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Medical Device Clinical Investigations · EU MDR · International Delivery

Medical Device Clinical Investigations Built Around the Evidence Decision

Eclevar designs and delivers medical-device clinical investigations from evidence strategy and protocol development through feasibility, site execution, monitoring, data analysis and final reporting, within one accountable clinical, regulatory and operational model.

From evidence question to Clinical Investigation Report A diagram showing one evidence question leading to three candidate evidence routes. The clinical investigation route is selected and runs through protocol and endpoints, feasibility and sites, conduct and monitoring, to the Clinical Investigation Report and summary, which returns to answer the original evidence question. 01 · THE QUESTION Evidence objective Investigation PMCF study Registry data Protocol and endpoints Feasibility and sites Conduct, monitoring and data 07 · THE ANSWER Clinical Investigation Report and summary
One line of accountability, from the evidence objective to the Clinical Investigation Report and summary.
  • Specialist medical-device CRO
  • First-in-human, pivotal and post-market investigations
  • Former Notified Body review experience
  • Practicing physician leadership
  • In-house clinical operations, biometrics and medical writing
  • European and international study delivery
Why sponsors appoint Eclevar

Clinical Investigation Decisions Informed by Review Experience, Clinical Expertise and Delivery

Most investigations do not fail because a visit was missed. They lose value because the design, the endpoints or the reporting were never fully connected to the decision the evidence had to support.

Reviewer-informed strategy

Former Notified Body review experience helps anticipate the questions that follow an investigation: evidence sufficiency, endpoint relevance, benefit-risk reasoning, study design and how the investigation sits within the wider clinical evidence package.

Clinician-led study design

Practicing surgeons and therapeutic specialists review the population, the procedure, the endpoints and the follow-up schedule, so that what is measured is clinically meaningful and what is asked of investigators is realistic.

One accountable delivery model

Clinical operations, data management, biostatistics, medical writing, safety and regulatory support work under one governance structure, with named leaders who stay involved through critical decisions and escalation.

Reporting designed from the start

The Clinical Investigation Report, its integration into the clinical evaluation and the questions a reviewer is likely to ask influence protocol, data and analysis decisions from the first design discussion.

12clinical investigations where Eclevar is CRO of record
30+clinical evidence programs delivered
2,000+participants across delivered programs
6jurisdictions where Eclevar has prepared and filed submissions in-house

Submissions to competent authorities and ethics committees are prepared and filed in-house, in France, the United Kingdom, Germany, Italy, Spain and Denmark. See selected clinical investigation programs.

The first decision

When Is a Medical Device Clinical Investigation the Right Evidence Pathway?

A clinical investigation is one evidence route among several. It is the right one when nothing else can answer the question, and an expensive one when another source could have answered it faster.

An investigation is usually indicated when

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  • existing clinical evidence does not sufficiently support safety, clinical performance or clinical benefit;
  • the device introduces novel technology, materials, procedures or intended uses;
  • equivalence cannot be adequately demonstrated or documented;
  • a new or higher-risk device requires direct clinical evidence;
  • the available data do not represent the intended population or conditions of use;
  • objective performance, imaging or procedural evidence must be collected prospectively;
  • comparative evidence against an alternative treatment is required;
  • reimbursement or market-access decisions require evidence that routine data cannot provide;
  • long-term implant performance or a specific safety question requires structured follow-up;
  • the evidence cannot be obtained reliably from routine records or an existing registry.

What Eclevar assesses before recommending one

Eclevar first tests whether another route, or a combination of routes, could meet the evidence need:

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  • a pre-market or post-market clinical investigation;
  • a post-market clinical follow-up (PMCF) investigation under the CE-marked intended purpose;
  • a prospective registry;
  • a retrospective or hybrid study;
  • appraisal of existing clinical data and literature;
  • linkage to national databases or established registries;
  • a sequenced combination of these sources across pre-market and post-market phases.

A clinical investigation should be selected because it is capable of answering the evidence question, not simply because it appears to be the expected regulatory route.

Investigation models

Choosing the Right Investigation Pathway

Terminology varies between jurisdictions and programs. What matters is the decision each model is capable of answering.

Investigation strategy

Which clinical investigation pathway fits the evidence decision?

No model is universally superior. Each one answers a different question, carries a different design emphasis and fails in a different way.

