Literature DB >> 28694993

Improving the efficiency of trials using innovative pilot designs: the next phase in the conduct and reporting of pilot and feasibility studies.

Lehana Thabane1, Gillian Lancaster2.   

Abstract

With continuously increasing costs of conducting trials, use of innovative approaches-such as pragmatic trials, registry-based randomised trials, adaptive trials, personalised medicine trials, platform trials, and basket trials-to the design and conduct of clinical trials has been advocated as one of the most promising solutions. In this editorial, we propose that the next wave of feasibility or pilot studies should focus on assessing the feasibility of trials using these designs, which we see as an imperative in order to unleash their potential to reduce trial costs and accelerate the drug development process and the search for best treatments, so that the right treatments can be delivered as soon as possible to the right patients.

Entities:  

Year:  2017        PMID: 28694993      PMCID: PMC5501345          DOI: 10.1186/s40814-017-0159-2

Source DB:  PubMed          Journal:  Pilot Feasibility Stud        ISSN: 2055-5784


In this editorial, we welcome Professor Lehana Thabane as new co-Editor-in-Chief to work alongside Professor Gillian Lancaster. The journal has seen substantial growth over the past 18 months and with it the need for a second Editor-in-Chief. With all articles published in the journal indexed in PubMed, we look to the future and consider the next phase in the conduct and reporting of pilot and feasibility studies; we think about how innovative trial designs are contributing to improving trial efficiency. Pilot and Feasibility Studies was launched in January 2015 to provide a dedicated place for the reporting of feasibility and pilot studies, and discussion of methodological issues around the planning, of future large-scale definitive trials and observational studies [1]. Led by the Working Group of the CONSORT Extension for Pilot and Feasibility Trials, the journal was established as part of the collective effort to change the practice of reporting of pilot and feasibility studies [2]. These efforts have also led to the publication of a framework which clarifies the similarities and differences between a feasibility study and a pilot study. The former asks whether something can be done, if we should we proceed with it, and if so, how? In contrast, the latter asks the same questions, but it also has the specific design feature that a pilot study is a forerunner of a future study (or part of a future study) which will be conducted on a larger scale [3]. Then followed the publication of the CONSORT extension to pilot and feasibility trials, aimed at enhancing the transparency and completeness of reporting of pilot and feasibility randomised clinical trials, which are designed to inform the planning of future definitive trials [4, 5]. The methods and processes used to develop the CONSORT guideline have been described elsewhere [6]. Since its inception, Pilot and Feasibility Studies has received numerous submissions of pilot work, leading to over 140 publications—with 89 study protocols and 44 research reports of pilot and feasibility studies as the most frequent types of publication (Table 1). Clearly, the publication of pilot work in the journal is gaining momentum. This is also a sign of the growing recognition of the importance of reporting the design and results of pilot and feasibility studies.
Table 1

Type of publications in Pilot and Feasibility Studies since 2015

Article type201520162017 (Jan–June)Total
Study protocol25451889
Research results14201044
Editorial2002
Review1113
Methodology1315
Commentary0101
Letter0101
Update0101

