The document discusses FDA's quality system approach to cGMP regulations. It outlines six quality systems that FDA expects companies to have in place: quality, facilities and equipment, materials, production, laboratory, and packaging and labeling. The goal is to encourage a proactive, risk-based approach focused on critical processes to ensure product quality and safety.
The document provides guidance on good manufacturing practices for the production of active pharmaceutical ingredients. It discusses quality management, personnel, facilities, equipment, documentation, materials management, production controls, and other quality assurance aspects of API manufacturing. The objective is to help ensure APIs meet quality and purity standards.
This document discusses concepts related to quality management and quality control in the pharmaceutical industry. It defines key terms like total quality management, quality assurance, and good manufacturing practices. It explains that quality should be built into products from the beginning of the production process through materials procurement, manufacturing, distribution, and obtaining customer feedback. It also outlines the objectives, systems, and components of quality management systems, including quality planning, risk management, corrective actions, and change control. Quality control is described as the system for ensuring proper testing and release of materials and products.
This document outlines the Six System Inspection Model used by the US FDA to inspect pharmaceutical manufacturing establishments. The six systems are: Quality System, Facilities and Equipment System, Materials System, Production System, Packaging and Labeling System, and Laboratory Control System. The model provides a comprehensive and organized framework to evaluate if establishments are complying with cGMP requirements across all key aspects of pharmaceutical production.
The six-system inspection model is used to help pharmaceutical manufacturers comply with cGMP regulations. The six systems are: quality, production, facilities and equipment, laboratory controls, materials, and packaging and labeling. Each system has specific requirements under cGMP. The quality system involves establishing a quality management system. The production system requires defining, approving, and controlling quality and manufacturing processes. The facilities and equipment system designates clean and dirty areas with proper separation, protection, and environmental controls. The laboratory controls system ensures adequate and calibrated equipment for intended testing. The materials system controls materials receipt and storage. The packaging and labeling system validates master copies and controls changes.
This document provides guidance on regulatory aspects of pharmaceutical bulk drug manufacture. It discusses quality management, personnel, facilities, equipment, documentation, materials management, production controls, packaging, and other areas. The overall aim is to help ensure APIs meet quality and purity requirements and are manufactured under an appropriate quality management system in accordance with good manufacturing practices.
The document provides an overview of current good manufacturing practices (cGMP) and discusses their importance for ensuring quality and safety in drug production. It reviews cGMP requirements for different departments at the Blood Bank of Delmarva (BBD), including facilities, purchasing, donor services, quality control, IT, and more. Key points include establishing quality systems and procedures, controlling manufacturing processes, maintaining reliable testing, and generating detailed records to provide a complete history of work performed. Adhering to cGMP regulations helps assure the safety, purity and potency of blood products by building quality in at every stage of production.
This document summarizes ICH Q7 guidelines for good manufacturing practices for active pharmaceutical ingredients. It discusses general requirements including documentation, testing methods, certificates of analysis, stability monitoring, expiry and retest dates, and retention of samples. Key aspects covered are specifications for impurities, handling of out-of-specification results, management of reagents and standards, contents of certificates of analysis, types and frequency of stability studies, and retention policies for reserve samples.
The document discusses Good Manufacturing Practices (GMP) for distribution, distribution records, handling returned goods, and recovery/reprocessing of materials. It provides guidelines for distribution procedures including first expiration, first out (FEFO) and batch recall systems. It also outlines requirements for distribution records, handling returned products, and reprocessing materials to ensure quality is maintained.
The document provides guidance on good manufacturing practices for the production of active pharmaceutical ingredients. It discusses quality management, personnel, facilities, equipment, documentation, materials management, production controls, and other quality assurance aspects of API manufacturing. The objective is to help ensure APIs meet quality and purity standards.
This document discusses concepts related to quality management and quality control in the pharmaceutical industry. It defines key terms like total quality management, quality assurance, and good manufacturing practices. It explains that quality should be built into products from the beginning of the production process through materials procurement, manufacturing, distribution, and obtaining customer feedback. It also outlines the objectives, systems, and components of quality management systems, including quality planning, risk management, corrective actions, and change control. Quality control is described as the system for ensuring proper testing and release of materials and products.