  1. Pathway 1

    First-in-human investigation

    Main decision
    Can initial clinical safety, procedural feasibility and early performance be evaluated in humans?
    Design emphasis
    Tightly defined population, selected operators, staged escalation, intensive safety oversight.
    Principal delivery risk
    Very few qualified centers and highly selective, slow enrollment.
    Intended evidence use
    Internal go or no-go, procedural refinement, design input to later investigations.
  2. Pathway 2

    Early feasibility or pilot investigation

    Main decision
    Which procedure, endpoints and delivery assumptions should the pivotal design be built on?
    Design emphasis
    Exploratory endpoints, device usability, operator learning, iterative protocol refinement.
    Principal delivery risk
    Learning effects and a small early sample distort later assumptions.
    Intended evidence use
    Pivotal protocol design, endpoint feasibility, operational planning assumptions.
  3. Pathway 3

    Pivotal clinical investigation

    Main decision
    Is the evidence sufficient to support safety, performance and clinical benefit?
    Design emphasis
    Predefined primary endpoint, comparator or control, analysis populations and statistical design.
    Principal delivery risk
    Evidentiary sufficiency challenged late, and recruitment spread across a multicenter network.
    Intended evidence use
    Conformity assessment, clinical evaluation, support for intended claims and scientific publication.
  4. Pathway 4

    Comparative or reimbursement investigation

    Main decision
    What comparative clinical and economic evidence is needed to inform coverage, funding or reimbursement decisions?
    Design emphasis
    Relevant comparator, standard of care, quality of life, resource use, follow-up horizon.
    Principal delivery risk
    Comparator availability and national treatment pathways differ between countries.
    Intended evidence use
    Health technology assessment, payer discussions, health-economic modeling.
  5. Pathway 5

    PMCF clinical investigation

    Main decision
    What post-market clinical evidence is needed to confirm safety and performance, address residual evidence gaps and monitor emerging risks?
    Design emphasis
    Routine clinical use, long-term follow-up, pragmatic data collection, residual risk.
    Principal delivery risk
    Site burden inside routine care, and follow-up loss over long horizons.
    Intended evidence use
    PMCF Evaluation Report, clinical evaluation updates and post-market surveillance documentation.

The appropriate pathway is defined by the decision the evidence must support, not by the study label alone.

Five clinical investigation pathways presented as equal options: first-in-human, early feasibility or pilot, pivotal, comparative or reimbursement, and PMCF clinical investigation. Each is described by the main decision it answers, its design emphasis, its principal delivery risk and the intended use of the evidence it produces. No sample sizes or timelines are shown.

Request a Scoping Workshop

Stage 02 of the lifecycle

Clinical and Regulatory Strategy

Before the protocol is written, Eclevar defines the decision the investigation must support and tests whether the proposed study can generate suitable evidence.

What the strategy stage covers

  • Device, intended purpose and development stage
  • Clinical evidence-gap assessment against the claims and the risk profile
  • Intended use of the evidence and proposed claims
  • Investigation model, and comparison with registry and other evidence routes
  • Regulatory and ethics route, including authority interaction where applicable
  • Countries and evidence sequencing across pre-market and post-market phases
  • Connection to the clinical evaluation, risk management and PMCF
  • Initial assumptions, timeline and budget architecture

Why it is done first

Most of the cost is committed in the weeks after the design is agreed, when sites are contracted, systems are built and submissions are prepared. After that, changing the endpoint, the population or the comparator is expensive and sometimes impossible without restarting.

The strategy stage exists so that the expensive decisions are taken while they are still cheap to take. It produces a documented rationale for the model, the countries, the endpoints and the sequencing, the assumptions on which the budget rests, and a plain statement of what the investigation will not be able to demonstrate.

Sponsor outcome: a defensible investigation concept before significant operational budget is committed.

Discuss Your Evidence Strategy

Stage 03 of the lifecycle

Protocol and Endpoint Design

Protocol development is not a writing exercise. It is where the clinical pathway, the statistics and the final report are either connected or permanently disconnected.

Protocol and endpoint design

Design the protocol around the final evidence decision

The protocol connects what is already known about the device with the evidence the program must generate. Working backwards from the intended decision clarifies the endpoint, follow-up and data requirements.

Decision inputs

Intended purpose

Device and procedure

Existing clinical evidence

Evidence gap

Proposed claims

Benefit-risk questions

Regulatory or reimbursement decision

Study design

The protocol

Twelve design decisions, each traceable to an input and to an output.

Population and comparison

Target population Comparator or control Follow-up schedule

Endpoints and safety

Primary endpoint Secondary endpoints Safety framework Clinical benefit Imaging or objective assessment

Statistics

Analysis populations Sample-size rationale Statistical analysis Missing-data strategy

Evidence outputs

Safety evidence

Clinical performance

Clinical benefit

Comparative evidence

Health-economic evidence

Clinical Investigation Report and summary

CER integration

PMCF implications

Scientific communications and publications

Endpoints should be selected for the decision they must support, not because they are commonly used in the therapeutic area.

Three-part protocol architecture. On the left, seven decision inputs: intended purpose, device and procedure, existing clinical evidence, evidence gap, proposed claims, benefit-risk questions and the regulatory or reimbursement decision. In the center, the protocol groups twelve design decisions under population and comparison, endpoints and safety, and statistics. On the right, nine evidence outputs from safety evidence and clinical performance through to the Clinical Investigation Report and summary, CER integration and scientific publication.

