Traditional clinical trials are often expensive, inefficient, include selected populations, and can create significant participant burden via travel and other logistical demands. Using new technologies and methodologies to promote a decentralized approach has the potential to improve the efficiency of clinical trials. The Clinical Trials Transformation Initiative (CTTI)—a public–private partnership to improve clinical trials—launched a multi-stakeholder Decentralized Clinical Trials (DCTs) Project to provide recommendations on addressing the actual and perceived legal, regulatory, and practical challenges with DCT design and conduct in the United States.
Informed by qualitative group interviews and an expert meeting, CTTI engaged stakeholders to identify key challenges to implementing DCTs and possible solutions.
The CTTI DCT project team used the interview findings and expert feedback to develop recommendations that will drive broader use of DCTs.
CTTI’s recommendations cover protocol design, use of telemedicine and mobile healthcare providers, medical product supply chain, investigator delegation and oversight, and safety monitoring considerations. By implementing these recommendations, sponsors, contract research organizations, and others can help advance successful medical product development using mobile technologies and methodologies in DCTs.
Remote or decentralized clinical trials (DCTs) have gained attention as technology, infrastructure, and knowledge have developed to support their use. DCTs—defined as trials executed through telemedicine, mobile/local healthcare providers (HCPs) and/or mobile technologies—are not bound by the geographic limitations that affect traditional trials. Therefore, they can recruit participants from anywhere, potentially resulting in accelerated enrollment and more diverse participants' representative of the target population. Moreover, measurements can be more frequent or even continuous because they are not restricted by scheduled clinic visits.
A decentralized approach allows trial participants to take part in clinical research from anywhere, with research activities better integrated into their daily routine. DCT approaches may lessen participant burden (e.g., travel costs and time loss), which may enhance retention and facilitate certain research that may otherwise be unduly burdensome under traditional clinical trial constructs .
Despite the potential benefits of DCTs, adoption has been slow and variable. Some barriers may be immature digital infrastructure, limited experience with the approach, and the perception of regulatory barriers with implementing and using data from DCTs.
Importantly, almost all states now have telemedicine laws that allow for mobile medicine, which sponsors, CROs, and other stakeholders can use to inform DCTs [2, 3]. However, effort is needed to drive acceptance and implementation of DCTs.
The Clinical Trials Transformation Initiative (CTTI; www.ctti-clinicaltrials.org), a public–private partnership co-founded by Duke University and the United States (US) Food and Drug Administration (FDA), whose mission is to develop and drive adoption of practices that will increase the quality and efficiency of clinical trials, recognized an opportunity to encourage broader use of DCTs. CTTI launched the Decentralized Clinical Trials project, guided by the following objectives: (1) identify perceived and actual legal, regulatory, and practical barriers to conducting DCTs and (2) identify opportunities to clarify and inform policies that affect the implementation of DCTs. This project is one of the several projects  developed by CTTI to address challenges with planning and conducting clinical trials using mobile technologies.
Materials and Methods
Between October 25, 2016, and January 20, 2017, CTTI conducted semi-structured group interviews with trial sponsors to identify important legal and regulatory challenges they faced at that time in conducting DCTs, and their potential solutions. CTTI chose to conduct group interviews with multiple individuals from the same company to enable a multi-faceted discussion during a single interview. A total of 31 purposefully selected  representatives from seven different pharmaceutical or biotechnology companies that were currently implementing or planning DCTs participated in nine group interviews (2–7 representatives per group). The Duke University Health System Institutional Review Board (IRB) designated the interviews “exempt” from full board review.
For those companies that had experience in the use of some remote clinical research components, representatives described barriers faced and lessons learned. For those companies that had less experience with remote components, representatives described the types of considerations their companies have discussed in preparation for conducting such research in the future and barriers faced. All interviews were audio recorded and transcribed verbatim. For some topics, a simple summary was produced describing representatives’ experiences. For other topics, data were analyzed using applied thematic analysis . Challenges and suggested solutions that emerged from the interviews are described in Table 1. Most of the challenges identified by representatives currently are still factors in the planning and conduct of DCTs; a few, however, no longer represent considerable challenges (see sections on Engage and Partner and on Telemedicine State Licensing).