This document outlines the Six System Inspection Model used by the US FDA to inspect pharmaceutical manufacturing establishments. The six systems are: Quality System, Facilities and Equipment System, Materials System, Production System, Packaging and Labeling System, and Laboratory Control System. The model provides a comprehensive and organized framework to evaluate if establishments are complying with cGMP requirements across all key aspects of pharmaceutical production.
The six-system inspection model is used to help pharmaceutical manufacturers comply with cGMP regulations. The six systems are: quality, production, facilities and equipment, laboratory controls, materials, and packaging and labeling. Each system has specific requirements under cGMP. The quality system involves establishing a quality management system. The production system requires defining, approving, and controlling quality and manufacturing processes. The facilities and equipment system designates clean and dirty areas with proper separation, protection, and environmental controls. The laboratory controls system ensures adequate and calibrated equipment for intended testing. The materials system controls materials receipt and storage. The packaging and labeling system validates master copies and controls changes.
This document provides guidance on regulatory aspects of pharmaceutical bulk drug manufacture. It discusses quality management, personnel, facilities, equipment, documentation, materials management, production controls, packaging, and other areas. The overall aim is to help ensure APIs meet quality and purity requirements and are manufactured under an appropriate quality management system in accordance with good manufacturing practices.
The document provides an overview of current good manufacturing practices (cGMP) and discusses their importance for ensuring quality and safety in drug production. It reviews cGMP requirements for different departments at the Blood Bank of Delmarva (BBD), including facilities, purchasing, donor services, quality control, IT, and more. Key points include establishing quality systems and procedures, controlling manufacturing processes, maintaining reliable testing, and generating detailed records to provide a complete history of work performed. Adhering to cGMP regulations helps assure the safety, purity and potency of blood products by building quality in at every stage of production.
This document summarizes ICH Q7 guidelines for good manufacturing practices for active pharmaceutical ingredients. It discusses general requirements including documentation, testing methods, certificates of analysis, stability monitoring, expiry and retest dates, and retention of samples. Key aspects covered are specifications for impurities, handling of out-of-specification results, management of reagents and standards, contents of certificates of analysis, types and frequency of stability studies, and retention policies for reserve samples.
The document discusses Good Manufacturing Practices (GMP) for distribution, distribution records, handling returned goods, and recovery/reprocessing of materials. It provides guidelines for distribution procedures including first expiration, first out (FEFO) and batch recall systems. It also outlines requirements for distribution records, handling returned products, and reprocessing materials to ensure quality is maintained.
Annual product reviews are conducted annually to assess the quality of drug products and determine if any changes need to be made to product specifications, manufacturing processes, or quality control procedures. The review evaluates analytical data, inspection results, batch failures, complaints, recalls, deviations, stability monitoring results, and corrective actions to verify process consistency and identify quality trends over time. The goal is to continually improve product quality and manufacturing processes.
This document is a report on Good Manufacturing Practices (GMP) prepared by Vishal H. Parikh for his M.Pharm QARA program. It was guided by Mr. Darshil Shah of the QA department at L.J. Institute of Pharmacy. The report defines GMP, discusses its history and principles, and covers key aspects of GMP including documentation, production processes, facilities, personnel, validation, equipment maintenance, and calibration. GMP regulations are designed to minimize risks in pharmaceutical production that cannot be eliminated through final testing alone.
This document discusses concepts of change control, out of specifications (OOS), and out of trends (OOT) in pharmaceutical quality assurance. It defines change control as a procedure to review, verify, regulate, manage, approve and control changes made to systems or processes. OOS refers to test results that fall outside pre-defined acceptance criteria, while OOT describes results that do not follow expected trends. The document outlines procedures for investigating and managing changes, OOS, and OOT to ensure product quality and compliance with regulations.
Quality Systems Approach to Pharmaceutical cGMPReddy N
This guidance provides a quality systems model that aligns with CGMP regulations to help manufacturers implement modern quality systems approaches. It describes key quality systems concepts such as quality by design, quality risk management, corrective and preventive action, and change control. The guidance explains how the quality unit's responsibilities correlate with quality assurance and quality control functions. It presents a quality systems model organized into sections for management responsibilities, resources, manufacturing operations, and evaluation activities. The model identifies how each quality systems element aligns with specific CGMP regulations.
