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1
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- Greg Cooper CLS, MHA
- Manager, Clinical Standards and Practices
- Bio-Rad Laboratories
- Quality Systems Division
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2
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- Global community
- Patient mobility
- Need for harmonization of outcomes regardless of testing location
- E.g. diabetes
- E.g. anti-coagulant maintenance
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3
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- Certification
- ISO 17025
- General requirements for the competence of testing and calibration
laboratories
- Verifies that all the components are in place
- Accreditation
- Verifies that all the components are in place and that the laboratory
is competent to perform procedures
- ISO 15189
- Medical Laboratories – Particular requirements for quality and
competence
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4
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- Signatories
- Argentina, Australia, Austria, Belgium
- Brazil, Canada, Chile, China, Czech Republic
- Denmark, Finland, France, Germany, Iran, Ireland
- Israel, Italy, Japan, Korea, Luxembourg, Mexico
- The Netherlands, New Zealand, Norway, Portugal, Singapore
- Spain, Sweden, Switzerland, Turkey, United Kingdom, United States
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5
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- Money
- Competitive edge
- Medical tourism
- Thailand – cardiac care, sexual reassignment surgery
- Costa Rica – cosmetic surgery
- Mexico – cancer treatments
- Clinical trials
- Professional benchmarking
- Government requirement
- Tied to reimbursement, not tied to reimbursement
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6
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- European Continent
- ~50% of countries on European continent require laboratory practice
standards
- ~22% considering practice standards
- ~40% see accreditation as a positive
- Only a small percentage are accredited as of 2005
- ~17% require accreditation with enforcement
- North American Continent
- US
- Any location testing human samples for diagnosis, prognosis or
treatment must be accredited privately or by the US Government.
- Unique requirements, not ISO based
- Canada
- One province requires accreditation based on ISO 15189
- Remaining provinces soon
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7
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- Australia/New Zealand
- Labs certified based on ISO 17025
- Will be accredited next 3-5 years based on ISO 15189
- Asia/Pacific
- Emerging interest
- China, India (NABL), Malaysia (MOH), Singapore, Taiwan (MOH), Thailand
(MOH and Med Tech Society)
- Overall theme
- More and more labs see accreditation as a means to be financially and
professionally successful
- Need direction, guidance, advice, education
- Need a economical approach for accreditation
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8
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- COST
- To implement an accredited quality system
- Lack of a phased approach
- Accreditation schemes focus on and are designed for larger facilities
- Participation in EQA (proficiency testing)
- LACK OF MANAGEMENT COMMITMENT
- LACK OF EXPERTISE IN QUALITY SYSTEMS
- LIMITED STAFFING
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9
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- Diagnostic Laboratories Share Many Things in Common
- Technology and Science of Diagnostics: a common denominator
- Resource Limitations
- Financial
- Human (staff turnover)
- Qualified and Trained personnel
- Facility
- Emerging Interest in Quality Systems
- Final CLIA Rule (US) reflects a
quality system format
- ISO 15189
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10
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- Uncommon Characteristics (Country specific)
- Highly trained and educated staff (Masters and PhD)
- UK, Australia, New Zealand, Canada
- “Hang Out A Shingle” laboratory
- Asia-Pacific and China
- US and European trained Medical Technologists and Pathologists
- Specialization
- UK, Australia, New Zealand, Canada
- Focus on robotics and automation
- Direct Access Testing –Predominant
- Decentralized Testing
- Pharmacies – France
- Emergency Care – Much of Europe
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11
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- Currently there is a patchwork of laboratory standards leading to mixed
laboratory outcomes
- While many laboratories worldwide have interest in ISO 15189,
laboratories in the Asia/Pacific region seem to have the most interest.
- It is hoped that all countries will adopt ISO 15189 as the basis for
accreditation
- Accreditation requirements must be enforced by governments or
professional societies
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12
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- Establishment of
Manufacturer’s Recommendations for User Quality Control of in vitro
Diagnostic Devices; Proposed Guideline (EP22)
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13
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- Greg Cooper, Chairholder (Bio-Rad)
- Fred D. Lasky, PhD (Genzyme Diagnostics)
- Dai J. Li, MD, PhD, FACB (FDA Center for Devices and Radiological Health/OIVD)
- George S. Makowski, PhD, DABCC,FACB (University of Connecticut Health
Center)
- James H. Nichols, PhD, DABCC, FACB (Baystate Medical Center)
- Curtis A. Parvin, PhD (Washington University School of Medicine)
- George M. Plummer (Dade Behring, Inc.)
- Adam Manasterski, PhD (Centers for Disease Control and Prevention)
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14
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- Intended for manufacturers of in vitro diagnostic test systems & may
be used by national certifying bodies at their discretion.
- Provides guidance for the establishment of manufacturer’s
recommendations for user quality control for in vitro diagnostic test
systems.
- Provides guidance on the maintenance of & disclosure of information
to users regarding the scope &
effectiveness of recommended QC procedures.
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15
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- This document will be used by IVD manufacturers that choose to include
QC recommendations in their labeling.
- If a manufacturer makes no such recommendation, this document does not
apply.
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16
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- This document will not:
- Address risk mitigation activities that may be performed by clinical
laboratories beyond manufacturer’s recommendations.
- Describe or recommend risk assessment/mitigation procedures to be
performed by IVD manufacturers.
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17
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- This document will not:
- Provide a list of specific validation tests or test types, acceptable
performance limits, or sample sizes needed to support a manufacturer’s
QC recommendations.
- Prescribe specific QC requirements for a laboratory such as QC rules, QC
frequency or QC materials.
- Compare or contrast any alternative QC recommendations to the use
- of traditional QC materials.
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18
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- Three meetings to-date
- Preliminary draft completed 30 June 2006
- Subcommittee finalizing draft via web conferences (July/August)
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19
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- Participant perspectives
- Manufacturers
- Laboratory professionals
- Certifying and regulatory bodies
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20
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