CTTI convened an expert meeting in July 2017 to discuss the interview findings and experience of those practiced in conducting DCTs. The 50 participants represented a variety of stakeholders. Meeting participants possessed knowledge of or experience with the perceived and actual legal and regulatory challenges associated with designing or conducting DCTs. Key themes from the discussion included those in Table 1. Meeting participants discussed evidence-based solutions to inform the development of project recommendations and resources to address legal and regulatory challenges currently associated with DCTs .
DCT approaches and trial design
Telemedicine state licensing issues
Drug supply chain
Investigator delegation and oversight
DCT Approaches and Protocol Design
Partially Decentralized/Hybrid Approaches
The design and implementation of DCTs need not be an “all-or-nothing” approach. A fully decentralized approach may not include a central physical trial site, but include trial visits conducted via telemedicine or by mobile or local HCPs and the use of mobile technologies to record data. Partially decentralized or hybrid approaches combine some of the above-mentioned features with more traditional approaches. These hybrid approaches may include the following:
a designated trial site at which specific trial-related activities occur (e.g., chest X-rays) while allowing other procedures (e.g., blood draws, treatment administration) to be completed elsewhere,
data collection both within and outside of the clinical setting using mobile technologies, and/or
trial participants and investigative site personnel interacting both at a clinical site and via video or teleconferencing.
Such hybrid approaches can increase trial flexibility.
A DCT will also require some fit-for-purpose protocol design and conduct considerations (Table 3). Consider incorporating DCT features within a traditional trial by introducing remote methodologies with an amendment to an existing protocol where infrastructure is already established, and the safety is well characterized. This will allow investigators/sponsors to gain logistics experience, evaluate user compliance, and compare quality of data to data from traditional methodologies. Sponsors and trial designers can consult use case examples [10,11,12,13] and recommendations for best practices for selecting the appropriate technology  for a trial. Importantly, patients and sites should be actively engaged in planning for the scientific and operational design and conduct of decentralized trials from the earliest stages of planning a clinical trial using mobile technologies. Additional details are available in CTTI’s recommendations on Optimizing Mobile Clinical Trials by Engaging Patients and Sites (www.ctti-clinicaltrials.org).
Data Reliability, Integrity, and Traceability
Data reliability and integrity can be a concern in DCTs, which is why it is especially important to proactively address and map data flow, user access controls, data reconciliation, and storage . Sponsors, CROs, and other parties (e.g., information technology vendors) handling data should control and manage data flow (e.g., data use agreements, service level agreements), as data in DCTs may be transferred to and stored among several different parties, locations, and systems. It may be prudent to start with the trial source data and then map data flow, reconciliation, and storage based on how data reliability and integrity are assured, including data control and security (see CTTI’s Mobile Technologies recommendations ). This information will also be of interest to IRBs and should, if practicable, be communicated in general terms within the informed consent. DCT operators must also maintain compliance with data privacy and security regulations (e.g., Health Insurance Portability and Accountability Act [HIPAA]). As these are continuously evolving, particularly at the state level, those operating DCTs must ensure they maintain up-to-date knowledge.
Engage and Partner
When considering the implementation of decentralized components to optimize clinical trial design, it is important to engage with all stakeholders early in the protocol design process, including meeting with regulatory bodies [16,17,18,19,20,21], understanding prospective participant perspectives , and engaging with experienced vendors. Partnering with investigational sites that are familiar with telemedicine can help optimize implementation. Additionally, as telemedicine is well-utilized in several therapeutic areas (e.g., dermatology, psychiatry, stroke management) [23,24,25,26,27,28,29,30,31,32], insight may be gleaned from the standards and practices developed in those fields. It may also be valuable to engage telemedicine providers in protocol development.
Telemedicine State Licensing
DCTs operating across multiple US states necessitate management of state-by-state licensure requirements for participating practitioners. HCPs, including investigators and their delegates, must be licensed in the state in which they provide trial-related medical intervention to participants. An investigator cannot deliver investigational medical products (IMP) or prescribe treatment to a trial participant in a state in which the investigator is not licensed. To manage state-by-state medical licensure requirements, DCTs that operate across multiple states can maintain an investigator in each state where services are anticipated, utilize investigators licensed in multiple states, use the pathway provided by the Interstate Medical Licensure Compact to expedite licensure for investigators in multiple states , and/or contract with companies providing licensed mobile HCP research services in states where the trial will be conducted. With these considerations, investigators must, in fully meeting their trial-related responsibilities, also maintain compliance with applicable laws, regulations, and local standards of practice.
