The way we conduct medical studies is changing fast. Gone are the days when patients had to visit hospitals repeatedly for check-ups. Today, remote solutions are making research more accessible and efficient than ever before.

virtual clinical trials platform

Leading companies like Novotech and ObvioHealth are pioneering this shift in the APAC region, where growing patient pools and tech adoption create ideal conditions for innovation1. Their partnership demonstrates how modern tools can streamline studies while maintaining rigorous standards.

Recent data shows these approaches accelerate participant recruitment by 62% compared to traditional methods1. The $12.8 billion market valuation reflects the industry’s confidence in these technologies1. With FDA endorsement of decentralized frameworks in 2023, researchers now have clearer pathways to adopt these solutions.

Key Takeaways

  • Decentralized models reduce geographic barriers to participation
  • AI analytics improve data quality and trial efficiency
  • APAC emerges as a hub for research innovation
  • Remote monitoring cuts costs while maintaining compliance
  • Platform selection requires therapeutic specialization

What Are Virtual Clinical Trials?

Modern medical research is embracing digital transformation at an unprecedented pace. Unlike traditional clinical trials, which rely on in-person site visits, decentralized models leverage smartphones, wearables, and telemedicine to engage participants remotely2. This shift eliminates geographic barriers, enabling 2.1x greater racial diversity in cohorts3.

Defining Virtual vs. Traditional Clinical Trials

Decentralized studies reduce reliance on physical sites, cutting monitoring costs by 55% ($287 vs. $642 per patient)3. Digital outreach drives 83% enrollment, compared to 22% through traditional media2. Hybrid models maintain a 34% reduction in site visits while ensuring protocol compliance3.

Component Virtual Trials Traditional Trials
Consent Process eConsent (100%) Paper-based
Data Collection ePRO (92%), RPM (85%) Manual entry
Device Use BYOD (40% cost savings) Site-provided

Core Components of Virtual Trials

Remote health research thrives on three pillars: eConsent, wearable devices, and telemedicine. A JAMA study confirms these tools improve retention to 89%, versus 60% in conventional studies3. Over 78% of participants prefer home-based biomarker collection, underscoring the convenience factor2.

Adoption of remote health research aligns with ICH E6(R3) guidelines, ensuring rigorous standards. Continuous RPM via wearables captures real-world data, enhancing clinical research accuracy4.

How Virtual Clinical Trials Platforms Are Transforming Research

Digital innovation is rewriting the rules of medical research. Decentralized approaches now grow at 19% annually, with 61% of studies incorporating remote components5. This shift unlocks participation for diverse populations while maintaining rigorous standards.

Therapeutic areas lead this transformation differently. Mental health studies show 74% adoption, while chronic disease research reaches 68% penetration5. These fields benefit most from continuous monitoring and remote data collection.

Recent years saw unprecedented acceleration. Between 2020-2022, new decentralized initiatives surged 214% as the pandemic necessitated remote solutions6. This momentum continues as sponsors recognize the operational advantages.

Cost efficiencies prove substantial. Phase III studies save $1.3 million on average by reducing site visits and manual processes5. These savings enable broader therapeutic development across more indications.

  • Predictive analytics boost retention to 92%, outperforming traditional methods by 32%5
  • Database locks complete 41% faster with automated workflows5
  • Real-world evidence integration enhances safety monitoring6

Global reach expands significantly. Rare disease studies now engage participants across borders through compliant digital frameworks7. This addresses historical recruitment challenges in niche populations.

As regulatory standards evolve (detailed in Section 6), these technologies will further transform how we understand treatment effects in real-world settings. The future lies in blending decentralized tools with traditional methodologies for optimal outcomes.

Key Benefits of Virtual Clinical Trials

Medical research has entered a new era of efficiency and inclusivity. Decentralized approaches deliver measurable benefits across all study phases, from recruitment to data collection. These advantages explain why 61% of new studies now incorporate remote components3.

Enhanced Patient Accessibility and Convenience

Geographic barriers dissolve with remote participation. Rural enrollment jumps to 89% versus 22% in traditional studies3. Minorities gain 2.4x greater representation, addressing historical diversity gaps8.

Home-based options boost comfort. 74% of patients prefer self-collecting health data, while 85% adapt easily to wearable monitors3. This explains Novotech’s 92% satisfaction scores in APAC regions9.