The Product Quality Review (PQR) is a regular review of all licensed medicinal products conducted to verify consistency of manufacturing processes and the appropriateness of specifications. The objectives of the PQR include determining the need for process, specification or validation changes; verifying compliance; identifying trends; and determining corrective actions. The EU requires annual PQRs that review areas like starting materials, process and product testing results, failed batches, deviations, changes made, and stability monitoring results. The PQR is intended to enhance quality and identify improvements.
Documentation with respect to release of finished pharmaceutical productMadhuraNewrekar
Documentation is a crucial part of the quality assurance system and is needed in every aspect of pharmaceutical manufacturing. Important documentation with respect to final product release in pharmaceutical industry is explained in brief.
004 301 training quality system management regulations, gmp (2)ZARRAR MEHMOOD
The document discusses Good Manufacturing Practices (GMP) regulations developed by the FDA to ensure quality in medical device manufacturing. GMP procedures help ensure consistency and quality control in production and testing. The FDA enforces GMP through inspections and can deem devices adulterated if manufactured in violation of GMP guidelines. Complying with GMP is therefore mandatory for medical device manufacturers. The presentation then goes on to discuss specific GMP guidelines and principles around defined and controlled manufacturing processes, documentation, training, record keeping, complaints handling and more.
This document provides an overview of ISO 15189:2007, which establishes particular requirements for quality and competence in medical laboratories. It discusses the history and development of the standard, as well as key clauses related to organization, management, quality systems, personnel, equipment, pre-examination procedures, and more. The document is intended to train readers on the requirements of ISO 15189 through paraphrasing and rewording the standard.
The document discusses calculation of yields, production record review, and change control in the pharmaceutical industry. It provides definitions and requirements for theoretical yield, actual yield, and practical yield calculation. It states that all production records must be reviewed and approved before batch release. Any unexplained discrepancies or failed batches must be investigated. The document also defines minor, major, and critical changes and the proper change control process, including documenting the request, assessing the change, planning implementation, verifying the impact, implementing, and closing out the change.
1. Returned goods and recovered materials from pharmaceutical products need to be evaluated and may be reprocessed, retested, repackaged and resold if they meet specifications.
2. Complaint handling procedures include classifying, investigating, reporting on complaints, maintaining records for regulatory compliance and continual improvement.
3. The complaint handling process involves receiving complaints, conducting a technical investigation which includes documentation review and laboratory analysis, determining corrective actions, and reporting trends to management.
This document discusses handling deviations from standard operating procedures in quality management systems. It defines a deviation as any departure from approved instructions or established standards. Deviations are classified as either planned or unplanned. Unplanned deviations require investigation to determine the root cause and implement corrective and preventive actions. The investigation process involves documenting the event, taking immediate action, analyzing the root cause, implementing corrective actions, and evaluating effectiveness. Guidelines such as ICH Q7 provide requirements for deviation handling, investigation, and corrective action to prevent future deviations.
The document discusses quality management systems (QMS) and good manufacturing practices (GMP) and their benefits for businesses. It provides an overview of the key elements of a QMS and explains that a QMS establishes procedures and processes to ensure quality control across all aspects of a business. It then describes GMP guidelines which outline manufacturing and testing standards for pharmaceuticals and medical devices to ensure product quality and compliance. The document notes that many countries have legislation requiring companies to follow GMP procedures.
The document provides details on technology transfer protocols between a sending unit (SU) and receiving unit (RU). It discusses that the SU should provide the RU with information about the active pharmaceutical ingredient (API), including manufacturing processes, specifications, stability studies and more. It also notes the SU should share information about the finished pharmaceutical product, like development history, manufacturing steps, analytical methods, validation information and more. The technology transfer process aims to ensure equivalent quality standards are met as the product is transferred between manufacturing sites.
The document discusses various documentation practices that are important in the pharmaceutical industry. It covers documentation requirements for raw materials, packaging materials, production records, quality control records, and other key areas. Maintaining proper documentation is essential for regulatory compliance, process validation, batch traceability, and ensuring product quality.
This document contains a 60 question training questionnaire on GMP and cGMP considerations. The questions cover topics such as quality assurance, quality control, validation, facilities and equipment, documentation, materials management, and production. Correct answers are required to be circled for each multiple choice question. Records must be kept demonstrating compliance with registered product details and regulations.
