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동의어 포함
Title page 1
Contents 6
Foreword 4
Acknowledgements 5
Executive summary 9
1. EU supply chains of three medical countermeasures 12
1.1. Objectives, selection of case studies, sources and methods 15
1.1.1. Objectives 15
1.1.2. Selection of case studies 15
1.1.3. Overview of sources and methods to identify and analyse supply chains 17
1.2. Case study: Injectable systemic corticosteroids 22
1.2.1. Identification of products and manufacturers selling in the EU/EEA market 22
1.2.2. Demand for injectable corticosteroids in the EU/EEA market 27
1.2.3. Analysis of supply chains for injectable corticosteroids 29
1.2.4. Analysis of shortages 36
1.3. Case study: Influenza vaccines 39
1.3.1. Data sources for monitoring vaccine supply and production capacity 39
1.3.2. Identification of influenza vaccines and manufacturers selling in the EU/EEA market 40
1.3.3. Demand for influenza vaccines in the EU 41
1.3.4. Analysis of influenza vaccine supply chains 44
1.3.5. Analyses of shortages 50
1.4. Case study: PCR tests for influenza 50
1.4.1. Mapping of influenza PCR tests sold in EU Member States 52
1.4.2. Influenza PCR tests identified in the EU market 55
1.4.3. Analysis of the demand for influenza RT-PCR in the EU 56
1.4.4. Supply chains of manufacturers of CE-marked influenza PCR tests 57
1.4.5. Final remarks 64
References 65
Annex 1.A. Detailed overview of data sources investigated 72
Annex 1.B. IQVIA sales data coverage for influenza vaccines 83
Annex 1.C. Manufacturers of CE-marked RT-PCR tests for influenza 85
Annex 1.D. Use of ERVISS Surveillance system to evaluate the use of PCR tests for influenza 95
Annex 1.E. Surveys conducted as part of the study 97
Annex 1.F. Risk class classification for in vitro diagnostics under the IVDR 102
Notes 103
2. Evaluation of existing and potential international co-operation instruments 106
2.1. Identification of international co-operation instruments and evaluation framework 109
2.1.1. Identification of international co-operation instruments 109
2.1.2. Evaluation framework 110
2.1.3. Definition of criteria by objective category 112
2.2. Objective 1: Expanding and diversifying supply chains through international co-operation instruments 115
2.2.1. Impact of trade agreements and investments treaties on expansion of manufacturing capacity and diversification of supply 115
2.2.2. The potential of strategic partnerships 117
2.3. Objective 2: Ensuring continuous and seamless trade of medical supplies and inputs 119
2.3.1. Regulatory harmonisation 119
2.3.2. Reduction or removal of trade barriers through trade agreements 122
2.3.3. Trade facilitation 122
2.4. Objective 3: Managing supply and enhancing security of supply 122
2.5. Evaluation of O.3.1: Information sharing and supply chain monitoring (the "MedMIS" model) 123
2.5.1. Objective, decision context and scope 123
2.5.2. Evidence and lessons from the Agricultural Market Information System (AMIS) 126
2.5.3. Structural feasibility of an AMIS-like system in pharmaceuticals 128
2.5.4. Operational feasibility: Minimum viable dataset and architecture 130
2.5.5. Testing the MedMIS proof-of-concept across tracer product categories 132
2.5.6. Impacts and standards 134
2.5.7. Participation incentives and geopolitical constraints 135
2.5.8. Risks and negative externalities 137
2.5.9. Implementation burden and value-for-money 138
2.5.10. Policy conclusions: Feasibility pre-requisites and operational conditions 139
2.6. Evaluation of O.3.2: Pooled procurement with international partners 142
2.6.1. Objective and rationale 142
2.6.2. Institutional models and global practice 143
2.6.3. Quality assurance, logistics and the "single buyer / single approver" logic 152
2.6.4. Implementation challenges and risks 154
2.6.5. Impacts on consumers, industry and environment 157
2.6.6. Product scope and alignment with the Union list of critical medicines 158
2.6.7. Implementation timeline and critical path 159
2.6.8. Opportunities and strategic value 159
2.7. Evaluation of O.3.3: International co-operation on pooled pharmaceutical reserves 163
2.7.1. Purpose, scope and strategic context 163
2.7.2. Instrument concept 167
2.7.3. Third-country participation tiers: Eligibility, reciprocal commitments and access modalities 170
2.7.4. Stress-testing on tracer archetypes 171
2.7.5. Operating model and design specifications 171
2.7.6. Expected effects 174
2.7.7. Risks: Moral hazard, crowd-out and political rationing 175
2.7.8. Legal architecture and feasibility 176
2.7.9. Impacts on consumers, industry and environment 178
2.7.10. Overall assessment and recommendations 180
2.8. Comparative assessment of the three instruments proposed to manage supply and enhance supply security (Objective 3) 181
References 183
Annex 2.A. Mutual recognition agreements 191
Annex 2.B. MedMIS: Supporting evidence and technical specifications 194
Annex 2.C. MedPPA: Supporting evidence and technical specifications 205
Annex 2.D. RescPool: Supporting evidence and technical specifications 215
Notes 228
3. New technologies and innovations to better monitor medical supply chains and forecast demand 229
3.1. Introduction 231
3.2. Public frameworks 234
3.2.1. EU Falsified Medicines Directive (FMD) 236
3.2.2. The US Drug Supply Chain Security Act (DSCSA) 237
3.2.3. Türkiye's pharmaceutical track-and-trace system (ITS) 238
3.2.4. Canada's community-led DataMatrix initiative 239
3.3. Private initiatives 239
3.3.1. Maersk/IBM 242
3.3.2. Pfizer 242
3.3.3. Johnson & Johnson 244
3.3.4. DHL 244
3.3.5. USP Medicine Supply Map 245