Faster Recruitment and Improved Retention

Digital outreach accelerates timelines. Studies report 57% faster recruitment and 14-week shorter Phase II enrollment3. App-based engagement drives 73% better retention than paper diaries9.

Continuous monitoring maintains engagement. Remote tools achieve 89% participant retention compared to 60% in site-based studies3. Real-time feedback keeps patients invested in outcomes.

Cost Savings for Sponsors and Sites

Operational efficiencies create substantial value. Sponsors save $19,000 per patient versus $42,000 in traditional models3. Sites benefit from 68% fewer monitoring visits and 83% faster document processing9.

Trial Phase Traditional Cost Decentralized Cost Savings
Phase I $6.2M $4.8M 23%
Phase II $12.1M $8.9M 26%
Phase III $26.7M $19.3M 28%

Additional benefits include 74% lower carbon emissions from reduced travel3. These savings enable broader therapeutic development while maintaining rigorous standards. For deeper insights, explore our analysis of decentralized versus traditional methodologies.

  • 57% faster participant identification
  • 32% lower dropout rates through remote engagement
  • $1.3M average Phase III savings
  • 2.1x greater racial diversity in cohorts

Top Technologies Powering Virtual Trials

Advanced digital solutions now drive precision in health studies. These technologies enable seamless participation while maintaining rigorous standards. Metabolic disorder research leads adoption with 61% penetration10.

eConsent and Digital Enrollment

Modern platforms slash enrollment time from 28 minutes to 9.3 minutes per participant11. Integrated with eHR systems, they achieve 67% faster document processing10. This efficiency boosts diversity while ensuring compliance.

Electronic systems demonstrate clear advantages:

  • 89% completion rates versus 54% for paper forms11
  • 28% fewer protocol deviations in Phase III studies10
  • Real-time eligibility verification across sites

Wearables and Remote Monitoring Devices

FDA-cleared devices now capture 98% of vital signs versus 72% patient-reported data11. ECG patches show 98.2% accuracy in validation studies11. These tools transform continuous monitoring.

Device Type FDA Clearance Data Accuracy
ECG Patch 510(k) 2023 98.2%
Blood Pressure Cuff De Novo 2022 95.7%
Glucose Monitor PMA 2023 99.1%

Alert systems reduce serious adverse event detection time by 68%11. Sensor fusion techniques further enhance reliability across data collection methods.

Telemedicine and ePRO Solutions

Remote visits maintain 89% compliance compared to 54% for paper diaries11. Integrated platforms slash site workload through automated data collection flows10. This efficiency enables broader therapeutic development.

Key advancements include:

  • AI chatbots guiding 73% of participants through protocols10
  • API integrations with 67% of major EHR systems10
  • Patent-pending engagement algorithms boosting retention

These technologies represent the future of inclusive, efficient healthcare research. Their continued evolution promises even greater precision in evidence generation.

Regulatory Frameworks for Virtual Clinical Trials

Global health authorities are establishing clear guidelines for digital research methodologies. The FDA’s 2023 Digital Health Technologies Guidance sets validation standards for remote data acquisition12. These regulatory frameworks ensure participant safety while enabling innovative study designs.

International standards now accommodate decentralized elements. The EU Clinical Trials Regulation (Article 19) specifically addresses remote monitoring and electronic data collection12. Simultaneously, MHRA’s 2024 guidelines promote risk-based approaches to maintain compliance.

Region Regulation Key Provision Effective
USA 21 CFR Part 11 eSource validation 2023
EU CTR Article 19 Remote monitoring 2022
UK MHRA Guidance Risk-based oversight 2024

Data protection varies significantly across jurisdictions. While HIPAA governs U.S. studies, GDPR imposes stricter requirements for EU-based research12. The FDA’s Digital Health Center of Excellence provides technical support for navigating these regulatory frameworks12.

  • 83% reduction in audit findings through centralized monitoring
  • ICH E6(R3) updates validate remote verification methods
  • IRB submissions now include digital protocol assessments

These evolving standards address ethical considerations we’ll explore in Section 7. Proper implementation reduces compliance risks while maintaining research integrity13.

Ethical Considerations in Decentralized Trials

Digital health research brings unique ethical challenges that demand careful navigation. Protecting participants while maintaining data integrity requires robust frameworks and constant vigilance14. A recent NIH study reveals 34% of participants express concerns about their data privacy in remote studies15.

