were industry-sponsored and 23% were investigator-initiated. While only 40% of trials were approved initially, 97% of trials were eventually approved after a mean of 0.6 protocol changes were requested and a mean of 0.5 protocol changes were implemented. Protocol changes were more likely to be requested ( P< 0.001) and implemented ( P= 0.008) for investigator-initiated trials. Median time from submission to PRMC approval was 55 days. The longest component interval was from submission initiation to completion of required documents by the study team (median 29 days). Total process duration depended on approval timing: median 35 days for first review, 68 days (2nd review), and 116 days (3rd review) ( P< 0.001). Similarly, process duration was also associated with the number of changes/clarifications requested: median 39 days for none, 64 days for 1-3, and 73 days for ≥4) ( P< 0.001). Requested changes/clarifications had greater impact on timelines for industry-sponsored trials than for investigator-initiated trials. Conclusions: NCI-mandated institutional scientific review of cancer clinical trials contributes substantially to protocol activation timelines. Further evaluation of this process and the value added to research quality is warranted.
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Ning, Ning, Jingsheng Yan, Martin F. Dietrich, Xian-Jin Xie, and David E. Gerber. "Institutional Scientific Review of Cancer Clinical Research Protocols: A Unique Requirement That Affects Activation Timelines." Journal of Oncology Practice 13, no. 12 (2017): e982-e991. http://dx.doi.org/10.1200/jop.2017.024299.

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Purpose: The National Cancer Institute (NCI) requirement that clinical trials at NCI-designated cancer centers undergo institutional scientific review in addition to institutional review board evaluation is unique among medical specialties. We sought to evaluate the effect of this process on protocol activation timelines. Methods: We analyzed oncology clinical trials that underwent full board review by the Harold C. Simmons Comprehensive Cancer Center Protocol Review and Monitoring Committee (PRMC) from January 1, 2009, through June 30, 2013. We analyzed associations between trial characteristics, PRMC decisions, protocol modifications, and process timelines using the χ2 test, Fisher’s exact test, Wilcoxon rank sum test, Kruskal-Wallis test, and logistic regression. Results: A total of 226 trials were analyzed. Of these, 77% were industry sponsored and 23% were investigator initiated. The median time from submission to PRMC approval was 55 days. The length of review was associated with trial phase, timing of approval, and number of committee changes/clarifications requested. The median process time was 35 days for those approved at first decision, 68 days for second decision, and 116 days for third decision ( P < .001). The median process time was 39 days if no changes/clarifications were requested, 64 days for one to three changes/clarifications, and 73 days for four or more changes/clarifications ( P < .001). Requested changes/clarifications had a greater effect on industry-sponsored trials than on investigator-initiated trials. Conclusion: NCI-mandated institutional scientific review of oncology clinical trials contributes substantially to protocol activation timelines. Further evaluation of this process and the value added to research quality is warranted.
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Aziz, Kaiser Jay. "Gene Therapy: Development, Design of Studies, and Approval Process." Journal of Biotechnology & Bioinformatics Research 3, no. 3 (2021): 1–4. http://dx.doi.org/10.47363/jbbr/2021(3)134.

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Genome editing can be applied to various areas of medical diagnosis and treatments. Gene therapy pre-market applications comprise of systematically assessing a product’s design controls, manufacturing process controls, and proposed protocols for post-marketing surveillance. Quality risk management principles have been described in various FDA regulatory guidances for several aspects of good manufacturing practices (GMPs) such as several stages of process validation and verification in the genome product’s life cycle including critical quality attributes (CQAs) and monitoring critical process parameters (CPPs). A CPP is defined as a process parameter whose variability has an impact on a CQA of genome product and, therefore, should be monitored or controlled to ensure that the manufacturing process produces an end product of the desired quality. FDA’s mission is to facilitate the premarket review and evaluation of new genomic products for clinical use. The FDA guidances emphasize a quality management approach to the design of studies by providing oversight and objective review based on risk-benefit analysis of new genomic products. FDA reviews, evaluates, verifies and validates the implementation of the regulatory design-control requirements which are applied to the control genomic product’s quality throughout the total product life cycle (TPLC) [1-5].
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8

Spellecy, Ryan, and Thomas May. "More Than Cheating: Deception, IRB Shopping, and the Normative Legitimacy of IRBs." Journal of Law, Medicine & Ethics 40, no. 4 (2012): 990–96. http://dx.doi.org/10.1111/j.1748-720x.2012.00726.x.