Endpoint frameworks are selected device by device and procedure by procedure. In structural heart, for example, VARC-3 definitions apply to transcatheter aortic valve replacement, while MVARC and TVARC definitions apply to transcatheter mitral and tricuspid interventions respectively. Eclevar does not represent that any regulator or Notified Body will accept a given endpoint; it documents the rationale so the choice can be defended.

Stage 04 of the lifecycle

Feasibility and Site Selection

The stage where the recruitment plan is either tested or assumed, before the study budget is committed to a country and site strategy.

Feasibility and site strategy

From interested investigators to a deliverable site network

Feasibility is an assessment of evidence and delivery capacity. It is not a list of investigators who replied enthusiastically to a questionnaire.

  1. Stage 1

    Country screen

    Can this country deliver the evidence at all?

    • Regulatory and ethics pathway
    • Target-population access
    • Treatment pathway
    • Comparator availability
    • Country and site cost assumptions
    • Contracting environment
    • Clinical infrastructure
  2. Stage 2

    Site longlist

    Which centers treat this population with this technology today?

    • Investigator experience
    • Device and procedure experience
    • Competing studies
    • Annual patient volume
    • Referral network
    • Imaging and laboratory capability
  3. Stage 3

    Detailed feasibility

    How many eligible participants will actually be enrolled and followed?

    • Eligible participants actually available
    • Defensible monthly recruitment estimate
    • Follow-up capacity
    • Study-team resources
    • Data-entry capacity
    • Source data quality
    • Site budget expectations
  4. Stage 4

    Qualification

    Is the site operationally ready to run this protocol?

    • Facilities
    • Essential personnel
    • Equipment
    • Documentation
    • Operational readiness
    • Study-specific risks
  5. Stage 5

    Delivery network

    Three separate decisions, documented and revisited during conduct.

    Selected active sites

    Contracted, activated and carrying the recruitment plan.

    Reserve sites

    Qualified and held ready to activate if recruitment slips.

    Excluded or deferred

    Not selected, with the rationale documented for future re-evaluation.

Common feasibility assumptions to challenge

  • Over-optimistic recruitment assumptions
  • Investigator overcommitment
  • Missing imaging capability
  • Slow contracting
  • Insufficient follow-up capacity
  • Insufficient source data quality

Site enthusiasm is not evidence of recruitment feasibility.

A five-stage narrowing feasibility pathway: country screen, site longlist, detailed feasibility, qualification and delivery network. Each stage lists the criteria assessed, and the final stage separates selected active sites, reserve sites, and excluded or deferred sites. A closing row names six common feasibility assumptions to challenge, from over-optimistic recruitment assumptions to insufficient source data quality.

Sponsor outcome: a site and country strategy built on assessed delivery capacity.

Request a Clinical Investigation Feasibility Assessment

Stage 05 of the lifecycle

Study Start-Up and Site Activation

Regulatory or ethics authorization alone does not activate a site. Three tracks run in parallel, and the slowest incomplete requirement sets the activation date.

Regulatory and ethics

See the detail
  • Essential document planning
  • Competent-authority application or notification
  • Ethics submission and decision
  • Responses to authority and ethics questions
  • Informed-consent documentation, insurance and indemnity

Contracting and sites

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  • Investigator agreements
  • Clinical investigation or site agreements and budgets
  • Site personnel identification and training
  • Site initiation visits
  • Documented activation criteria and activation tracking

Systems, vendors and logistics

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  • Vendor and central-service mobilization
  • Database and electronic case report form (eCRF) testing and release readiness
  • Randomization or allocation systems where needed
  • Imaging and adjudication readiness
  • Study product and device logistics
  • Regulatory and ethics
  • Contracts and budgets
  • Data and systems
  • Vendors and central services
  • Device logistics
  • Site readiness

Site activatedAll requirements complete against the approved site-activation criteria

Site ready for first participant enrollment

See the complete site-activation workstreams

Study start-up

Parallel workstreams converge on site activation

Regulatory or ethics authorization alone does not activate a site. Six workstreams run in parallel, and the slowest incomplete requirement determines when enrollment can begin.

