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Decentralised clinical trials promise to transform drug development and pharma strategy. The evidence tells a complex story. Here is what’s working and what still needs to be fixed.
Pharma strategies for decentralised clinical trials (DCT) looked truly promising and transformative during the COVID-19 pandemic, but subsequent analysis has shown that results have actually been more limited than expected.
The DCT models and design strategies work, but there are remaining barriers facing DCT implementation.
The U.S. FDA DCT guidance and ICH E6(R3) have removed most of the compliance uncertainty that sponsors were worried about. The industry should now collectively look to how to solve the challenges remaining for DCT programme design and management.
A decentralised clinical trial (DCT) is a study in which some or all trial activities take place outside traditional clinical sites.
In DCTs, patients participate from home or local healthcare facilities using a combination of digital tools, telemedicine consultations, home nursing visits, and direct-to-participant drug delivery.
DCT models for pharma strategy range from fully remote designs, where no site visits are required, to hybrid models that integrate selective remote elements into a predominantly site-based framework.
Most current evidence supports hybrid approaches as the best operational model across the majority of therapeutic areas.
The latest U.S. Food and Drug Administration (FDA) guidance formalised the regulatory basis for DCTs in the U.S., covering telehealth visits, use of local healthcare providers, and digital data capture standards.
ICH E6(R3), effective from July 2025 under the European Medicines Agency (EMA), explicitly endorses decentralised elements as compliant with Good Clinical Practice under ICH E6(R3) requirements.
But, while the regulatory and compliance questions have been answered, a 2025 analysis of 2,830 DCT-attributed trials found that DCT adoption, while real and growing, has been unevenly distributed across therapeutic areas and geographies and that operational barriers to DCT implementation remain significant.
Data fragmentation is the most consistently cited operational problem for DCT operation.
A fully remote study may draw data simultaneously from wearable biosensors, ePRO applications, telemedicine platforms, home nursing records, and local laboratories. Without deliberate integration architecture, these sources produce fragmented records that are difficult to solve and audit.
Fast Healthcare Interoperability Resources (FHIR) and Clinical Data Interchange Standards Consortium (CDISC) ODM (Operational Data Model) are now considered minimum standards for compliant DCT data management. Both are gaining traction across the industry, but they are not yet standard across all vendors and sites. Sponsors who do not specify these requirements in contracts before execution create compliance gaps that surface at data lock.
Patient diversity gains from decentralisation are notable. The PACT Consortium diversity data from 69 trials confirmed higher representation across demographic groups in DCT-enabled studies. Those gains were linked to deliberate recruitment strategies, not to remote technology alone.
However, study design and protocols requiring reliable internet or system connectivity, smartphones or other digital devices, as well as suitable patient home environments, can recreate the very access barriers they were designed to address.
Digital literacy support and community outreach must be built into the protocol at the design stage, not added as a post-hoc mitigation.
Hybrid design consistently outperforms fully decentralised execution in the current evidence base for most therapeutic areas.
Oncology accounts for 46% of DCT activity by therapeutic application, where remote symptom monitoring and electronic patient-reported outcomes (ePROs) are well suited to decentralised collection.
Neurology is the fastest-growing therapeutic area for DCT adoption, with a projected annual growth rate of 16% through 2030.
Fully remote execution works best in digital therapeutics and symptom monitoring studies where no physical clinical assessment is required.
AI tools are in active deployment for several DCT activities like adverse event detection, data quality monitoring, and patient recruitment support. AI adoption in DCTs represents a meaningful share of DCT workflows, and industry analyses project that usage will expand greatly over the next five years as sponsors scale digital platforms.
Another exciting opportunity to support DCT implementation is blockchain-enabled consent tools. One multicentre clinical trial using blockchain-based consent recorded 95.7% consent completion and 90.8% medication adherence, both comparing favourably with traditional site-based approaches.
For clinical operations teams designing and implementing DCTs, it is important to first conduct a formal DCT suitability assessment during protocol design for every programme. This should evaluate the patient population, therapeutic area, primary endpoint type, and regulatory jurisdiction before any site or vendor is selected.
Secondly, teams should define the study’s data architecture and interoperability requirements before choosing any technology platform. FHIR and CDISC ODM standards must be written into vendor contracts at signing, not negotiated during trial setup.
Additionally, digital health literacy support should be built into patient engagement plans from the outset. Identify which patient subgroups benefit from decentralisation and which face new barriers, and design targeted support for the latter group.
Engage regulatory affairs early for any DCT using AI-assisted monitoring, with documentation prepared under the FDA AI credibility guidance framework.
Lastly, ensure all audit trails, consent records, and remote monitoring logs are structured for inspection readiness from day one under current GCP requirements.
The regulatory case for DCTs and pharma strategy is settled. The FDA's September 2024 guidance and ICH E6(R3) together provide a clear compliance framework for hybrid and fully decentralised designs in the U.S. and EU.
The remaining barriers to DCT implementation are operational: Data fragmentation, interoperability gaps, and inconsistent patient digital access.
Hybrid design is the most evidence-supported model for most therapeutic areas, while oncology and neurology lead DCT adoption.
Patient diversity gains from DCTs are real but require deliberate implementation. Technology alone does not improve representation; recruitment strategy, multilingual consent, and community outreach are all necessary components.
Pharmatica tracks the DCT evidence base, regulatory developments, and implementation benchmarks across the pharma industry, giving clinical operations leaders the intelligence they need to build decentralised clinical programmes that deliver on their clinical and commercial potential.
Pharmatica: Insight. Connection. Impact.
Decentralised clinical trials (DCTs) are studies in which some or all activities take place outside traditional clinical sites, using digital tools, telemedicine, home nursing, and direct-to-participant drug delivery.
DCT design strategies range from fully remote to hybrid models that combine remote elements with site-based activities. Both the FDA's September 2024 guidance and ICH E6(R3) confirm that decentralised elements are compliant with GCP requirements.
The main challenges in implementing DCTs are data fragmentation across disconnected digital platforms, interoperability gaps between data capture systems, and inconsistent technology access across patient populations.
GCP-compliant audit trails in distributed environments require deliberate architectural planning. Achieving patient diversity gains requires active recruitment strategy, not technology deployment alone.
The FDA’s September 2024 DCT guidance addresses telehealth visits in place of on-site clinical contacts, the use of local healthcare providers for protocol-specified activities, and requirements for data integrity across remote platforms.
The guidance resolves the compliance uncertainty that had previously limited hybrid trial designs in the US and sets out documentation requirements for remote data capture.
Yes, decentralised clinical trials improve patient diversity, but only with deliberate implementation.
The PACT Consortium dataset covering 69 trials found higher demographic representation in DCT-enabled studies compared to conventional site-based trials. These gains were associated with culturally tailored recruitment, multilingual consent materials, and community outreach, not with remote technology alone.
ICH E6(R3), effective from July 2025 under the EMA, endorses decentralised elements including remote monitoring, telemedicine, and digital data capture as GCP-compliant mechanisms.
It requires risk-based quality management across all decentralised activities with monitoring intensity proportionate to the risk level of each process. Validated remote data capture systems and distributed audit trails are requirements, not optional additions.
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