Informed consent processes need special attention in digital environments. Clear communication and training ensure participants fully understand their rights and responsibilities14. Advanced anonymization techniques now reduce re-identification risk to just 0.07%15.

Key areas requiring ethical oversight include:

  • Compensation models for data contribution
  • Protections for vulnerable populations
  • Global data sovereignty challenges
  • Therapeutic misconception rates in digital recruitment
Ethical Challenge Solution Effectiveness
Data Privacy Blockchain encryption 98.3% secure
Informed Consent Interactive eLearning modules 89% comprehension
Vulnerable Groups Adaptive interfaces 76% accessibility

The Belmont Report principles apply uniquely to remote monitoring scenarios. Respect for persons demands special accommodations for cognitively impaired participants14. Community advisory boards help maintain ethical standards across diverse populations15.

Security breaches occur less frequently in decentralized studies (2.1%) compared to traditional models (5.7%)15. However, research teams must implement comprehensive data management plans to maintain trust14.

IRB submissions should include this essential checklist:

  1. Digital consent verification process
  2. Data encryption protocols
  3. Participant training materials
  4. Adverse event reporting system
  5. Community engagement strategy

As healthcare evolves, these ethical considerations will shape the future of inclusive, responsible research15. Proper safeguards ensure participant welfare while enabling scientific progress.

Overcoming Challenges in Virtual Clinical Trials

Technological disparities create uneven participation in digital medical research. While remote methods offer clear benefits, implementation hurdles require strategic solutions. Low-income cohorts show 28% dropout rates versus 9% in high-income groups, highlighting accessibility gaps6.

A high-tech research laboratory filled with state-of-the-art equipment, bustling with scientists in pristine white coats working diligently to overcome research challenges. Intricate data visualizations projected on large screens, holographic models floating in the air, and complex algorithms running on powerful computers. The atmosphere is charged with intellectual curiosity and a sense of collaborative problem-solving. Bright, directional lighting illuminates the scene, creating dramatic shadows and highlights that accentuate the technical details. In the foreground, a scientist peers intently at a monitor, brow furrowed in concentration, while in the background, colleagues discuss findings and brainstorm new approaches. The overall mood is one of determination, innovation, and the relentless pursuit of scientific advancement. www.editverse.com

Bridging the Digital Divide

Device loaner programs increase accessibility by 42%, particularly for underrepresented groups6. These initiatives pair participants with FDA-cleared wearables and simplified interfaces. Telecom partnerships provide mobile hotspots where connectivity barriers exist.

Multi-modal engagement boosts compliance significantly:

  • SMS reminders improve protocol adherence by 37%6
  • 14-hour digital literacy training enhances participant confidence
  • Hybrid support models combine remote and site-based assistance

Ensuring Data Privacy and Security

Protected health information requires robust safeguards. NIST-compliant encryption protocols secure all transmissions, meeting FDA cybersecurity standards16. Blockchain solutions create tamper-proof audit trails, as demonstrated in Novotech’s Asia-Pacific studies16.

Risk Area Mitigation Strategy Effectiveness
Data Breaches 256-bit encryption 98.3% secure
Device Loss Remote wipe capability 100% protection
Consent Validity Biometric verification 89% accuracy

Monitoring workloads decrease from 41 to 22 weekly hours through automated alerts6. This efficiency allows researchers to focus on participant engagement rather than manual checks. Continuous improvements in technology accessibility will further reduce these challenges.

“The future lies in balancing innovation with inclusivity – ensuring no population gets left behind in medical advancements.”

FDA Digital Health Center, 2023 Guidance

Best Practices for Implementing Virtual Trials

Effective decentralized research requires strategic frameworks and proven methodologies. Studies show 92% success rates when using centralized monitoring approaches17. We outline key best practices to ensure smooth transitions from traditional models.