  1. Stream 1

    Regulatory and ethics

    • Investigation classification
    • Competent-authority application or notification
    • Ethics submission and decision
    • Questions and responses
    • Required authorizations and ethics decisions
  2. Stream 2

    Contracts and budgets

    • Confidentiality
    • Clinical investigation or site agreement
    • Site budget
    • Insurance and indemnity
    • Final execution
  3. Stream 3

    Data and systems

    • eCRF
    • Database
    • Edit checks
    • User access
    • System testing and release readiness
  4. Stream 4

    Vendors and central services

    • Imaging core laboratory
    • Adjudication
    • Laboratory
    • eCOA
    • Randomization where applicable
  5. Stream 5

    Device and study logistics

    • Device availability
    • Storage
    • Accountability
    • Training materials
    • Shipment readiness
  6. Stream 6

    Site readiness

    • Essential documents
    • Investigator training
    • Study-team training
    • Site initiation
    • Activation checklist

Site activated

All six workstreams complete against the approved site-activation criteria

Site ready for first participant enrollment

A site is activated only when every critical regulatory, contractual, technical and operational requirement is ready.

Six parallel start-up workstreams converge on a single activation gate: regulatory and ethics, contracts and budgets, data and systems, vendors and central services, device and study logistics, and site readiness. Each stream lists five deliverables. When all six are complete against the approved site-activation criteria, the site is activated and ready for first participant enrollment.
Stage 06 of the lifecycle

Monitoring and Site Management

Monitoring visits are an activity. Program management is the service: keeping recruitment, data quality, safety and site relationships within the range where the investigation can still answer its question.

Monitoring model

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  • Monitoring strategy and monitoring plan
  • Risk-based monitoring with defined critical data and processes
  • Central, remote and on-site monitoring
  • Source data review and verification
  • Informed-consent and protocol-compliance oversight

Program indicators

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  • Safety and device deficiency review
  • Recruitment tracking against the plan
  • Retention and follow-up completeness
  • Query aging and missing-data indicators
  • Site-performance thresholds, essential documents and trial master file

Intervention

See the detail
  • Investigator engagement, training and retraining
  • Issue escalation to named leaders
  • Corrective and preventive action
  • Reserve-site activation
  • Close-out readiness

Monitoring should focus on the data and processes that determine whether the investigation can answer its primary evidence question.

Intensity is adapted to device risk, design, endpoints, data criticality and site performance. Risk-based monitoring directs oversight where it changes the reliability of the result. It does not mean less oversight.

Connected functions

Clinical Operations Connected to Data, Biometrics and Safety

Clinical data management and biostatistics have their own service pillar, but they are not a separate delivery stream: the people designing the database work within the same program governance as the teams running the sites.

Data

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  • eCRF and database design
  • Data-management planning and edit checks
  • Medical coding and query management
  • Device and procedure traceability
  • Imaging and electronic clinical outcome assessment (eCOA) integration

Safety

See the detail
  • Safety-data reconciliation
  • Device-deficiency management
  • Adverse event coding and review
  • Central data review across sites
  • Reporting obligations tracked with the clinical team

Biometrics

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  • Statistical analysis planning
  • Database lock readiness
  • Analysis-ready datasets
  • Statistical outputs for the report
  • Sensitivity and subgroup analyses

Milo Studio, Eclevar’s clinical data environment, provides a connected environment for electronic data capture, electronic clinical outcome assessment and central data review, operated by the same delivery team. It is designed to support the workflow described above. Related capability: Clinical data management.

Stage 07 of the lifecycle

Clinical Investigation Reporting

Reporting begins during study design. The structure of the report, the analyses it will contain and the questions it must answer are defined before the first participant is enrolled, not after database lock.

Through the study

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  • Reporting strategy defined at design stage
  • Interim analyses and reports where applicable
  • Database lock documentation
  • Statistical outputs, imaging and adjudication results
  • Protocol deviations documented as they occur

In the report

See the detail
  • The Clinical Investigation Report and summary
  • Clinical interpretation of the results
  • Safety and device deficiency summaries
  • Subgroup and sensitivity analyses
  • Explicit documentation of data limitations

After the report

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  • Integration with the clinical evaluation report
  • PMCF and post-market implications, including the questions follow-up must now answer
  • Scientific abstracts, posters and manuscripts
  • Responses to reviewer or authority questions

A well-run investigation can still lose regulatory value if its final analysis and report do not clearly answer the original evidence question.

Sponsor outcome: a traceable, clinically interpretable evidence package aligned with its intended regulatory, reimbursement or scientific use.

Related capability: Medical Writing and Regulatory Defense.

The delivery model

One Accountable Delivery Model Across the Clinical-Investigation Lifecycle

Seven stages, one line of accountability: the objective set at stage one is what the report is measured against at stage seven.

  1. 01Evidence objectiveThe decision the evidence must support
  2. 02Strategy and regulatory pathwayModel, countries, sequencing
  3. 03Protocol, endpoints and statisticsDesign that can be executed
  4. 04Feasibility and site selectionTested recruitment capacity
  5. 05Start-up and activationSubmissions, contracts, systems
  6. 06Conduct, monitoring and data oversightProgram kept within range
  7. 07Analysis, reporting and evidence integrationThe answer, documented

Connected functions across all seven stages

  • Therapeutic leadership
  • Regulatory strategy
  • Clinical operations
  • Data management
  • Biostatistics
  • Safety oversight
  • Medical writing
  • Quality assurance
Selected programs

Selected Clinical-Investigation Programs

Programs named below are published with client agreement. Status labels describe each program at the date of publication and imply no regulatory outcome.