TGA presentation: PICS Guide for GMP and Data Integrity relating to microbiol...TGA Australia
An overview of regulatory requirements introduced as part of the new PIC/s PE009-13 Guide to Good Manufacturing Practice, specifically outlining impact on micro laboratories. Also, a summary of the new PI041-1 Data Integrity Guidance will be provided with a particular focus of Data Integrity in the laboratory
This document outlines the key concepts and history of the process validation lifecycle approach. It discusses the development of the approach through various regulatory guidances from organizations like FDA, Health Canada, EMA, ICH, and PIC/S. The lifecycle approach involves three stages: process design, process qualification, and continued process verification. It represents a shift from a traditional approach of conducting process validation to one focused on continual process improvement and understanding over the entire product lifecycle. Implementation of the approach can be difficult for organizations.
The document discusses Good Manufacturing Practices (GMP) with a focus on quality control. It outlines key aspects of GMP compliance that should be reviewed during an on-site quality control laboratory inspection, including documentation, personnel qualifications, equipment and instrument validation, testing procedures, data verification, and facilities and environmental monitoring. The inspection aims to ensure proper implementation of quality standards and systems across all aspects of the quality control process.
Master of Good Manufacturing Practice - Course Detailsutspharmacy
Staff who hold postgraduate degrees in Good Manufacturing Practice (GMP) are essential for many pharmaceutical, biologic, medical device and food manufacturing companies.
This presentation provides an overview of the Master of Good Manufacturing Practice offered at the University of Technology, Sydney (UTS) in Australia. For more information visit www.gmp.uts.edu.au
Annual product reviews are conducted annually to assess the quality of drug products and determine if any changes need to be made to product specifications, manufacturing processes, or quality control procedures. The review evaluates analytical data, inspection results, batch failures, complaints, recalls, deviations, stability monitoring results, and corrective actions to verify process consistency and identify quality trends over time. The goal is to continually improve product quality and manufacturing processes.
This document is a report on Good Manufacturing Practices (GMP) prepared by Vishal H. Parikh for his M.Pharm QARA program. It was guided by Mr. Darshil Shah of the QA department at L.J. Institute of Pharmacy. The report defines GMP, discusses its history and principles, and covers key aspects of GMP including documentation, production processes, facilities, personnel, validation, equipment maintenance, and calibration. GMP regulations are designed to minimize risks in pharmaceutical production that cannot be eliminated through final testing alone.
This document discusses concepts of change control, out of specifications (OOS), and out of trends (OOT) in pharmaceutical quality assurance. It defines change control as a procedure to review, verify, regulate, manage, approve and control changes made to systems or processes. OOS refers to test results that fall outside pre-defined acceptance criteria, while OOT describes results that do not follow expected trends. The document outlines procedures for investigating and managing changes, OOS, and OOT to ensure product quality and compliance with regulations.
Quality Systems Approach to Pharmaceutical cGMPReddy N
This guidance provides a quality systems model that aligns with CGMP regulations to help manufacturers implement modern quality systems approaches. It describes key quality systems concepts such as quality by design, quality risk management, corrective and preventive action, and change control. The guidance explains how the quality unit's responsibilities correlate with quality assurance and quality control functions. It presents a quality systems model organized into sections for management responsibilities, resources, manufacturing operations, and evaluation activities. The model identifies how each quality systems element aligns with specific CGMP regulations.
The Product Quality Review (PQR) is a regular review of all licensed medicinal products conducted to verify consistency of manufacturing processes and the appropriateness of specifications. The objectives of the PQR include determining the need for process, specification or validation changes; verifying compliance; identifying trends; and determining corrective actions. The EU requires annual PQRs that review areas like starting materials, process and product testing results, failed batches, deviations, changes made, and stability monitoring results. The PQR is intended to enhance quality and identify improvements.
Documentation with respect to release of finished pharmaceutical productMadhuraNewrekar
Documentation is a crucial part of the quality assurance system and is needed in every aspect of pharmaceutical manufacturing. Important documentation with respect to final product release in pharmaceutical industry is explained in brief.