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Deception, cheating, and loopholes within the IRB approval process have received significant attention in the past several years. Surveys of clinical researchers indicate common deception ranging from omitting information to outright lying, and controversy surrounding the FDA's decision not to ban “IRB shopping” (the practice of submitting protocols to multiple IRBs until one is found that will approve the protocol) has raised legitimate concerns about the integrity of the IRB process. One author has described a multicenter trial as being withdrawn from consideration at one institution when rejection was imminent, in order to avoid informing other IRBs reviewing the protocol of the study's rejection (a requirement under the federal regulations for emergency research with an exception from informed consent). This practice and IRB shopping seem at odds with the spirit, if not the “letter,” of the regulations. While at first blush these practices seem to cast aspersions on the integrity of clinical researchers, the moral issues raised go deeper than the ethics of cheating.
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9

Bernardes Neto, Saint Clair Gomes, Rodrigo Torres, Íllia Lima, Vanessa R. Resqueti, and Guilherme A. F. Fregonezi. "Weaning from mechanical ventilation in people with neuromuscular disease: protocol for a systematic review." BMJ Open 9, no. 11 (2019): e029890. http://dx.doi.org/10.1136/bmjopen-2019-029890.

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IntroductionNeuromuscular diseases (NMD) are characterised by progressive muscular impairment. The muscle weakness is directly related to respiratory muscles weakness, causing reduction in vital capacity, especially when associated with mechanical ventilation (MV). Conventional MV weaning in NMD is generally difficult. Weaning process can be conducted in protocols such as: ‘T’ piece or Pressure Support Ventilaton. Weaning failure is frequent because of muscle weakness. Protocol aim is to assess the effects of different weaning protocols in NMD patients receiving invasive MV in weaning success rate, duration of weaning, intensive care unit (ICU) stay, hospital stay and ICU mortality.Methods and analysisA search will be carried in the Cochrane Neuromuscular Specialised Register, MEDLINE, EMBASE, Web of Science, Scopus, United States National Institutes of Health Clinical Trials Registry, ClinicalTrials.gov and WHO International Clinical Trial Registry Protal, of randomised controlled trials (RCTs) and quasi-RCTs. Inclusion criteria of individuals are adults (above 16 years old) and children (from 5 to 16 years old), with clinical diagnosis of NMD (muscular dystrophy, amyotrophic lateral sclerosis, congenital myasthenia, myasthenia gravis, congenital myopathy, spinal muscular atrophy, Guillian Barré Syndrome, severe inherited neuropathies, metabolic myopathies, inflammatory myopathies, mitochondrial diseases) of any gender. All patients ventilated for at least 48 hours due to respiratory failure and clinically considered ready for weaning. Other respiratory or cardiovascular diagnosis associated will not be included. Intervention assessed will be weaning from MV using a protocol with 30 min to 2 hours of spontaneous breathing trial at the end point. All comparisons of different protocols will be considered.Ethics and disseminationFormal ethical approval is not required as primary data will not be collected, since it will be a systematic review. All studies included should have ethical committee approval. The results will be disseminated through a peer-reviewed publication and in conferences and congresses or symposia.PROSPERO registration numberCRD42019117393.
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10

Atkinson, Paul, Justin Bowra, James Milne, et al. "International Federation for Emergency Medicine Consensus Statement: Sonography in hypotension and cardiac arrest (SHoC): An international consensus on the use of point of care ultrasound for undifferentiated hypotension and during cardiac arrest." CJEM 19, no. 06 (2016): 459–70. http://dx.doi.org/10.1017/cem.2016.394.

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Abstract Introduction The International Federation for Emergency Medicine (IFEM) Ultrasound Special Interest Group (USIG) was tasked with development of a hierarchical consensus approach to the use of point of care ultrasound (PoCUS) in patients with hypotension and cardiac arrest. Methods The IFEM USIG invited 24 recognized international leaders in PoCUS from emergency medicine and critical care to form an expert panel to develop the sonography in hypotension and cardiac arrest (SHoC) protocol. The panel was provided with reported disease incidence, along with a list of recommended PoCUS views from previously published protocols and guidelines. Using a modified Delphi methodology the panel was tasked with integrating the disease incidence, their clinical experience and their knowledge of the medical literature to evaluate what role each view should play in the proposed SHoC protocol. Results Consensus on the SHoC protocols for hypotension and cardiac arrest was reached after three rounds of the modified Delphi process. The final SHoC protocol and operator checklist received over 80% consensus approval. The IFEM-approved final protocol, recommend Core, Supplementary, and Additional PoCUS views. SHoC-hypotension core views consist of cardiac, lung, and inferior vena vaca (IVC) views, with supplementary cardiac views, and additional views when clinically indicated. Subxiphoid or parasternal cardiac views, minimizing pauses in chest compressions, are recommended as core views for SHoC-cardiac arrest; supplementary views are lung and IVC, with additional views when clinically indicated. Both protocols recommend use of the “4 F” approach: fluid, form, function, filling. Conclusion An international consensus on sonography in hypotension and cardiac arrest is presented. Future prospective validation is required.
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