Clinical Investigation Meril Life Sciences Structural heart · Comparative transcatheter aortic valve program · United Kingdom Ongoing program · Currently enrolling

Comparative transcatheter aortic valve evidence across three contemporary platforms

Diagram of the comparative program: three transcatheter heart valve platforms, Myval from Meril Life Sciences, SAPIEN from Edwards Lifesciences and EVOLUT from Medtronic, evaluated within one prospective randomized United Kingdom study, with comparative 30-day evidence covering quality of life, clinical and safety outcomes, echocardiographic outcomes and health-economic analysis.
Comparative evidence generation across the Myval, SAPIEN and EVOLUT transcatheter valve platforms within one prospective randomized United Kingdom study.

The evidence challenge

Adoption and funding decisions for transcatheter aortic valve implantation increasingly require comparative clinical, imaging and health-economic evidence generated within the local health system, because such data transfer poorly between jurisdictions.

Study design

A prospective randomized multicenter clinical investigation across United Kingdom cardiac centers, comparing three contemporary transcatheter heart valve platforms, with a target enrollment of 666 participants, standardized imaging assessment, VARC-3 endpoint definitions and health-economic data collection.

Eclevar’s role

  • Clinical and regulatory strategy support
  • Regulatory and ethics submissions, prepared in-house
  • Site activation and multicenter program management
  • Monitoring, data management and biometrics
  • Reporting architecture and evidence integration planning

Operational complexity

Randomization across three device platforms in interventional cardiology centers, with standardized imaging at every visit, independent endpoint adjudication and health-economic capture running alongside routine clinical workflow.

Intended evidence output

A comparative clinical, safety, imaging and health-economic dataset intended to support reimbursement and market-access discussion in the United Kingdom, and to feed the sponsor’s clinical evaluation and post-market documentation.

Sponsor value

One organization accountable for the comparative design, the regulatory route, the participating centers, the imaging and adjudication chain and the final analysis, so that the evidence matches the access decision it was commissioned to inform.

The program is in progress and currently enrolling. No comparative result, clinical superiority, conformity assessment outcome or reimbursement decision is claimed or implied. Third-party manufacturer names, where used, identify the device platforms under evaluation and do not indicate any endorsement or association.

Clinical Investigation JRI Orthopaedics Orthopedics · Ceramic hip resurfacing system · Pre-market clinical investigation Two-part investigation · In progress

A two-part clinical-investigation architecture for a hip resurfacing system

The ceramic hip resurfacing system: a porous-coated acetabular component and a ceramic femoral cap with a short central peg.
Ceramic hip resurfacing system. The device is developed and owned by JRI Orthopaedics.

The evidence challenge

An innovative resurfacing implant has to demonstrate early safety and performance quickly enough to support development decisions, while committing to the long-term follow-up that joint replacement evidence requires.

Study design

A two-part architecture. Part one addresses early safety and performance. Part two addresses long-term clinical performance and implant survivorship, with a registry-informed external comparator strategy and longitudinal radiographic follow-up.

Eclevar’s contribution

  • Clinical investigation strategy and synopsis development
  • Objective and endpoint architecture across both parts
  • Long-term follow-up and visit planning
  • Imaging and radiostereometric assessment planning
  • Patient-reported outcome integration and electronic capture
  • Statistical methodology, including survivorship analysis and sensitivity planning

Operational complexity

Two linked evidence streams with different time horizons, imaging that must stay comparable over years rather than months, electronically collected patient-reported outcomes, and an external comparator strategy defined before the first analysis.

Intended evidence output

An integrated evidence program covering imaging follow-up, patient-reported outcomes and function, safety and revision events, and long-term survivorship, designed to support clinical evaluation and post-market clinical follow-up.

Sponsor value

An evidence architecture designed once, for both the near-term development decision and the long-term performance question, rather than a short study followed by an attempt to reconstruct comparability years later.

Scope: this is an ongoing pre-market clinical investigation of a device developed and owned by JRI Orthopaedics. Eclevar contributed to the evidence architecture, the follow-up plan and the statistical methodology. Eclevar did not sponsor the investigation, did not recruit participants and did not conduct all operational activities. Assessments described here were designed, not performed by Eclevar. No clinical result, non-inferiority conclusion or regulatory decision is claimed. Participating institutions and cohort sizes are not disclosed.

