Cover image for Risk Management Applications in Pharmaceutical and Biopharmaceutical Manufacturing.
Risk Management Applications in Pharmaceutical and Biopharmaceutical Manufacturing.
Title:
Risk Management Applications in Pharmaceutical and Biopharmaceutical Manufacturing.
Author:
Mollah, Hamid.
ISBN:
9781118514375
Personal Author:
Edition:
1st ed.
Physical Description:
1 online resource (426 pages)
Series:
Wiley Series in Biotechnology and Bioengineering ; v.4

Wiley Series in Biotechnology and Bioengineering
Contents:
Risk Management Applications in Pharmaceutical and Biopharmaceutical Manufacturing -- Contents -- Preface -- Contributors -- About the Authors -- 1 Background and Introduction -- 1.1 RISK MANAGEMENT OF PHARMACEUTICAL AND BIOPHARMACEUTICAL MANUFACTURE -- 1.2 A PRACTICAL GUIDE TO RISK MANAGEMENT -- 1.2.1 Additional Points to Consider -- 1.3 OVERVIEW OF THE BOOK -- 1.4 FINAL THOUGHTS -- REFERENCES -- 2 Risk Management Tools -- 2.1 APPLICABILITY -- 2.2 RISK MANAGEMENT -- 2.3 RISK MANAGEMENT PROCESS -- 2.3.1 Risk Assessment -- 2.3.2 Risk Control -- 2.3.3 Risk Review/Communication -- 2.4 RISK ANALYSIS/ASSESSMENT TOOLS -- 2.4.1 Preliminary Hazard Analysis (PHA) -- 2.4.2 Failure Mode Effects Analysis (FMEA) and Failure Mode Effects and Criticality Analysis (FMECA) -- 2.4.3 Hazard and Operability Analysis (HAZOP) -- 2.4.4 Fault Tree Analysis (FTA) -- 2.4.5 Hazard Analysis and Critical Control Point (HACCP) -- 2.4.6 Risk Ranking and Filtering (RRF) -- 2.4.7 Other Risk Analysis Tools -- 2.5 BASIC FACILITATION TOOLS -- 2.5.1 Flowcharts -- 2.5.2 Process Mapping -- 2.5.3 Check Sheets -- 2.5.4 Cause and Effect Diagrams (Fishbone or Ishikawa Diagram) -- 2.5.5 5 Why Analysis -- 2.5.6 Histograms -- 2.5.7 Pareto Analysis -- 2.5.8 Control Charts -- 2.6 COMPARISON OF RISK ASSESSMENT TOOLS -- 2.7 RESIDUAL RISK EVALUATION -- 2.8 SOURCES OF RISK INFORMATION -- 2.9 CONCLUSION -- DEFINITIONS -- ACKNOWLEDGMENT -- REFERENCES -- FURTHER READING -- 3 Risk Management: Regulatory Expectation, Risk Perception, and Organizational Integration -- 3.1 INTRODUCTION -- 3.2 QRM REGULATORY EXPECTATIONS -- 3.2.1 General System Expectations -- 3.2.2 Establishing Risk Communication and Reporting Mechanisms -- 3.2.3 Risk Registers -- 3.2.4 Audit of the Risk Management Systems -- 3.3 PROBLEMS OF SUBJECTIVITY AND UNCERTAINTY DURING QRM EXERCISES.