Data from journal website on 13 June 2017

Type of publications in Pilot and Feasibility Studies since 2015 Data from journal website on 13 June 2017 With rapidly rising costs of conducting clinical trials and limited funding [7], there has been some intense debate among stakeholders—funders, sponsors, clinical trialists, consumers and providers—on how to reduce trial costs. The use of innovative approaches to the design and conduct of clinical trials has been advocated as one of the most promising solutions. Examples of these approaches include pragmatic trials [8], observational trials [9], registry-based randomised trials [10], cluster randomised trials [11], adaptive trials [12], trials using Bayesian methods [13], small sample, biologically based trials (e.g. personalised medicine trials) [14], N-of-1 trials [15], platform trials [16], basket trials [17, 18] and umbrella trials [18]. In general, these innovations seem intuitively appealing. For example, registry-based trials—which use registries as the platform for data collection, randomization, and follow-up [10]—have even been described as the next disruptive technology in clinical research [19]; the platform trial, whose goal is to find the best treatment or management for a disease condition by simultaneously studying multiple treatments, has been characterised as a vision for the future [16]. Compared to standard clinical trial methodologies, these innovations offer many advantages. For example, because of their flexibility and efficiency, adaptive trial designs [12] offer the potential to cut drug development costs by allowing researchers (i) the opportunity to correct or update incorrect assumptions that were made at the start of the trial; (ii) to select the most promising treatment options as early as possible; (iii) to use emerging information that is external to the trial, in order to adapt the design; and (iv) the opportunity to react sooner to surprising results—for efficacy, safety or futility. These adaptations can shorten the development time and consequently speed up the development process, and lower costs. Another example is the use of basket trials in oncology [17, 18], which have the advantage of utilising novel designs that match patients with different cancer types (“baskets”) that have a rare genetic mutation, regardless of tumour histology, to a drug that is expected to work through the mutational pathway. However, there remain several uncertainties about the feasibility of some of these innovations in many clinical or health care settings. Therefore, assessing the feasibility and the prevailing uncertainties of the applications of these state-of-the-art technologies and strategies to clinical trials should be a top priority. These include feasibility of being able to recruit trial participants; implementation of intervention elements; assessment of outcomes; and evaluation of the acceptability and ethics of the designs; among others. As we look into the future, we can expect the next wave of pilot and feasibility studies to focus on these uncertainties, in order that the promise of reducing costs by using innovative trial designs can be realised. In fact, we have already seen a number of examples of pilot trials which have assessed the feasibility of different aspects of these designs. These have included the BRAVE pilot trial [20] which used a pragmatic design to assess the feasibility of a behavioural activation group therapy in reducing depressive symptoms and improving quality of life in patients with depression; a study aiming to determine the feasibility of using patient/disease registries to recruit subjects for clinical trials [21]; a pilot study using Bayesian methods in N-of-1 trials to assess the effect of Amitriptyline to relieve pain in juvenile idiopathic arthritis [15]; to mention only a few. The application of innovative trial designs has the potential to reduce trial costs and accelerate the drug development process and the search for best treatments, so that the right treatments can be delivered as soon as possible to the right patients. But for these designs to have a substantial impact on how we develop new treatment strategies, our approaches have to start with assessing their feasibility, and adopting the right objectives and outcomes. Success in assessing feasibility will add to our evolving scientific knowledge base, and to our understanding of the ecology of patient care and the biology of human disease; and it will, hopefully, allow us to better design these trials to enhance the tailoring of more treatments to more patients in the future. As we move into the next phase of the new era in the conduct and reporting of pilot and feasibility studies, we look forward to continuing to work with the editorial team, to place Pilot and Feasibility Studies in the forefront of research innovation, and allow it to act as a useful forum for the dissemination and discussion of pilot or feasibility studies, particularly those that use innovative trial designs. We should mention that the journal is also a forum for publishing qualitative work and process evaluation alongside trial design in any pilot work [22]; and debates on topical issues related to the design, conduct and reporting of pilot and feasibility studies [23].
  23 in total

1.  Prospective observational studies to assess comparative effectiveness: the ISPOR good research practices task force report.

Authors:  Marc L Berger; Nancy Dreyer; Fred Anderson; Adrian Towse; Art Sedrakyan; Sharon-Lise Normand
Journal:  Value Health       Date:  2012 Mar-Apr       Impact factor: 5.725

2.  Cluster randomized controlled trials.

Authors:  Suezann Puffer; David J Torgerson; Judith Watson
Journal:  J Eval Clin Pract       Date:  2005-10       Impact factor: 2.431

3.  Rapidly rising clinical trial costs worry researchers.

Authors:  Roger Collier
Journal:  CMAJ       Date:  2009-02-03       Impact factor: 8.262