Clinical Investigation Coloplast A/S Continence care · Compact intermittent catheter · Three European countries Pre-market clinical investigation · Completed

Clinical investigation architecture for a new compact intermittent catheter

A randomized, open-label crossover investigation in adult female intermittent catheter users.

Program diagram: a category-level illustration of a compact single-use intermittent catheter in closed and extended states, an objective bladder-emptying measurement curve, a randomized crossover sequence across four site visits, and the crossover investigation architecture comparing the new compact intermittent catheter with CE-marked comparator catheters across four evidence domains, supporting EU MDR clinical evaluation and pre-market conformity assessment.
The catheter illustration is category-level and is not a depiction of a Coloplast device or of proprietary device geometry.

The evidence challenge

Evaluate a non-CE-marked investigational catheter against marketed comparators on an objective bladder-emptying endpoint that depends on catheterization technique, on whether the catheterization is performed by a nurse or by the participant, and on four weeks of unsupervised use at home.

Study design

A multicenter, randomized, open-label crossover investigation with 72 planned participants across three European countries, four site visits per participant and two home-use test periods of two weeks each, with one marketed comparator allocated per participant by randomization and an identical assessment schedule in both periods.

Eclevar’s contribution

  • Clinical investigation strategy and synopsis
  • Crossover design, randomization and sequence allocation
  • Country strategy and site feasibility
  • Regulatory and ethics submissions per country
  • Clinical operations, monitoring and site training
  • Standardized measurement and data capture in Milo
  • Statistical analysis plan and missing-data handling

Operational complexity

  • Two marketed comparators randomized across participants
  • Measurement performed by professionals and by participants
  • Test periods conducted outside clinical supervision
  • Three jurisdictions with different national requirements
  • Crossover period and carry-over considerations
  • Participant-reported perception in a sensitive care setting

Intended evidence output

Evidence across four domains, bladder-emptying performance, safety and device deficiencies, catheter perception and handling, and home-use experience, supporting EU MDR clinical evaluation and pre-market conformity assessment.

Sponsor value

A crossover design executed identically in three jurisdictions, with the objective endpoint measured consistently whether the catheterization is performed by a professional or by the participant at home.

Registration
NCT05814211
Sponsor protocol
CP348
Design
Multicenter, randomized, open-label, crossover
Status
Completed

Pre-market clinical investigation. The devices are developed and owned by Coloplast A/S. Design, registration and scale details are taken from the public clinical trial registration and the registered clinical investigation plan. Assessments are described as designed, not as completed, and the planned participant number is the number stated in the registered plan. Eclevar contributed to clinical evidence architecture, European delivery and statistical methodology, and did not develop, manufacture or own the devices. No clinical outcome, comparative claim, superiority conclusion, performance claim or regulatory decision is stated or implied, and no endorsement of Eclevar by Coloplast is implied. Manufacturer names and trademarks are used solely to identify the sponsor of the investigation. Participating institutions and investigators are withheld. See further client programs.

Therapeutic fit

Clinical Investigations Designed Around the Device and Specialty

Eclevar does not claim equal depth in every specialty. The areas below are where clinical leadership, delivery experience and site relationships are strongest.

Cardiovascular and structural heart

Devices, design focus and complexity
Devices
Transcatheter valves, structural heart implants, vascular grafts and patches, implantable ports, cardiac surgery devices, endovascular systems.
Design focus
Procedure-defined populations, imaging protocols, independent adjudication, long follow-up.
Complexity
Standardized imaging at every visit, device-specific endpoint frameworks, high-acuity centers.

Cardiovascular and structural heart CRO services

Orthopedics, spine and surgical robotics

Devices, design focus and complexity
Devices
Joint replacement and resurfacing implants, spinal implants, trauma fixation, navigation and robotic systems.
Design focus
Survivorship, radiographic follow-up, learning curves and human factors, patient-reported outcomes.
Complexity
Long follow-up horizons, external comparators, software and algorithm traceability.

Orthopedic, spine and surgical robotics CRO services

Advanced wound care

Devices, design focus and complexity
Devices
Dressings and interactive wound devices, autologous preparations, adjunct therapies.
Design focus
Indication-specific endpoint domains for diabetic foot ulcers, venous leg ulcers and other wound types, with background standard of care controlled.
Complexity
Wound imaging consistency, concomitant treatment capture, community and hospital pathways.

Advanced wound care CRO services

Neuromodulation and active implantable devices

Devices, design focus and complexity
Devices
Spinal cord, deep brain, vagus nerve, sacral and peripheral neurostimulation systems and other active implantables.
Design focus
Responder definitions, programming variables, blinding feasibility, implanting-center qualification.
Complexity
Multi-variable therapy settings, long-term device performance, specialized implanting centers.