3.3.1 Cognitive Operations When Assessing Risk: "This is Your Brain on Risk" -- 3.3.2 Perception and Perspectivism -- 3.3.3 Risk's Precautionary Principle -- 3.3.4 Risk Regulation's Unintended Consequence: Asymmetry of Risk Knowledge -- 3.4 INTEGRATION INTO ORGANIZATIONAL PROCESSES -- 3.4.1 Training -- 3.5 CONCLUSION -- REFERENCES -- 4 Statistical Topics and Analysis in Risk Assessment -- 4.1 INTRODUCTION -- 4.2 UNCERTAINTY -- 4.3 LUCK AND PROBABILITY -- 4.4 DEFINITIONS OF PROBABILITY -- 4.5 RULES OF PROBABILITY -- 4.6 CAUTIONS -- 4.7 RISK -- 4.7.1 Venn Diagram -- 4.7.2 Conditional Probability -- 4.8 STATISTICAL RISK -- 4.9 RARE EVENTS -- 4.9.1 Calculating POISSON -- 4.10 COINCIDENCES -- 4.11 ESTIMATING PROBABILITIES -- 4.12 CONCLUSION -- REFERENCES -- FURTHER READING -- 5 Quality by Design -- 5.1 BACKGROUND -- 5.2 DEVELOPMENT OF PRODUCTS USING A QBD APPROACH -- 5.3 MAIN STEPS FOR A QUALITY BY DESIGN APPROACH FOR A NEW PRODUCT -- 5.4 EXAMPLES OF QBD APPROACHES -- 5.5 CONCLUSION -- GLOSSARY AND DEFINITIONS -- REFERENCES -- 6 Process Development and Clinical Product Manufacturing -- 6.1 QUALITY VISION OF PHARMACEUTICAL DEVELOPMENT -- 6.2 BASIS FOR DESIGN-TARGET PRODUCT PROFILE AND PRELIMINARY HAZARD ANALYSIS -- 6.3 PRODUCT CONTROL STRATEGY -- 6.4 USE OF DESIGN OF EXPERIMENT (DOE) TO ELIMINATE AND STUDY (C)PPS AT LABORATORY SCALE -- 6.5 PRECLINICAL STUDIES AND RISK MANAGEMENT FOR FIRST-IN-HUMAN TRIALS -- 6.6 PHASE 1 THROUGH PHASE 3 CLINICAL TRIALS -- 6.7 PRODUCT SPECIFICATION FILE, DEVELOPMENT HISTORY, AND TECHNOLOGY TRANSFER -- 6.8 SUMMARY -- REFERENCES -- 7 Points to Consider for Commissioning and Qualification of Manufacturing Facilities and Equipment -- 7.1 INTRODUCTION AND BACKGROUND -- 7.1.1 Qualification, Risk, and Regulatory Expectations -- 7.1.2 Risk-Based Qualification and Assurance of Quality.

7.1.3 Role of Quality and the Quality Unit in Risk-Based Qualification -- 7.1.4 Role of Commissioning in Risk-Based Qualification -- 7.1.5 Qualification and Risk Management -- 7.2 RISK-BASED QUALIFICATION PLANNING -- 7.2.1 Project Description -- 7.2.2 Project Controls -- 7.2.3 Project Performance Metrics -- 7.2.4 Schedules -- 7.2.5 Program-Level Alignment -- 7.2.6 System Boundaries -- 7.2.7 Leveraging Risk-Based Qualification Information -- 7.2.8 Other Types of Information Leveraging -- 7.2.9 Information Management as a Tool for Risk Management -- 7.3 IMPLEMENTATION -- 7.3.1 Risk-Based Qualification Plan -- 7.3.2 Define which Items to Qualify -- 7.3.3 Linking Product Quality Risk to Qualification Testing -- 7.3.4 Impact Assessment: Deciding What to Qualify -- 7.3.5 System- and Component-Level Impact Assessments -- 7.3.6 System Impact Assessments -- 7.3.7 Component Impact Assessments -- 7.3.8 To What Extent Would it be Qualified? -- 7.3.9 Criticality Analysis -- 7.3.10 Risk Ranking Level of Detail -- 7.3.11 Test Function and Acceptance Criteria -- 7.3.12 Qualification Plan Implementation Notes -- 7.3.13 Risk-Based Design Review -- 7.3.14 Risk of Using Information before Identification of Critical Process Parameters -- 7.3.15 Installation Qualification -- 7.3.16 Operational Qualification -- 7.3.17 Computer System Validation -- 7.3.18 Requalification -- 7.3.19 Performance Qualification: Contamination Control -- 7.3.20 Change Control -- 7.3.21 Failure Investigation -- 7.3.22 Project Close Out -- 7.4 CONCLUSION -- REFERENCES -- 8 Process Lifecycle Validation -- 8.1 INTRODUCTION -- 8.2 REGULATORY GUIDANCE FOR QRM IN PROCESS VALIDATION -- 8.3 TYPICAL QRM TOOLS USED -- 8.4 GENERAL CONSIDERATIONS OF QRM IN PROCESS VALIDATION -- 8.4.1 Process Steps -- 8.4.2 Closeness to Patient -- 8.4.3 Level of Testing and Number of Studies -- 8.4.4 Validation Approach.