Sponsors planning to incorporate telemedicine in clinical research should be informed of the landscape of applicable laws. In recent years, telemedicine laws have become increasingly uniform across the states: most states permit the use of telemedicine provided that, in doing so, the HCP can meet the standard of care. Nonetheless, important differences remain across states with respect to telemedicine and by extension, DCTs. The selection of states in which to conduct a DCT is a critical strategic decision that will in part be influenced by legal considerations as well as the ability to reach the specific participant population of interest. A primary difference across states is whether the state requires that the provider–participant (or investigator–participant) relationship be initiated in person before shifting to telemedicine, versus allowing that relationship to be initiated through a telemedicine visit. This distinction has implications for DCT design. Sponsors are encouraged to review the laws of each state in which they intend to operate the trial to ensure compliance with applicable laws. Sponsors should consider using online resources of policy organizations that specialize in telemedicine laws [3, 33]. Reliable legal expertise is also recommended to track changes in these laws. This expertise may be obtained from external legal consultants and/or companies that track and report state-by-state changes in laws and regulations.
Investigational Medical Product Accountability
For DCTs involving IMP delivery directly to trial participants, additional challenges regarding IMP accountability may need to be addressed. IMP accountability and dispensing laws and regulations vary depending on state statutes, and regulations differ according to the product’s registration status with the FDA (investigational or approved) or legal status in a particular state. CTTI recommends reviewing state law requirements for direct-to-trial participant shipping, developing processes to ensure compliance with existing regulations, and engaging with appropriate regulatory bodies early in trial planning and design (e.g., requesting Type B meetings for pre-investigational new drug applications (pre-IND) with the FDA).
The feasibility of IMP delivery directly to the trial participants may also depend on practical considerations, including the product’s nature and stability (e.g., a stable, ready-to-use compound versus one requiring fresh constitution) as well as protocol design. Furthermore, some IMPs are not amenable to direct-to-participant shipment because of route of administration (e.g., IV) or significant or unknown safety profile.
Pathway planning and documentation are critical. Procedures for direct-to-trial participant IMP shipment should be described in the protocol so that the process is clear to the investigator, IRB, and applicable regulatory agencies. Similar to traditional trials, formal standard operating procedures (SOPs) tied to the clinical trial protocol should also be utilized to outline accountable parties at each step of the supply chain, from the administration order through distribution to the participant and recovery of the IMP or container. Different SOPs may be necessary for different DCT scenarios; however, the SOPs should always comply with applicable federal and state regulations.
Organizations may choose to engage a management vendor with experience in direct-to-trial participant shipment. This vendor should have pharmacy licenses in all US states where their services will be utilized. When this is not feasible, sponsors/CROs should engage a central pharmacy through which shipments can be made directly to trial participants.
Whether IMP distribution is handled “in house” or by a third party, sponsors should consider how those responsible will interact with the participant. Relevant considerations include how to handle the IMP once received by the participant (e.g., ensuring that the IMP is intact and stored appropriately), what participants should do with unused IMP, and who participants can contact if there are problems or questions with the IMP (e.g., the package is damaged in transit). Patient-centered interactions are important because they may impact the quality, reliability, or integrity of the data. For example, if the investigator–participant telemedicine interactions are convenient, comfortable, and otherwise positive for the participant, but the participant’s experience with the IMP is burdensome and difficult, the DCT may fall short of its potential to improve retention, compliance, and the overall participant experience.
Mobile Healthcare Providers
Visits from mobile HCPs may be an appropriate substitute for selected clinical trial visits to investigative sites and may promote participants’ compliance and retention by providing convenience and comfort in the home, office, or in certain circumstances while traveling out of town. As with traditional trials, the investigator is responsible for ensuring that trial procedures are conducted consistently according to the investigational plan. Activities that mobile HCPs may be able to perform include clinical assessments, blood draws, IMP or treatment administration, participant education, and in-home compliance checks. Tasks should be delegated to qualified personnel required by the protocol, as informed by scope of practice parameters defined by applicable state law. Mobile HCPs should be trained on good clinical practice, trial-specific requirements, human participant protections, data protection, and clinical trial billing. Trial operators utilizing mobile HCPs should develop SOPs focused on applicable activities, such as specimen storage and shipping by such providers, as well as basic policies around travel and accommodations. To use mobile HCPs effectively, sponsors and trial operators should consider consulting or partnering with a mobile HCP vendor with experience in clinical trials. Mobile HCPs may offer a way for prospective trial participants to participate in trials regardless of trial duration; frequency of visits; disease state; distance to travel to the investigative site; school, work, or family obligations; or vacation/travel plans.