004 301 training quality system management regulations, gmp (2)ZARRAR MEHMOOD
The document discusses Good Manufacturing Practices (GMP) regulations developed by the FDA to ensure quality in medical device manufacturing. GMP procedures help ensure consistency and quality control in production and testing. The FDA enforces GMP through inspections and can deem devices adulterated if manufactured in violation of GMP guidelines. Complying with GMP is therefore mandatory for medical device manufacturers. The presentation then goes on to discuss specific GMP guidelines and principles around defined and controlled manufacturing processes, documentation, training, record keeping, complaints handling and more.
This document provides an overview of ISO 15189:2007, which establishes particular requirements for quality and competence in medical laboratories. It discusses the history and development of the standard, as well as key clauses related to organization, management, quality systems, personnel, equipment, pre-examination procedures, and more. The document is intended to train readers on the requirements of ISO 15189 through paraphrasing and rewording the standard.
The document discusses calculation of yields, production record review, and change control in the pharmaceutical industry. It provides definitions and requirements for theoretical yield, actual yield, and practical yield calculation. It states that all production records must be reviewed and approved before batch release. Any unexplained discrepancies or failed batches must be investigated. The document also defines minor, major, and critical changes and the proper change control process, including documenting the request, assessing the change, planning implementation, verifying the impact, implementing, and closing out the change.
1. Returned goods and recovered materials from pharmaceutical products need to be evaluated and may be reprocessed, retested, repackaged and resold if they meet specifications.
2. Complaint handling procedures include classifying, investigating, reporting on complaints, maintaining records for regulatory compliance and continual improvement.
3. The complaint handling process involves receiving complaints, conducting a technical investigation which includes documentation review and laboratory analysis, determining corrective actions, and reporting trends to management.
This document discusses handling deviations from standard operating procedures in quality management systems. It defines a deviation as any departure from approved instructions or established standards. Deviations are classified as either planned or unplanned. Unplanned deviations require investigation to determine the root cause and implement corrective and preventive actions. The investigation process involves documenting the event, taking immediate action, analyzing the root cause, implementing corrective actions, and evaluating effectiveness. Guidelines such as ICH Q7 provide requirements for deviation handling, investigation, and corrective action to prevent future deviations.
The document discusses quality management systems (QMS) and good manufacturing practices (GMP) and their benefits for businesses. It provides an overview of the key elements of a QMS and explains that a QMS establishes procedures and processes to ensure quality control across all aspects of a business. It then describes GMP guidelines which outline manufacturing and testing standards for pharmaceuticals and medical devices to ensure product quality and compliance. The document notes that many countries have legislation requiring companies to follow GMP procedures.
The document provides details on technology transfer protocols between a sending unit (SU) and receiving unit (RU). It discusses that the SU should provide the RU with information about the active pharmaceutical ingredient (API), including manufacturing processes, specifications, stability studies and more. It also notes the SU should share information about the finished pharmaceutical product, like development history, manufacturing steps, analytical methods, validation information and more. The technology transfer process aims to ensure equivalent quality standards are met as the product is transferred between manufacturing sites.
The document discusses various documentation practices that are important in the pharmaceutical industry. It covers documentation requirements for raw materials, packaging materials, production records, quality control records, and other key areas. Maintaining proper documentation is essential for regulatory compliance, process validation, batch traceability, and ensuring product quality.
This document contains a 60 question training questionnaire on GMP and cGMP considerations. The questions cover topics such as quality assurance, quality control, validation, facilities and equipment, documentation, materials management, and production. Correct answers are required to be circled for each multiple choice question. Records must be kept demonstrating compliance with registered product details and regulations.
TGA presentation: PICS Guide for GMP and Data Integrity relating to microbiol...TGA Australia
An overview of regulatory requirements introduced as part of the new PIC/s PE009-13 Guide to Good Manufacturing Practice, specifically outlining impact on micro laboratories. Also, a summary of the new PI041-1 Data Integrity Guidance will be provided with a particular focus of Data Integrity in the laboratory
This document outlines the key concepts and history of the process validation lifecycle approach. It discusses the development of the approach through various regulatory guidances from organizations like FDA, Health Canada, EMA, ICH, and PIC/S. The lifecycle approach involves three stages: process design, process qualification, and continued process verification. It represents a shift from a traditional approach of conducting process validation to one focused on continual process improvement and understanding over the entire product lifecycle. Implementation of the approach can be difficult for organizations.