3.4. Key challenges in creating effective monitoring mechanisms for medical supply chains 246
3.4.1. Standardisation and international interoperability 246
3.4.2. Technological compatibility and infrastructure 249
3.4.3. Product and input coverage scope 250
3.4.4. Information requirements and data collection mechanisms 252
3.4.5. Incentives, obligations and public health benefits 254
3.4.6. Data privacy and security concerns 256
3.5. Recommendations for improving medical countermeasures supply chain monitoring and enhancing international co-operation 257
3.5.1. Limits of existing EU monitoring tools for medical countermeasures supply chains 258
3.5.2. Leverage and extend existing frameworks for the early detection of emerging supply chain risks 259
3.5.3. Evaluate alternative system architectures to integrate cross-border data sources 260
3.5.4. Translating signals into operational decision making: Enhancing predictive analytics and demand forecasting 263
3.6. Conclusion on new technologies and innovations to better monitor medical supply chains 264
References 266
Notes 273
Figure 1.1. Sales of injectable corticosteroids in EU/EEA countries, 2024 23
Figure 1.2. Four countries account for most sales of injectable corticosteroids in EU/EEA countries in 2024 28
Figure 1.3. Almost half of manufacturers of corticosteroids API with certification for the EU markets are located in China 31
Figure 1.4. Outsourcing and international sourcing are more common in upstream production stages (six respondents) 32
Figure 1.5. Manufacturers identify sterile production as the supply chain stage most vulnerable to disruption (six respondents) 33
Figure 1.6. Limited manufacturing capacity perceived as the main source of supply chain vulnerability (six respondents) 34
Figure 1.7. API availability and sterile manufacturing capacity are the most frequently mentioned constraints to scaling up production (six respondents) 35
Figure 1.8. Shortage notifications for injectable corticosteroids disproportionately affect some countries, 2019-2025 37
Figure 1.9. Shortages of injectable corticosteroids are most often not EU-wide, 2019-2025 38
Figure 1.10. Two manufacturers account for 80% of doses sold in EU/EEA countries as of 2024 43
Figure 1.11. Schematic of vaccine manufacturing process and supply chain 44
Figure 1.12. EU countries accounted for two-thirds of bulk manufacturing of influenza vaccines sold in EU/EEA in the 2024-2025 season 46
Figure 1.13. Identification of RT-PCR kits for influenza in EUDAMED using EMDN codes 53
Figure 1.14. Identification of RT-PCR kits for influenza in DxConnect by FIND 54
Figure 1.15. Nearly half of companies authorised to sell influenza RT-PCR kits in EU are located in Asia 55
Figure 1.16. Among the six respondents to the survey, EU-based companies accounted for more than 90% of influenza PCR sold in EU in 2023 and 2024 58
Figure 1.17. For five influenza PCR tests, the majority of critical components are not supplied by EU-based companies 59
Figure 1.18. For the small sample of extraction buffers (n=5), the majority of the components are not supplied by EU-based companies 60
Figure 1.19. Number of influenza RT-PCR kits certified by responding notified body 62
Figure 1.20. Geographical market coverage of influenza PCR kits certified by responding notified bodies 62
Figure 1.21. Distribution of finished influenza RT-PCR kits manufacturing sites 63
Figure 1.22. Reported manufacturing site locations by component of influenza RT-PCR kits 64
Figure 2.1. Evaluation framework 110
Figure 2.2. RescPool operational cycle: Preparation, monitoring, activation and replenishment 170
Boxes 20
Box 1.1. Developments in EU regulatory frameworks with relevance to medical countermeasures supply chain monitoring 20
Box 1.2. Injectable corticosteroid manufacturing at a glance 29
Box 1.3. Key findings from a survey of injectable corticosteroid manufacturers (six respondents) 31
Box 1.4. Vaccine supply chains at a glance 44
Box 1.5. Insights from interview with influenza vaccine manufacturer CSL Seqirus 48
Box 1.6. RT-PCR workflow and components of an RT-PCR kit 50
Box 1.7. Key steps in viral acid nucleic extraction prior to RT-PCR testing 52
Box 1.8. Insights from interview with a procurement expert 57
Box 1.9. Risk certification process for IVDs under the IVDR 61
Box 2.1. The Critical Medicines Alliance 112
Box 2.2. Two modes of scarcity: Availability-driven and agency-driven crises 125
Box 2.3. Beyond early warning: How MedMIS could improve allocation of available stock 132
Box 2.4. Pooled procurement under scarcity: Three recurring failure modes 147
Box 2.5. Choosing the "right" reserve modality: A decision heuristic for assigning products to RescPool's hybrid architecture 171
Box 3.1. Digital technologies transforming supply chains 232
Box 3.2. Legacy national verification systems in Belgium, Greece and Italy 236
Box 3.3. Technologies supporting interoperability 243
Box 3.4. Global standards for product identification and tracing 247
Box 3.5. The European Shortages Monitoring Platform 253
Box 3.6. ATHINA: The EU operational platform for medical countermeasures preparedness and response 257
Box 3.7. Calculation of net stocks of medicines using FMD repositories 259
Annex Figure 1.D.1. The number of influenza RT-PCR tests used in EU Member States is difficult to estimate 96
Annex Figure 1.F.1. Risk class classification under the IVDR 102
Annex Figure 2.B.1. The AMIS governance cycle: From routine monitoring to crisis co-ordination 195
Annex Boxes 95
Annex Box 1.D.1. ERVISS Surveillance system types and case definitions 95
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