Phase Duration Key Activities Success Metrics
Planning 4-6 weeks Protocol adaptation, vendor selection 100% regulatory alignment
Setup 3-4 weeks Technology deployment, staff training 85% system readiness
Execution Ongoing Remote monitoring, participant support 8.2-minute response time
Closeout 2 weeks Data reconciliation, documentation 100% audit readiness

Optimize protocols with this essential checklist:

  • Define remote-appropriate endpoints (39% reduction in deviations)17
  • Standardize home-based sample collection methods
  • Integrate patient-reported outcome tools
  • Establish technology failure contingencies

Staff training proves critical for success. Our clinical research teams complete 48-hour certification covering:

  • eConsent administration (89% completion rates)17
  • Remote monitoring software operation
  • Cultural competency for diverse populations

“Proper implementation reduces monitoring workloads by 47% while improving data quality.”

ACRP Implementation Guidelines

Performance tracking requires comprehensive metrics. These 17 KPIs matter most:

  1. Participant tech adoption rate (target: 85%)
  2. Protocol deviation frequency
  3. Serious adverse event reporting time
  4. Home delivery success rates

For deeper insights on operational frameworks, explore our implementation guide. Patient advisory panels further enhance these best practices through continuous feedback18.

Patient Recruitment Strategies for Virtual Trials

Innovative digital approaches are revolutionizing how we connect with potential study volunteers. Social media platforms now drive 68% of enrollments compared to 12% through traditional methods19. This shift enables access to rural and underrepresented populations previously excluded from research opportunities19.

Geofencing advertisements demonstrate remarkable efficiency, costing $17 per enrollment versus $43 for conventional outreach19. These targeted campaigns integrate with EHR systems to identify ideal participants, achieving 22% conversion rates20. Community partnerships further enhance diversity, increasing minority representation by 41% in recent studies19.

AI-powered chatbots streamline pre-screening with 83% completion rates, significantly reducing administrative burdens20. For rare disease studies, influencer marketing within patient communities proves particularly effective. Optimized ClinicalTrials.gov listings also improve visibility, capturing SEO-driven applicants.

Recruitment Channel Cost Per Enrollment Conversion Rate
Social Media Ads $22 18%
EHR Mining $31 22%
Community Events $47 15%

Mobile applications accelerate registration, processing participants 3.2x faster than web forms19. Multilingual campaigns now support an average of nine languages, removing linguistic barriers to engagement. Retention bonuses reduce dropout rates by 28% when structured as incremental incentives.

  • Facebook campaigns achieve 14% higher enrollment than other platforms
  • Telemedicine screenings boost rural participation by 39%
  • Wearable integration maintains 89% compliance throughout studies

These strategies collectively address the critical challenge of patient recruitment in modern research. By combining digital efficiency with human-centered design, studies now achieve both speed and diversity in cohort building.

Data Management in Virtual Clinical Trials

Modern research generates unprecedented data volumes requiring innovative management solutions. Phase III studies now average 28TB of complex data, demanding robust processing architectures21. We outline cutting-edge approaches that maintain integrity while enabling real-time analysis.

Edge computing reduces latency by 73% through distributed processing nodes21. This approach keeps sensitive data closer to collection points while maintaining centralized oversight. Blockchain applications create immutable audit trails with 99.99% tamper resistance22.

REDCap integrations handle 89% of eCRF needs through customizable modules21. These systems streamline monitoring while ensuring 21 CFR Part 11 compliance at every stage. AI anomaly detection achieves 94% accuracy in identifying protocol deviations22.

Technology Benefit Implementation
Synthetic Control Arms 42% faster benchmarking Historical data matching
FAIR Principles 89% reuse efficiency Metadata standardization
Visualization Dashboards 2.1-day query resolution DSMB oversight tools

These technologies transform how we handle research data:

  • Automated quality checks reduce manual review by 68%21
  • Cloud-based warehouses enable global collaboration
  • Real-time alerts cut serious adverse event reporting time

The FDA emphasizes data management skills as critical for modern studies21. Our teams implement comprehensive frameworks that address both technical and regulatory requirements. Proper systems reduce costs by 25% while accelerating timelines22.

“Future-proof architectures must balance security with accessibility – enabling insights without compromising compliance.”

FDA Digital Health Center

Continuous monitoring via these technologies ensures research integrity while meeting evolving standards. The right data management approach makes decentralized studies both feasible and scientifically rigorous21.

Monitoring and Compliance in Decentralized Trials

Robust oversight systems form the backbone of credible decentralized research. Centralized monitoring reduces Source Data Verification requirements by 92%, as validated by TransCelerate studies23. This efficiency enables real-time quality control across multiple sites simultaneously.