8.5 CHALLENGES IN USING RISK-BASED VALIDATION -- 8.6 LIFECYCLE APPROACH -- 8.7 PROCESS DESIGN -- 8.7.1 Risk-Based Study Design -- 8.7.2 Critical Process Parameters -- 8.7.3 Example 1: Defining Controls for Tablet Compression/Coating Process -- 8.7.4 Example 2: Mixing Study for Solutions and Product Pool -- 8.7.5 Example 3: Hold Times Study for Solutions and Product Pool -- 8.7.6 Risk Prioritization in Large-Scale Experiments -- 8.8 PROCESS PERFORMANCE QUALIFICATION -- 8.8.1 Technology Transfer -- 8.8.2 Example 4: QRM Application for Multiproduct Operations -- 8.9 CONTINUED PROCESS VERIFICATION -- 8.9.1 Determining the Significance of a Process Change -- 8.9.2 Defining a Periodic Review Schedule of Validated Process/Systems -- 8.10 CLEANING VALIDATION AND CROSS CONTAMINATION RISKS -- 8.10.1 Equipment Dirty Hold Time in Cleaning Validation -- 8.11 SUMMARY -- DISCLAIMER -- REFERENCES -- 9 Aseptic Processing: One -- 9.1 INTRODUCTION -- 9.2 ASEPTIC PROCESS DESIGN RESPONSE -- 9.3 RISK ASSESSMENT -- 9.4 RISK MITIGATION -- 9.4.1 Facilities -- 9.4.2 Environment -- 9.4.3 Equipment/Utensils -- 9.4.4 Containers/Closures -- 9.4.5 Product -- 9.4.6 Procedures -- 9.4.7 Personnel -- 9.5 STERILITY (SAFETY) BY DESIGN -- 9.6 CONCLUSION -- REFERENCES -- 10 Aseptic Processing: Two -- 10.1 INTRODUCTION -- 10.2 PATIENT RISK -- 10.3 RISK ASSESSMENT AND RISK MANAGEMENT -- 10.4 MEASURING AND CONTROLLING RISK -- 10.5 ASEPTIC PROCESSING HAZARDS -- 10.5.1 Intrinsic Hazards -- 10.5.2 Extrinsic Hazards -- 10.5.3 Risk of Endotoxin -- 10.6 MODEL FOR MICROBIAL INGRESS -- 10.7 RISK HIERARCHY -- 10.8 QUALITY BY DESIGN, QUANTITATIVE RISK ASSESSMENT, AND PRODUCT DISPOSITION -- 10.8.1 Improving Assessments of Microbial Risks -- 10.8.2 Culture-Based Microbial Test Methods are Inadequate Measurements of Product Quality.