It should be noted that concerns regarding oversight and liability can complicate the use of mobile HCPs. For simplicity, sponsors should consider engaging PIs that have existing capability within their practice to integrate mobile care into the trial (whether locally or, less likely, over a broad geographic area), without need to involve a third-party vendor. Otherwise, sites may be hesitant to act as the IRB of record for a sponsor-engaged vendor over which it has little actual authority, even if the sponsor offers contractual indemnification related to that activity, and instead try to disclaim potential liability caused by decentralization. The vendor should prospectively identify who will provide the service (e.g., who will act as a research team member) to mitigate concerns. The site’s clinical investigator may have other concerns about meeting requirements for ensuring adequately qualified staff, providing training on the protocol, and assuring the integrity of study data. Where a local IRB declines to assume oversight responsibility for such study activity, the sponsor may need to engage a central/independent IRB to review the home health portion of a protocol to be performed by mobile HCPs, and likewise, where the local PI declines to assume oversight responsibility for such study activity, a PI affiliated with the mobile HCP may need to be designated.
Investigator Delegation and Oversight
DCTs using telemedicine or mobile HCPs should not be held to a different standard than in traditional trials with regard to investigator delegation and oversight. As with traditional trials, standard considerations exist prior to determining delegation, including the IMP development phase, clinical complexity and vulnerability of the study population, safety profile of the IMP, and trial endpoints. Additionally, consideration should be given to the capabilities of those to whom authority and responsibility is delegated to implement DCT methodologies reliably and effectively.
For DCTs, additional considerations may be required to ensure that adequate resources are available for investigative sites potentially enrolling increased participant populations. To protect participants’ rights, safety, and welfare, IRBs will be particularly interested in probing whether the investigative sites have the capacity in human and technological capital to implement the trial as designed, address adverse events, and ensure the conduct appropriately minimizes risks to participants.
Moreover, the trial participant may be geographically distant from the investigator and/or the rest of the research team. Certain trial activities may occur remotely or may be performed by the trial participant’s individual HCP, local clinical staff, a sub-investigator, remote research staff, or a mobile HCP. Due to potential ambiguities in language between “routine care” and “practice of medicine” as opposed to “clinical trial-related activities,” the separation of routine care/practice of medicine and clinical trial activities should be well defined in the protocol to clarify the trial team’s roles and responsibilities, and should be in accordance with applicable FDA regulations (i.e., 21 CFR 11, 50, 54, 56, 312, and 812) and guidances [34,35,36,37,38,39,40,41,42,43,44,45,46].
In assessing the level of involvement of local providers, a key determination for clinical trials will be whether to identify HCPs on Form FDA 1572—whether HCPs assist the investigator by making direct and significant contribution to the data . Relevant considerations for determining who and which facilities should be included on the Form FDA 1572 (“Statement of the Investigator”)  and delegation log include the investigator’s plan to supervise trial conduct, the credentials and licensure of the local HCP/sub-investigator/other trial staff, and the protocol’s language about trial-related procedures that can be performed by a local HCP and/or other trial personnel. In addition to Form 1572, the delegation log should include individual HCPs when they will provide specific services as part of the clinical trial.
Remote safety monitoring procedures should be well documented and investigative staff should be trained on processes that are unique to DCTs. For example, training may include ensuring that the trial participant at a remote location knows how to obtain information to address possible adverse events (e.g., a list of approved local healthcare facilities and/or clinicians for emergent issues related to the trial). Protocol-specific safety monitoring and communication escalation plans should be developed for trial participants, trial personnel, third-party vendors, and investigators. A potential safety issue’s effect on the use of mobile/remote technologies by the participant to report an adverse event (e.g., blurred vision may make it difficult to use a tablet, phone app, or computer) may be an important consideration. Sites should be properly resourced to review data in a timely manner and have contacts/infrastructure in place to react over distance (with or without a local investigator) accordingly, as necessary.