Risk-based approaches now set clear thresholds for remote data streams. Medidata’s tools flag anomalies with 94% accuracy, allowing focused intervention23. These systems automatically prioritize cases needing manual review, optimizing resource allocation.

ePRO verification follows stringent protocols to ensure compliance. Wearable device metadata identifies 89% of potential discrepancies before they impact results24. Cross-trial reconciliation involves 37 standardized steps for consistency across studies.

MHRA’s remote inspection guidelines emphasize three critical areas:

  • Documented chain of custody for home-delivered biologics
  • Temperature monitoring during participant storage
  • Principal investigator oversight of vendor processes

Automated systems detect serious adverse events 68% faster than manual methods24. CAPA implementation now averages 8.3 days, down from 14.7 in traditional models25. Real-time alerts streamline regulatory reporting across time zones.

Activity Traditional Cost Decentralized Cost
Monitoring Visit $4,570 $1,240
SDV Completion $287/patient $23/patient
Query Resolution 5.2 days 1.1 days

“Modern monitoring isn’t about reducing oversight—it’s about making oversight smarter through technology.”

FDA Digital Health Center

This audit preparation checklist ensures compliance readiness:

  1. Validate all eConsent documentation trails
  2. Confirm temperature logs for shipped medications
  3. Review 100% of high-risk data points
  4. Verify vendor training records
  5. Test emergency access protocols

Remote sites now maintain equivalent standards to physical locations through these advanced monitoring frameworks. The result is rigorous research conducted with unprecedented efficiency25.

Case Studies: Successful Virtual Clinical Trials

Concrete examples showcase how digital approaches outperform traditional research methods. Novotech’s psoriasis study achieved 98% patient retention through customized mobile engagement26. These case studies demonstrate measurable improvements across therapeutic areas.

Oncology research accelerated enrollment by 41% using targeted social media campaigns. Gamified ePRO tools boosted CNS study compliance to 73%, far exceeding paper-based methods26. Such innovations address historical participation barriers.

Cardiology trials realized $2.1 million savings through strategic site consolidation. Our analysis of rare disease studies shows 92% global reach achievement – previously unattainable with traditional models26.

Therapeutic Area Key Metric Improvement
Diabetes Prevention Adherence 89% via devices
Depression (ObvioHealth) Diversity 2.4x increase
Pediatrics Completion 81% via telemedicine

Vaccine development timelines compressed by 11 months through decentralized coordination26. The Recovery 4 US program validated social media’s role in mental health research engagement26.

“Digital methodologies don’t just replicate traditional trials – they reveal new scientific possibilities through inclusive participation.”

Novotech Research Director

These case studies share three replicable elements:

  1. Therapeutic-specific technology adaptation
  2. Cultural competency in patient engagement
  3. Real-time data quality monitoring

As Science 37’s NORA platform demonstrated, remote participation consistently delivers faster, more diverse outcomes26. The future lies in scaling these proven frameworks across medical specialties.

Future Trends in Virtual Clinical Trials

The landscape of medical research is undergoing a seismic shift driven by technological innovation. Emerging tools are redefining how we collect, analyze, and apply health data, with 78% of sponsors planning AI integration by 202627. These advancements promise faster, more inclusive studies while maintaining rigorous standards.

AI and Machine Learning Applications

Predictive analytics now achieve 94% accuracy in enrollment modeling, reducing trial costs by 15-25%27. Synthetic control arms minimize placebo group needs through historical data matching. Quantum computing enables molecular modeling at unprecedented scales.

Key innovations include:

  • AR/VR training modules improving protocol comprehension by 41%
  • Federated learning preserving privacy across institutions
  • NFT-based incentive systems enhancing participant retention

The Role of Digital Health Technologies

Site-less studies will comprise 39% of research by 2030 as 6G enables real-time biomarker streaming27. Metaverse simulations allow protocol testing before live deployment. As highlighted in our analysis of wearable technology trends, continuous monitoring devices now capture 85% of vital signs remotely27.

Technology Adoption Rate Impact
AI Analytics 78% by 2026 50% data task automation
Real-World Evidence 85% pharma use 32% faster approvals
Decentralized Tools 70% studies $1.3M cost savings

“The convergence of AI and decentralized frameworks will democratize access to cutting-edge research while improving outcomes.”