The document discusses Good Manufacturing Practices (GMP) with a focus on quality control. It outlines key aspects of GMP compliance that should be reviewed during an on-site quality control laboratory inspection, including documentation, personnel qualifications, equipment and instrument validation, testing procedures, data verification, and facilities and environmental monitoring. The inspection aims to ensure proper implementation of quality standards and systems across all aspects of the quality control process.
Master of Good Manufacturing Practice - Course Detailsutspharmacy
Staff who hold postgraduate degrees in Good Manufacturing Practice (GMP) are essential for many pharmaceutical, biologic, medical device and food manufacturing companies.
This presentation provides an overview of the Master of Good Manufacturing Practice offered at the University of Technology, Sydney (UTS) in Australia. For more information visit www.gmp.uts.edu.au
The document provides an overview of key concepts in current good manufacturing practices (cGMP) for pharmaceuticals and medical devices. It discusses cGMP principles such as building quality into products through controls and preventing contamination. Key cGMP elements covered include facilities and equipment design, cleaning and sanitation programs, change control systems, process validation, and corrective and preventive action systems. The roles of quality control and quality assurance are defined. Regulations for drugs, devices, combination products, and investigational products are summarized. [END SUMMARY]
This document discusses quality assurance and regulatory compliance for pharmaceutical products. It describes quality assurance as ensuring that products meet the requirements for their intended use. This involves following good manufacturing practices (GMP) and having systems in place for production, quality control, documentation, validation, complaint handling and stability testing. Regulatory compliance requires understanding requirements for approval in different countries or regions and compiling dossiers to register products. Together, quality assurance and regulatory compliance aim to build quality into products and ensure they meet all necessary standards and regulations.
The document discusses perspectives on ICH Q7 and Q11 from scientific and regulatory viewpoints. It summarizes common GMP deficiencies observed during API inspections, including inadequate vendor audits that failed to properly evaluate supplier quality systems and cleaning procedures. Specific examples call out insufficient control of API starting materials due to unacceptable facility maintenance and lack of testing, as well as inadequate sampling and improper storage of materials.
Presented at length on 23 April and 21 May 2017 at ICCBS, HEJ and Getz Pharma Auditorium, Karachi in a Discussion Forum of about 800 practicing university qualified professionals of various pharmaceutical manufacturing industries
The document discusses key concepts and regulations regarding current good manufacturing practices (cGMP) for pharmaceuticals and medical devices. It covers cGMP principles of building quality in, having controls at every step, preventing contamination and mix-ups, documenting all activities. Key cGMP elements include qualified personnel, suitable facilities and equipment, controls over materials and processes, proper packaging and labeling, and laboratory controls. Regulations cover non-biologics, biologics, generics, devices, combination products, and investigational drugs. The quality system, facilities, materials, production, packaging/labeling and laboratory systems are also summarized.
Quality assurance and quality control are important functions in the pharmaceutical industry to ensure product safety, efficacy and consistency. Quality assurance aims to prevent defects through establishing quality management systems, while quality control identifies defects through analytical testing of products. Both functions work together to build quality into products and maintain compliance with Good Manufacturing Practices, which regulate manufacturing processes to minimize risks like contamination and improper dosing. Adhering to quality standards is essential for patient health and safety, as well as maintaining credibility and profitability in the pharmaceutical industry.
The document discusses current good manufacturing practices (cGMPs) for biotechnology products. It explains that biotech products are produced from living cells and require strict production, storage, and manufacturing standards to remain effective and safe. The Food and Drug Administration approves biotech products and monitors manufacturers to ensure compliance with cGMPs. cGMPs establish industry-wide quality standards to protect consumers and help ensure consistent product quality. They address personnel, facilities, equipment, production processes, holding and distribution, and recordkeeping.
In a welcome move, the Pharmacy Council of India has recently re-structured the syllabus of the
Bachelor of Pharmacy course. In the effort to make the content more relevant to the practice of
pharmacy in its current form, we now find new, important subjects introduced, and Pharmaceutical
Quality Assurance is one of them.
Quality assurance is the totality of arrangements to ensure pharmaceutical products are of the required quality. It includes in-process quality checks, validation of facilities, equipment and processes, complaint handling, and stability studies. Regulatory compliance describes conforming to rules like specifications, policies, standards or laws. For pharmaceutical products, this includes complying with requirements for approvals in countries or regions like the US, Europe, and India.
