How to manage data from wearables in clinical trials — from overcoming regulatory issues to handling challenges associated with dirty data.
Digital technologies are challenging the traditional models of clinical trials, reimagining study designs and the creation and collection of data. In feasibility studies, digital technologies, such as wearables and sensors, have demonstrated value in deepening insights into the patient experience and the impact of investigational products on everyday life. More recently, pharma and biotech companies have initiated harnessing wearables and the data generated from them to inform primary and secondary endpoints.
Yet, with these advances come burdens and challenges, such as understanding how to best manage, store and interpret large data sets, as well as determine what will pass regulatory submissions. It also includes recognising and handling the challenges associated with dirty data, which can manifest as duplicate data/information, inaccuracies and unused data. Not having proper data hygiene can cause timeline delays, wasted efforts and misinformed decisions, leading to poor clinical trial outcomes and even failure.
Additional data challenges to applying wearables to clinical trial conduct include patient acceptance, and privacy and security issues. To successfully implement wearables and other digital health technologies in clinical trials given all these limitations, sponsors will need to not only deal head-on with regulatory issues and managing huge datasets, but also have a data management strategy in place.
Overcoming regulatory concerns
The lack of clear regulatory guidelines and standardisation across countries and regions has led to cautionary usage of digital health technologies for endpoints in clinical research. Therefore, it is no surprise that in a recent webinar hosted by ICON, 40 percent of participants reported that regulatory authorities are the biggest barrier to the adoption of digital endpoints.1
Under the circumstances, sponsors should follow best practices and will need to ensure they have the necessary change control processes in place and that the devices, themselves, are capturing the data needed in the real world. All data submitted to regulators need to meet minimum standards in terms of validity, reliability, sensitivity and robustness. Moreover, regulatory agencies will require similar standards to support the use of data from a specific device in any given study.2
Managing huge datasets
Data management is vital to the success of using digital technologies in a clinical study, and is a key consideration to regulators. When devices are selected and used in a study without a data strategy in place, sponsors will often find challenges in cleaning dirty data, which can cause escalating costs. In fact, a report found that source data verification costs for Phase 1 trials account for about 15 percent of study costs, totalling upwards of $326,000. The study also found that site monitoring costs — which included costs for collecting and checking case report forms, source data verification, and the review and maintenance of drug accountability and query resolution — totalled more than one million dollars per study in phase 2 and 3.3 Additionally, it’s important to note that dirty data can not only increase development costs, but also prevent a new drug application, as it would require enough data to support a complete and high-quality application, leading to a longer time to market.
Consulting a statistician early on to develop a data strategy, such as discussing what data to include or exclude, can save a considerable amount of money and time. For example, data processing and cleaning, in addition to identifying errors, can be set up to occur in near real-time, increasing the accuracy of data and processing speed. Also, using machine learning and other artificial intelligence approaches can help to manage high volumes of data.
Developing a data strategy
As previously discussed, data is abundant, vast, and complex, making its collection, management and analysis challenging. The volume and diversity of data being collected contribute to concerns about high levels of delays and inefficiencies. To mitigate issues when analysing data and developing insight, sponsors should create a data management strategy. Requirements that sponsors will need to discuss with their statistician team include:
- Data cleaning: understanding how data can be cleaned to generate an analysis-ready dataset
- Data validity: defining what constitutes a valid data set for a specific study
- Data continuity: ensuring data continuity, and outlining how to handle missing data
- Data compliance: determining compliance, including data stream compliance with 21 CFR Part 11 and patient compliance with device use
- Data veracity: establishing data veracity, which includes planning how a device’s algorithm will generate the analysable variables, in addition to measuring the degree to which the data is accurate, precise, interpretable and trusted
- Data Ingestion: deciding how data will be ingested, such as streaming in real time or sending in batches
- Data standardisation: providing a framework for data standardisation and quality
Advancing data in clinical research
While data can be messy, implementing a strategy and controlling the process of data collection allows sponsors to prevent or mitigate dirty data as it arises in clinical trials. Despite the challenges that wearables and other digital health technologies present to clinical research, taking advantage of the rich data they provide can bring novel insights to ultimately enhance patient safety.
To learn more about data challenges when using wearables in clinical trials, read our white paper — Advancing digital endpoints: An end-to-end approach to managing wearable devices through clinical development.
References:
- McCarthy, M., Ballinger, R., and Lewis, H. (2020). Webinar: Digital Endpoint Strategy and Validation. ICON, plc. https://www.iconplc.com/.
- Walton, M.K., et al. (2020) Considerations for development of an evidence dossier to support the use of Mobile sensor technology for clinical outcome assessments in clinical trials. Contemporary Clinical Trials 91:105962 https://pubmed.ncbi.nlm.nih.gov/32087341/.
- Sertkaya A, Wong HH, Jessup A, Beleche T. Key cost drivers of pharmaceutical clinical trials in the United States. Clin Trials. 2016 Apr;13(2):117-26. doi: 10.1177/1740774515625964. Epub 2016 Feb 8. PMID: 26908540.