Neuromodulation and neurology CRO services

Digital health, SaMD and connected devices

Devices, design focus and complexity
Devices
Software as a medical device, algorithm-driven diagnostic support, connected and monitoring devices.
Design focus
Reference standard definition, clinical validation strategy, version traceability across the study.
Complexity
Software changes during conduct, data provenance, human factors in real workflow.

Pillar page in preparation. Discuss a SaMD evidence program.

Other complex Class IIb and Class III devices

Devices, design focus and complexity
Devices
Urology and continence care, neurological diagnostic systems, dental devices and other high-risk technologies.
Design focus
User-centered comparative designs, objective measurement, small or fragmented populations.
Complexity
Crossover and within-participant designs, multicountry consistency, specialist referral pathways.

See programs across these device categories

Accountability

The Leadership Behind Eclevar’s Clinical Investigations

Named leaders across the United Kingdom, France, the DACH region and the United States stay involved from strategy through site delivery, analysis and reporting.

Portrait of Dr Mark Da Costa

Dr Mark Da Costa

Chief Operating Officer and Head of Cardiovascular

Mark leads Eclevar’s cardiovascular clinical and regulatory strategy, combining 25 years of Consultant Cardiac Surgery experience with first-hand senior Notified Body leadership experience as a former TÜV SÜD Team Leader and Senior Clinical Reviewer.

  • Former Notified Body leadership
  • Cardiac surgeon
Portrait of Dr Nikhil Khadabadi

Dr Nikhil Khadabadi

Chief Medical Officer, Orthopedics and Spine

A practicing NHS orthopedic surgeon and former TÜV SÜD Senior Reviewer, Nikhil leads investigation design for Class III implantables across orthopedics, spine and surgical robotics, where survivorship, imaging and learning-curve considerations determine the study design.

  • Former Notified Body reviewer
  • Orthopedic surgeon
Portrait of Susanne Höfer

Susanne Höfer

Head of Clinical Operations, DACH Region

Susanne leads clinical operations in the DACH region, covering site identification and qualification, activation, monitoring oversight and investigator relationships in German-speaking centers.

  • Germany, Austria and Switzerland
Portrait of Dawn Heimer, PhD

Dawn Heimer, PhD

Strategic Clinical Advisor, United States

Provides strategic input on U.S. medical-device clinical operations, regulatory considerations and real-world evidence programs.

  • United States
Portrait of Pierre-Marie Boutanquoi

Pierre-Marie Boutanquoi

Head of Medical Writing

Pierre-Marie owns the written evidence chain: protocols, the Clinical Investigation Report and summary, integration into the clinical evaluation, PMCF documentation and structured responses to reviewer and authority questions.

  • Medical writing, France
Portrait of Sébastien Meier Piantanida

Sébastien Meier Piantanida

Chief Data Officer

Sébastien owns data strategy, EDC and eCOA architecture, data management standards, biometrics and the production of analysis-ready datasets, so that the analysis planned at design stage is the analysis that can actually be run.

  • International data and biometrics
Portrait of Charline Petitdemange

Program delivery accountability

Charline Petitdemange Project Lead Program mobilization and cross-functional delivery

Former positions are stated for biographical context only. Eclevar MedTech is independent and is not affiliated with or endorsed by TÜV SÜD. Notified Body review experience is a professional background, not a medical qualification, and the two are stated separately above. See the full executive team.

How an engagement begins

Start With a Clinical Investigation Scoping Workshop

A precise full-service proposal depends on a defined study concept. Where the concept and its assumptions are not yet settled, the workshop is the fastest way to reach one.

What the workshop assesses

  • Device and development stage
  • Intended purpose and target population
  • Existing clinical evidence
  • The evidence gap
  • The regulatory or commercial decision at stake
  • Proposed claims
  • Investigation model
  • Comparator
  • Candidate endpoints
  • Countries and candidate sites
  • Recruitment assumptions
  • Follow-up duration
  • Data and imaging requirements
  • Regulatory and ethics pathway
  • Indicative timeline
  • Major cost drivers
  • Principal delivery risks

What you receive

A written summary of the recommended investigation model and the reasoning behind it, the countries and site strategy, the endpoint and follow-up architecture, the assumptions the budget will rest on, and the delivery risks that need a decision before a proposal is issued.

Where the assessment indicates that a registry, a retrospective study or an appraisal of existing data would answer the question more efficiently, that is what the summary will say.

Request a Clinical Investigation Scoping Workshop

Questions sponsors ask

Clinical Investigation Questions From Medical-Device Sponsors

When is a clinical investigation required under the EU MDR?

The EU MDR requires clinical investigations where the available clinical data are not sufficient to demonstrate conformity with the relevant general safety and performance requirements. In practice this usually applies to implantable and class III devices under Article 61(4), and to any device where equivalence cannot be adequately demonstrated, where the technology or intended purpose is novel, or where the existing data do not represent the intended population or conditions of use. The decision is specific to the device, the claims and the existing evidence, and is taken together with the clinical evaluation plan.