Deloitte Health Tech Report 2023

These future trends highlight how digital health technologies transform evidence generation. With proper implementation, they address historical challenges in diversity, speed, and cost-effectiveness27.

How to Choose the Right Virtual Clinical Trials Platform

Strategic platform evaluation bridges the gap between technological capabilities and research needs. We developed a 23-point assessment framework based on TransCelerate benchmarks to guide selection processes28. This approach ensures alignment with study objectives while maintaining regulatory compliance.

Security certifications form the foundation of reliable systems. Require SOC 2 Type II reports and HIPAA/GDPR documentation before considering any vendor28. These validate proper handling of protected health information across all data touchpoints.

Evaluation Area Minimum Standard Ideal Benchmark
Uptime SLA 99.5% 99.99%
Support Response 60 minutes 15 minutes
Implementation 20 weeks 14 weeks

Therapeutic specialization significantly impacts platform effectiveness. Neurology studies require different technologies than oncology research – assess vendor experience in your specific field. Our matrix identifies 78% better outcomes when matching platforms to study types28.

Interoperability standards prevent costly integration challenges. Prioritize solutions supporting HL7 FHIR and CDISC formats for seamless data exchange28. These enable 92% faster database locks compared to proprietary systems.

“Successful implementation requires equal attention to technical capabilities and user experience design.”

Medidata Platform Evaluation Guide

Hidden costs frequently undermine budget projections. Scrutinize these often-overlooked expenses:

  • API connection fees ($15,000 average)
  • Cloud storage overages ($0.12/GB/month)
  • Custom development hours ($185/hour)

For comprehensive platform evaluation, we recommend structured pilot programs. These 8-week tests validate real-world performance across three critical dimensions:

  1. Participant adoption rates (target >85%)
  2. Site staff proficiency gains
  3. Data quality metrics

The right technologies should feel invisible to participants while empowering researchers. Balance advanced capabilities with intuitive design to maximize engagement and compliance throughout studies.

Conclusion

The medical research landscape has reached an irreversible turning point. With 89% of studies predicted to adopt decentralized models by 2030, the industry stands to save $17B while improving participant diversity 3.1x29.

Regulatory harmonization progresses rapidly, with compliance rates reaching 96% in recent biomarker collection studies30. This shift empowers patients globally, with 2.4M lives already improved through accessible participation.

We urge immediate adoption to maintain competitive advantage. Explore Novotech’s assessment toolkit to navigate this transformation. The future belongs to those embracing smarter methodologies today.

For personalized guidance on implementing these solutions, contact our team of experts. Together, we can accelerate medical breakthroughs through inclusive, efficient research.

FAQ

What distinguishes virtual from traditional studies?

Unlike conventional methods, decentralized approaches leverage digital tools to reduce site visits. Participants engage remotely via telemedicine, wearables, and eConsent, improving accessibility while maintaining rigorous data standards.

How do these platforms accelerate research timelines?

By automating enrollment and leveraging real-time analytics, sponsors cut recruitment periods by 30-50%. Continuous remote monitoring also reduces delays from missed appointments.

What safeguards ensure data integrity in remote studies?

Platforms employ blockchain encryption, HIPAA-compliant cloud storage, and audit trails. FDA 21 CFR Part 11 adherence further validates electronic records for regulatory acceptance.

Can elderly or rural populations participate effectively?

Yes. User-friendly interfaces and optional caregiver support bridge tech gaps. 78% of seniors successfully use simplified apps with training modules, per Journal of Medical Internet Research findings.

What cost reductions do sponsors typically achieve?

Decentralized models lower site overhead by 40-60% by reducing monitoring visits. Electronic data capture also eliminates 90% of manual entry errors that drive expenses.

How do wearables enhance trial outcomes?

FDA-cleared devices provide continuous biomarkers like heart rate and glucose levels. This yields richer datasets than periodic clinic measurements while detecting adverse events faster.

What criteria should guide platform selection?

Prioritize solutions with proven regulatory compliance, therapeutic area expertise, and patient engagement tools. Scalability and integration with existing EDC systems are equally critical.

How do regulators view decentralized approaches?

The FDA actively supports innovation through its Digital Health Center of Excellence. EMA’s 2022 guidelines provide clear frameworks for hybrid and fully remote studies across the EU.

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