In this section
-
Digital Disruption
-
Clinical strategies to optimise SaMD for treating mental health
-
Digital Disruption: Surveying the industry's evolving landscape
- AI and clinical trials
-
Clinical trial data anonymisation and data sharing
-
Clinical Trial Tokenisation
-
Closing the evidence gap: The value of digital health technologies in supporting drug reimbursement decisions
-
Digital disruption in biopharma
-
Disruptive Innovation
- Remote Patient Monitoring
-
Personalising Digital Health
- Real World Data
-
The triad of trust: Navigating real-world healthcare data integration
-
Clinical strategies to optimise SaMD for treating mental health
-
Patient Centricity
-
Agile Clinical Monitoring
-
Capturing the voice of the patient in clinical trials
-
Charting the Managed Access Program Landscape
-
Developing Nurse-Centric Medical Communications
- Diversity and inclusion in clinical trials
-
Exploring the patient perspective from different angles
-
Patient safety and pharmacovigilance
-
A guide to safety data migrations
-
Taking safety reporting to the next level with automation
-
Outsourced Pharmacovigilance Affiliate Solution
-
The evolution of the Pharmacovigilance System Master File: Benefits, challenges, and opportunities
-
Sponsor and CRO pharmacovigilance and safety alliances
-
Understanding the Periodic Benefit-Risk Evaluation Report
-
A guide to safety data migrations
-
Patient voice survey
-
Patient Voice Survey - Decentralised and Hybrid Trials
-
Reimagining Patient-Centricity with the Internet of Medical Things (IoMT)
-
Using longitudinal qualitative research to capture the patient voice
-
Agile Clinical Monitoring
-
Regulatory Intelligence
-
An innovative approach to rare disease clinical development
- EU Clinical Trials Regulation
-
Using innovative tools and lean writing processes to accelerate regulatory document writing
-
Current overview of data sharing within clinical trial transparency
-
Global Agency Meetings: A collaborative approach to drug development
-
Keeping the end in mind: key considerations for creating plain language summaries
-
Navigating orphan drug development from early phase to marketing authorisation
-
Procedural and regulatory know-how for China biotechs in the EU
-
RACE for Children Act
-
Early engagement and regulatory considerations for biotech
-
Regulatory Intelligence Newsletter
-
Requirements & strategy considerations within clinical trial transparency
-
Spotlight on regulatory reforms in China
-
Demystifying EU CTR, MDR and IVDR
-
Transfer of marketing authorisation
-
An innovative approach to rare disease clinical development
-
Therapeutics insights
- Endocrine and Metabolic Disorders
- Cardiovascular
- Cell and Gene Therapies
-
Central Nervous System
-
A mind for digital therapeutics
-
Challenges and opportunities in traumatic brain injury clinical trials
-
Challenges and opportunities in Parkinson’s Disease clinical trials
-
Early, precise and efficient; the methods and technologies advancing Alzheimer’s and Parkinson’s R&D
-
Key Considerations in Chronic Pain Clinical Trials
-
A mind for digital therapeutics
-
Glycomics
- Infectious Diseases
- NASH
- Oncology
- Paediatrics
-
Respiratory
-
Rare and orphan diseases
-
Advanced therapies for rare diseases
-
Cross-border enrollment of rare disease patients
-
Crossing the finish line: Why effective participation support strategy is critical to trial efficiency and success in rare diseases
-
Diversity, equity and inclusion in rare disease clinical trials
-
Identify and mitigate risks to rare disease clinical programmes
-
Leveraging historical data for use in rare disease trials
-
Natural history studies to improve drug development in rare diseases
-
Patient Centricity in Orphan Drug Development
-
The key to remarkable rare disease registries
-
Therapeutic spotlight: Precision medicine considerations in rare diseases
-
Advanced therapies for rare diseases
-
Transforming Trials
-
Accelerating biotech innovation from discovery to commercialisation
-
Ensuring the validity of clinical outcomes assessment (COA) data: The value of rater training
-
Linguistic validation of Clinical Outcomes Assessments
-
Optimising biotech funding
- Adaptive clinical trials
-
Best practices to increase engagement with medical and scientific poster content
-
Decentralised clinical trials
-
Biopharma perspective: the promise of decentralised models and diversity in clinical trials
-
Decentralised and Hybrid clinical trials
-
Practical considerations in transitioning to hybrid or decentralised clinical trials
-
Navigating the regulatory labyrinth of technology in decentralised clinical trials
-
Biopharma perspective: the promise of decentralised models and diversity in clinical trials
-
eCOA implementation
- Blended solutions insights
-
Implications of COVID-19 on statistical design and analyses of clinical studies
-
Improving pharma R&D efficiency
-
Increasing Complexity and Declining ROI in Drug Development
-
Innovation in Clinical Trial Methodologies
- Partnership insights
-
Risk Based Quality Management
-
Transforming the R&D Model to Sustain Growth
-
Accelerating biotech innovation from discovery to commercialisation
-
Value Based Healthcare
-
Strategies for commercialising oncology treatments for young adults
-
US payers and PROs
-
Accelerated early clinical manufacturing
-
Cardiovascular Medical Devices
-
CMS Part D Price Negotiations: Is your drug on the list?
-
COVID-19 navigating global market access
-
Ensuring scientific rigor in external control arms
-
Evidence Synthesis: A solution to sparse evidence, heterogeneous studies, and disconnected networks
-
Global Outcomes Benchmarking
-
Health technology assessment
-
Perspectives from US payers
-
ICER’s impact on payer decision making
-
Making Sense of the Biosimilars Market
-
Medical communications in early phase product development
-
Navigating the Challenges and Opportunities of Value Based Healthcare
-
Payer Reliance on ICER and Perceptions on Value Based Pricing
-
Payers Perspectives on Digital Therapeutics
-
Precision Medicine
-
RWE Generation Cross Sectional Studies and Medical Chart Review
-
Survey results: How to engage healthcare decision-makers
-
The affordability hurdle for gene therapies
-
The Role of ICER as an HTA Organisation
-
Strategies for commercialising oncology treatments for young adults
-
Blog
-
Videos
-
Webinar Channel