What is the difference between a clinical investigation and a PMCF study?

A clinical investigation generates clinical data for a device that is under investigation, most often before conformity assessment or before an extension of the intended purpose. A post-market clinical follow-up study generates data for a device already placed on the market under its CE-marked intended purpose, in order to confirm safety and performance, address residual risks and answer questions raised in the clinical evaluation. A PMCF activity can itself take the form of a clinical investigation, so what decides the requirements is the regulatory pathway and the evidence question, not the label.

Can Eclevar manage a complete multicountry investigation?

Yes. Eclevar delivers complete clinical investigations: strategy, protocol and statistical design, site contracting and activation, monitoring, data management, biometrics, safety oversight and final reporting. Regulatory and ethics submissions are prepared and filed in-house rather than subcontracted, in France, the United Kingdom, Germany, Italy, Spain and Denmark.

How are countries and sites selected?

Country selection follows the regulatory pathway, the clinical pathway and standard of care, comparator availability, reimbursement context and realistic recruitment capacity. Site selection follows documented feasibility: eligible patient flow, competing studies, investigator and device experience, research infrastructure, imaging and laboratory capability, data entry capacity and submission readiness. Sites are recommended on assessed delivery capacity, with a reserve site strategy defined at the same time.

What information is needed before a clinical-investigation budget can be prepared?

As a minimum: the device and its development stage, the intended purpose and target population, the existing evidence and the identified gap, the decision the evidence must support, the proposed claims, the comparator, the candidate endpoints and follow-up duration, the countries under consideration and any imaging or central assessment requirements. Where these are not yet defined, a scoping workshop reaches a reliable proposal faster than an exchange of assumptions.

How long does study start-up take?

Start-up duration depends on the countries selected, the regulatory route, the completeness of the technical and clinical documentation, contracting complexity and site readiness, so a single figure would be misleading. Eclevar builds the start-up plan country by country and site by site, states the assumptions behind each milestone, and tracks activation against documented readiness criteria, not contract signature.

What affects the cost of a medical-device clinical investigation?

The principal cost drivers are the number of participants, sites and countries with their regulatory routes, follow-up duration and visit burden, the monitoring model and source data verification intensity, imaging and central assessment, endpoint adjudication, the comparator, device logistics and the scope of statistical and medical writing deliverables. Design decisions taken early, particularly on endpoints and follow-up, usually influence cost more than unit rates.

What is included in clinical monitoring?

A monitoring strategy defining central, remote and on-site activity, source data review and verification proportionate to data criticality, informed consent review, protocol compliance oversight, safety and device deficiency review, recruitment and retention tracking, data quality indicators, investigator engagement, issue escalation and corrective actions, essential document and trial master file oversight, and close-out readiness.

More clinical investigation questions
Can Eclevar take over an ongoing or underperforming investigation?

Yes. A transfer begins with an assessment of the protocol and its evidence question, recruitment performance, data quality and outstanding queries, safety and device deficiency handling, essential documents and trial master file completeness, and site relationships. Eclevar then proposes a remediation plan stating what can realistically be recovered, what requires a protocol or statistical amendment, and what will remain a documented limitation of the dataset.

What is included in a Clinical Investigation Report?

The report presents the investigation as conducted rather than as planned: objectives and design, participant disposition and baseline characteristics, exposure, endpoint results, safety and device deficiency summaries, protocol deviations, subgroup and sensitivity analyses, imaging and adjudication outputs where applicable, clinical interpretation, limitations and conclusions, with the statistical outputs and appendices. It is written to be read alongside the clinical evaluation report and the post-market documentation.

Can the investigation also collect reimbursement or health-economic evidence?

Yes, provided the requirement is identified during design. Resource use, procedure and length-of-stay data, quality-of-life instruments and other health-economic measures have to be built into the schedule of assessments, the case report form and the statistical analysis plan from the beginning. Adding them after database lock is rarely possible, so market access requirements belong in the strategy discussion.

How does clinical-investigation evidence feed into the CER and PMCF?

Investigation results are appraised alongside literature and other clinical data in the clinical evaluation, contribute to the benefit-risk determination for the intended purpose, and inform the post-market clinical follow-up plan by identifying the residual questions that follow-up must answer. Designing for that integration keeps endpoints, definitions and populations consistent across the clinical evaluation report, the PMCF plan and any subsequent study.

Clinical Investigation Strategy and Delivery

Define the Evidence Strategy Before Committing the Study Budget

Share the device, development stage, target population, existing evidence and intended regulatory or commercial decision. Eclevar will help determine the appropriate investigation model, countries, sites, endpoints, timeline and principal delivery risks.

Explore Clinical Investigations

Reforming Clinical Evaluation of Medical Devices in Europe