DCTs that rely on individual participants as a partner in the research and safety reporting will require effective participant training and education. Designing and incorporating simple safety reporting mechanisms using mobile technologies should be considered and potentially require more active participant engagement and understanding of, as well as comfort with, these technologies. Explicit protocol inclusion/exclusion criteria may help to ensure participants have the requisite technological skill and means to be successful in these trials, while balancing justice and equity considerations for participant selection. Here, again, tailored engagement of a suitable target population may increase participant comfort and convenience, improving satisfaction with and reinforcing the ultimate benefits of DCTs.
As the costs of medical product development continue to increase, the industry must adopt new and more efficient approaches, such as DCTs. DCTs may be associated with additional expenses initially, yet once established, they hold promise to be more cost- and time-efficient and to provide quality data. Embracing decentralized methodologies while engaging in early and ongoing dialogue with the FDA on conduct and design will guide initial DCTs toward success, which in turn will provide experiential evidence to drive future guidance on DCTs for the industry.
Not all clinical trials are suitable for decentralization. Where infrastructure is already established for an ongoing trial, amending the protocol to introduce remote or decentralized methodologies may be ideal incremental step. Still, several factors affect the evaluation of whether a proposed trial is suitable for a DCT or hybrid DCT approach. A critical consideration is an understanding of the safety profile of the IMP. A DCT strategy would probably not be suitable for a new molecular entity where the safety profile is unknown, but could be appropriate for trials involving an IMP with a well-known safety profile, perhaps being studied for a new indication. Considerations should be given regarding whether there is sufficient information about the IMP available to warrant continued developmental work outside of the brick and mortar trial setting, and whether the participant population is appropriate for a DCT. The latter should be a determination made by evaluating several factors, including the setting where the population traditionally receives care and whether the population is stable enough for participation in a trial with remote components.
Mobile technology offers new ways to capture objective measurements as clinical trial participants go about their daily lives by utilizing novel endpoints. These novel endpoints have the potential to provide high-quality data pertaining to outcomes that are meaningful to patients and enable decentralization of trials. There is, however, a need to consider how novel study endpoints will be measured and whether additional validation efforts are required to ensure that the decentralized and traditional measurements are comparable. Depending upon suitability, the use of mobile technologies in fit-for-purpose protocol designs can capture the same clinical endpoints using different technology or potentially augment or replace traditional validated assessments. For example, a wearable with an electrocardiogram might be appropriate for selected DCTs to monitor heart rate and rhythm. Continuous monitoring may result in far more data being transmitted than the snapshot of data collected during research visits in traditional trials. Such devices must be validated in order to ensure they reliably provide the necessary safety data, accounting not only for the means of data collection but also for the analysis of the data collected .Such devices must be validated in order to ensure they reliably provide the necessary safety data, accounting not only for the means of data collection but also for the analysis of the data collected .
The aspiration of tailoring clinical research to individual participants to create net efficiencies may seem incompatible with the elimination of in-person visits with a single investigator at a local investigative site in a nearby central location. To overcome this perception, DCT sites must have the support and demonstrate the will to focus on the individual research participant while implementing clinical research from a distant location, potentially across multiple legal jurisdictions, and with different communities of interest. The patient perspective in the trial design and conduct is critical.
For decades, clinical trials have been conducted across states and even countries, and trial staff have managed the complexity that this necessarily entails. However, the day-to-day operations and authority have typically been vested in many local investigators and sites. DCTs, while decentralized from the perspective of moving research away from traditional sites and into the home of each participant, are at the same time increasingly centralized by requiring fewer investigative sites. Additionally, such a paradigm shift may challenge appropriate consideration of local norms, a hallmark of IRB review. In order to empower the individual participant, sites with larger participant pools will likely require partnerships with, for example, local and mobile HCPs, to account for additional participants under their care and manage any distance involved that cannot be bridged by telemedicine.