4.  Publication checklist proposed to boost rigor of pilot trials.

Authors:  Elie Dolgin
Journal:  Nat Med       Date:  2013-07       Impact factor: 53.440

5.  The randomized registry trial--the next disruptive technology in clinical research?

Authors:  Michael S Lauer; Ralph B D'Agostino
Journal:  N Engl J Med       Date:  2013-08-31       Impact factor: 91.245

6.  Using registries to recruit subjects for clinical trials.

Authors:  Meng H Tan; Matthew Thomas; Mark P MacEachern
Journal:  Contemp Clin Trials       Date:  2014-12-26       Impact factor: 2.226

7.  Amitriptyline to relieve pain in juvenile idiopathic arthritis: a pilot study using Bayesian metaanalysis of multiple N-of-1 clinical trials.

Authors:  Adam M Huber; George A Tomlinson; Gideon Koren; Brian M Feldman
Journal:  J Rheumatol       Date:  2007-04-15       Impact factor: 4.666

Review 8.  Next-generation clinical trials: Novel strategies to address the challenge of tumor molecular heterogeneity.

Authors:  Daniel V T Catenacci
Journal:  Mol Oncol       Date:  2014-10-18       Impact factor: 6.603

9.  Bayesian methods in clinical trials: a Bayesian analysis of ECOG trials E1684 and E1690.

Authors:  Joseph G Ibrahim; Ming-Hui Chen; Haitao Chu
Journal:  BMC Med Res Methodol       Date:  2012-11-29       Impact factor: 4.615

Review 10.  Adaptive trial designs: a review of barriers and opportunities.

Authors:  John A Kairalla; Christopher S Coffey; Mitchell A Thomann; Keith E Muller
Journal:  Trials       Date:  2012-08-23       Impact factor: 2.279

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  5 in total

1.  Neurally adjusted ventilatory assist versus pressure support ventilation: a randomized controlled feasibility trial performed in patients at risk of prolonged mechanical ventilation.

Authors:  Daniel J Hadfield; Louise Rose; Fiona Reid; Victoria Cornelius; Nicholas Hart; Clare Finney; Bethany Penhaligon; Jasmine Molai; Clair Harris; Sian Saha; Harriet Noble; Emma Clarey; Leah Thompson; John Smith; Lucy Johnson; Phillip A Hopkins; Gerrard F Rafferty
Journal:  Crit Care       Date:  2020-05-14       Impact factor: 9.097

2.  Factors affecting the use of neurally adjusted ventilatory assist in the adult critical care unit: a clinician survey.

Authors:  Philip Anthony Hopkins; Gerrard Francis Rafferty; Daniel Hadfield; Louise Rose; Fiona Reid; Victoria Cornelius; Nicholas Hart; Clare Finney; Bethany Penhaligon; Clare Harris; Sian Saha; Harriet Noble; John Smith
Journal:  BMJ Open Respir Res       Date:  2020-12

3.  Care Outcomes for Chiropractic Outpatient Veterans (COCOV): a single-arm, pragmatic, pilot trial of multimodal chiropractic care for U.S. veterans with chronic low back pain.

Authors:  Cynthia R Long; Stacie A Salsbury; Robert D Vining; Anthony J Lisi; Lance Corber; Elissa Twist; Thad Abrams; Robert B Wallace; Christine M Goertz
Journal:  Pilot Feasibility Stud       Date:  2022-03-07

4.  Therapeutic strategies to address monkeypox.

Authors:  Matthew W McCarthy
Journal:  Expert Rev Anti Infect Ther       Date:  2022-08-17       Impact factor: 5.854

5.  Clinical research during the COVID-19 pandemic: The role of virtual visits and digital approaches.

Authors:  Tammy L Loucks; Clare Tyson; David Dorr; Vesna D Garovic; James Hill; S David McSwain; Sally Radovick; Frank A Sonnenberg; Jennifer A Weis; Kathleen T Brady
Journal:  J Clin Transl Sci       Date:  2021-03-08
  5 in total

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