10.8.3 Superior Assurance of Product Quality is Achieved by Quantitative Risk Assessment -- 10.9 FUTURE TRENDS AND THEMES -- REFERENCES -- 11 Pharmaceutical Product Manufacturing -- 11.1 ROLE OF QUALITY RISK MANAGEMENT -- 11.2 RISK ASSESSMENT IN PHARMACEUTICAL MANUFACTURING -- 11.2.1 Raw Materials -- 11.2.2 Formulation -- 11.2.3 Finish Processing -- 11.2.4 Facility -- 11.2.5 Equipment and Instruments -- 11.2.6 People -- 11.3 CASE STUDY: MICROBIOLOGICAL CONTROL IN NONSTERILE MANUFACTURING -- 11.3.1 Risk-Based Approach Management Tool: What is HACCP? -- 11.3.2 History of HACCP -- 11.3.3 Benefits of HACCP for Microbiological Control -- 11.3.4 HACCP Process -- 11.4 CONCLUSION -- Appendix I: List of Potential Risks Associated with Drug Product Manufacture -- GLOSSARY -- REFERENCES -- 12 Biopharmaceutical Manufacturing -- 12.1 A GENERAL APPROACH TO IMPLEMENTING QRM IN BIOPHARMACEUTICAL MANUFACTURING -- 12.2 UNDERSTANDING CRITICAL QUALITY ATTRIBUTES AND CRITICAL PROCESS PARAMETERS -- 12.2.1 Quality Risk Management in the Identification of CQAS and CPPS -- 12.3 INDIVIDUAL PROCESS STAGES AND ASSOCIATED RISKS -- 12.3.1 Raw Materials -- 12.3.2 Cell Banking -- 12.3.3 Fermentation/Cell Culture -- 12.3.4 Downstream Processing -- 12.3.5 Scale-Up of Production Process -- 12.3.6 Excipients -- 12.3.7 Primary Packaging -- 12.3.8 Extractable/Leachables -- 12.3.9 Distribution and Cold Chain Supply -- 12.4 SUMMARY AND CONCLUSIONS -- APPENDIX A: APPLICATION OF RISK MANAGEMENT TOOLS TO BIOPHARMACEUTICAL MANUFACTURING -- A.1 Case Study: Raw Material Hazard Analysis -- A.2 Prerequisites -- A.3 Risk Assessment -- A.4 Risk Control -- REFERENCES -- 13 Risk-Based Change Control -- 13.1 INTRODUCTION AND KEY POINTS -- 13.1.1 Key Points -- 13.2 CHANGE CONTROL PROCESS -- 13.3 BENEFITS OF USING QRM FOR CHANGE CONTROL -- 13.4 ONE QRM TOOL: FMEA -- 13.5 KEYS TO SUCCESSFUL IMPLEMENTATION.

13.6 USE OF A RISK ASSESSMENT TOOL IN CHANGE CONTROL.
Abstract:
Sets forth tested and proven risk management practices in drug manufacturing Risk management is essential for safe and efficient pharmaceutical and biopharmaceutical manufacturing, control, and distribution. With this book as their guide, readers involved in all facets of drug manufacturing have a single, expertly written, and organized resource to guide them through all facets of risk management and analysis. It sets forth a solid foundation in risk management concepts and then explains how these concepts are applied to drug manufacturing. Risk Management Applications in Pharmaceutical and Biopharmaceutical Manufacturing features contributions from leading international experts in risk management and drug manufacturing. These contributions reflect the latest research, practices, and industry standards as well as the authors' firsthand experience. Readers can turn to the book for: Basic foundation of risk management principles, practices, and applications Tested and proven tools and methods for managing risk in pharmaceutical and biopharmaceutical product manufacturing processes Recent FDA guidelines, EU regulations, and international standards governing the application of risk management to drug manufacturing Case studies and detailed examples demonstrating the use and results of applying risk management principles to drug product manufacturing Bibliography and extensive references leading to the literature and helpful resources in the field With its unique focus on the application of risk management to biopharmaceutical and pharmaceutical manufacturing, this book is an essential resource for pharmaceutical and process engineers as well as safety and compliance professionals involved in drug manufacturing.
Local Note:
Electronic reproduction. Ann Arbor, Michigan : ProQuest Ebook Central, 2017. Available via World Wide Web. Access may be limited to ProQuest Ebook Central affiliated libraries.
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