Use of remote or decentralized methodologies to conduct clinical trials has the potential to improve the efficiency of medical product development. With this goal in mind, CTTI developed recommendations to address the most prevalent legal, regulatory, and practical issues regarding DCTs, including aspects related to trial design and conduct, telemedicine state licensing, drug supply chain, mobile HCPs, investigator delegation and oversight, and safety monitoring. As in most fields, with the advent of new technologies (or older technologies applied in new ways), perception, practicable regulation, and responsible adoption struggle to keep pace. The CTTI DCT project team has identified perceived and actual barriers to decentralization and has developed recommendations that are intended to demonstrate the merits and drive broader use of DCTs.
Internet/Broadband Fact Sheet. Pew Research Center.
Thomas L, Capistrant G. 50 State telemedicine gaps analysis: physician practice standards and licensure. Washington DC: American Telemedicine Association; 2017.
Center for Connected Health Policy. State Telehealth Laws and Reimbursement Policies: a comprehensive scan of the 50 states and the district of Columbia. Public Health Institute; 2018.
Clinical Trials Transformation Initiative. Program: Mobile Clinical Trials (MCT). Clinical Trials Transformation Initiative.
Patton MQ. Qualitative research and evaluation methods. 3rd ed. Thousand Oaks, CA: Sage; 2002.
Guest G, MacQueen KM, Namey EE. Applied thematic analysis. Thousand Oaks, CA: Sage; 2012.
Corneli A, Hallinan Z, Hamre G, et al. The Clinical Trials Transformation Initiative: methodology supporting the mission. Clin Trials. 2018;15:13–8.
Clinical Trials Transformation Initiative. Expert meeting: legal & regulatory issues affecting the adoption of mobile clinical trials. Clinical Trials Transformation Initiative.
Clinical Trials Transformation Initiative. CTTI recommendations: decentralized clinical trials. Clinical Trials Transformation Initiative, 2018.
Clinical Trials Transformation Initiative. Use case for developing novel endpoints generated using mobile technology: diabetes mellitus. Clinical Trials Transformation Initiative.
Clinical Trials Transformation Initiative. Use case for developing novel endpoints generated using mobile technology: Duchenne muscular distrophy. Clinical Trials Transformation Initiative.
Clinical Trials Transformation Initiative. Use case for developing novel endpoints generated using mobile technology: heart failure. Clinical Trials Transformation Initiative.
Clinical Trials Transformation Initiative. Use case for developing novel endpoints generated using mobile technology: Parkinson’s disease. Clinical Trials Tranformation Initiative.
Clinical Trials Transformation Initiative. CTTI recommendations: advancing the use of mobile technologies for data capture & improved clinical trials. Clinical Trials Transformation Initiative, 2018.
US Food and Drug Administration. Guidance for industry: electronic source data in clinical investigations. Silver Spring, MD: US Department of Health and Human Services; 2013.
US Food and Drug Administration. Critical path innovation meetings, guidance for industry. Silver Spring, MD: US Department of Health and Human Services; 2015.
US Food and Drug Administration. Guidance for industry, formal meetings between the FDA and sponsors or applicants of PDUFA products, draft guidance. Silver Spring, MD: US Department of Health and Human Services; 2017.
US Food and Drug Administration. About FDA, request a meeting on drugs. Silver Spring, MD: US Food and Drug Administration.
US Food and Drug Administration. Requests for feedback on medical device submissions: the pre-submission program and meetings with Food and Drug Administration Staff, Guidance for Industry and Food and Drug Administration Staff. Silver Spring, MD: US Department of Health and Human Services; 2017.
US Food and Drug Administration. Medical devices, Contact Us—Division of Industry and Consumer Education (DICE). Silver Spring, MD: US Food and Drug Administration.
US Food and Drug Administration. About FDA, CDRH management directory by organization. Silver Spring, MD: US Food and Drug Administration.
Clinical Trials Transformation Initiative. Project: engaging patients and sites. Clinical Trials Transformation Initiative.
Johansson T, Wild C. Telemedicine in acute stroke management: systematic review. Int J Technol Assess Health Care. 2010;26:149–55.
Rubin MN, Demaerschalk BM. The use of telemedicine in the management of acute stroke. Neurosurg Focus. 2014;36:E4.
Trettel A, Eissing L, Augustin M. Telemedicine in dermatology: findings and experiences worldwide—a systematic literature review. J Eur Acad Dermatol Venereol. 2018;32:215–24.
Tensen E, van der Heijden JP, Jaspers MW, Witkamp L. Two decades of teledermatology: current status and integration in National Healthcare Systems. Curr Dermatol Rep. 2016;5:96–104.
Armstrong AW, Johnson MA, Lin S, Maverakis E, Fazel N, Liu FT. Patient-centered, direct-access online care for management of atopic dermatitis: a randomized clinical trial. JAMA Dermatol. 2015;151:154–60.
De Las Cuevas C, Arredondo MT, Cabrera MF, Sulzenbacher H, Meise U. Randomized clinical trial of telepsychiatry through videoconference versus face-to-face conventional psychiatric treatment. Telemed J E Health. 2006;12:341–50.
Fortney JC, Pyne JM, Edlund MJ, et al. A randomized trial of telemedicine-based collaborative care for depression. J Gen Intern Med. 2007;22:1086–93.
Ruskin PE, Silver-Aylaian M, Kling MA, et al. Treatment outcomes in depression: comparison of remote treatment through telepsychiatry to in-person treatment. Am J Psychiatry. 2004;161:1471–6.
Chakrabarti S. Usefulness of telepsychiatry: a critical evaluation of videoconferencing-based approaches. World J Psychiatry. 2015;5:286–304.
Hilty DM, Ferrer DC, Parish MB, Johnston B, Callahan EJ, Yellowlees PM. The effectiveness of telemental health: a 2013 review. Telemed J E Health. 2013;19:444–54.
Interstate Medical Licensure Compact.
US Food and Drug Administration. Information sheet guidance for sponsors, clinical investigators, and IRBs, frequently asked questions—statement of investigator (Form FDA 1572). Silver Spring, MD: US Department of Health and Human Services; 2010.
US Food and Drug Administration. Guidance for industry, use of electronic records and electronic signatures in clinical investigation under 21 CFR Part 11—questions and answers. Silver Spring, MD: US Department of Health and Human Services; 2017.
US Food and Drug Administration. Guidance for clinical investigators, sponsors, and IRBs, Investigational New Drug Applications (INDs)—determining whether human research studies can be conducted without an IND. Silver Spring, MD: US Department of Health and Human Services; 2013.
US Food and Drug Administration. Guidance for Industry, E6(R2) good clinical practice: integrated addendum to ICH E6(R1). Silver Spring, MD: US Department of Health and Human Services; 2018.
CFR Part 11 – Electronic Records; Electronic Signatures – Scope and Application.
CFR Part 50 – Protection of Human Subjects.
CFR Part 54 – Financial Disclosure by Clinical Investigators.
CFR Part 56 – Institutional Review Boards.
CFR Part 312 – Investigational New Drug Application.
CFR Part 812 – Investigational Device Exemptions.
Clinical Trials Transformation Initiative. CTTI Recommendations: developing novel endpoints generated by mobile technology for use in clinical trials. Clinical Trials Transformation Initiative.
US Food and Drug Administration. Guidance for industry, investigator responsibilities—protecting the rights, safety, and welfare of study subjects. Silver Spring, MD: US Department of Health and Human Services; 2009.
US Food and Drug Administration. Guidance for IRBs, clinical investigators, and sponsors, IRB responsibilities for reviewing the qualifications of investigators, adequacy of research sites, and the determination of whether an IND/IDE is needed. Silver Spring, MD: US Department of Health and Human Services; 2013.
The authors wish to acknowledge the contributions of the CTTI Decentralized Clinical Trials project team. Medical writing assistance was provided by Kelly Kilibarda, PhD, and Bill Buchta, PhD, in affiliation with Whitsell Innovations, Inc.
Food and Drug Administration grant R18FD005292.
Conflicts of interest
The authors declared that they have no conflicts of interest.
Springer Nature remains neutral with regard to jurisdictional claims in published maps and institutional affiliations.
About this article
Cite this article
Apostolaros, M., Babaian, D., Corneli, A. et al. Legal, Regulatory, and Practical Issues to Consider When Adopting Decentralized Clinical Trials: Recommendations From the Clinical Trials Transformation Initiative. Ther Innov Regul Sci 54, 779–787 (2020). https://doi.org/10.1007/s43441-019-00006-4