Quality assurance is the totality of arrangements to ensure pharmaceutical products are of the required quality. It includes in-process quality checks, validation of facilities, equipment and processes, complaint handling, and stability studies. Regulatory compliance describes conforming to rules like specifications, policies, standards or laws. For pharmaceutical products, this includes complying with requirements for approvals in countries or regions like the US, Europe, and India.
Quality assurance is essential for ensuring pharmaceutical products meet quality standards for their intended use. It involves establishing controls throughout the development and manufacturing processes. This includes designing products based on GMP, GLP and other standards, specifying control operations in writing, and establishing in-process and finished product testing. Managerial responsibilities and change control systems are also important aspects of quality assurance. The goal is consistently producing products that conform to their marketing authorizations and regulatory requirements.
Quality assurance is the totality of arrangements to ensure pharmaceutical products are of the required quality. It includes in-process quality checks, validation of facilities, equipment and processes, complaint handling, and stability studies. Regulatory compliance describes conforming to rules like specifications, policies, standards or laws. For pharmaceutical products, this includes complying with requirements for approvals in countries or regions like the US, Europe, and India.
Pharmaceutical Good Manufacturing PracticesPharmaceutical
When you are in healthcare, Then GMP is must. Regulatory philosophy for product Quality have been changed from "Quality by Testing QbT" to "Quality by Design QbD". Quality is to be built in product and that only can be done by GMP.
This document discusses types of inspections, quality system approaches to GMP inspections, and the key elements of a quality system for pharmaceutical manufacturing. It covers internal and external inspections, pre-approval inspections, system-based inspections focusing on quality systems, facilities, equipment, utilities, materials, production, laboratory controls, packaging and labeling. Common regulatory observations and how to minimize risks of non-compliance are also summarized.
The document provides an overview of quality assurance (QA) from Quality Square Industry Ltd. In 3 sentences:
QA ensures that pharmaceutical products meet the quality required for their intended use by controlling all aspects that influence quality, including raw materials, equipment, personnel, manufacturing processes, and finished products. It aims to give customers assurance that they will receive products of the claimed quality. QA involves establishing procedures, conducting audits and reviews, ensuring documentation standards, and continuously improving quality.
Good manufacturing practices (gmp) Akash Saini (Dr. H. S. Gour University, Sa...Akash Saini
This document discusses Good Manufacturing Practices (GMP) which are procedures and processes used in manufacturing to ensure quality products. GMP covers all aspects of production from facilities and equipment to purchasing, personnel and documentation practices. It aims to minimize risks like contamination through validated processes, qualified personnel and compliance with standards. Key aspects of GMP include premises, equipment, personnel, documentation, quality control, self-inspection and auditing. GMP ensures that pharmaceutical products are consistently produced and controlled according to quality standards.
GOOD MANUFACTURING PROCESS Provides a high level assurance that medicines are manufactured in a way that ensures their safety, efficacy and quality
Medicines are manufactured to comply with their marketing authorization
Quality is built in
Testing is part of GMP, but alone does not provide a good level of quality assurance
Six system inspection is a part of pharmaceutical.management system.this presentation gives the information about production, facilities and equipment, quality, laboratory,packaging and material system.
This presentation by OECD, OECD Secretariat, was made during the discussion “Artificial Intelligence, Data and Competition” held at the 143rd meeting of the OECD Competition Committee on 12 June 2024. More papers and presentations on the topic can be found at oe.cd/aicomp.
This presentation was uploaded with the author’s consent.
This presentation by Professor Alex Robson, Deputy Chair of Australia’s Productivity Commission, was made during the discussion “Competition and Regulation in Professions and Occupations” held at the 77th meeting of the OECD Working Party No. 2 on Competition and Regulation on 10 June 2024. More papers and presentations on the topic can be found at oe.cd/crps.
This presentation was uploaded with the author’s consent.
This presentation by OECD, OECD Secretariat, was made during the discussion “Pro-competitive Industrial Policy” held at the 143rd meeting of the OECD Competition Committee on 12 June 2024. More papers and presentations on the topic can be found at oe.cd/pcip.
This presentation was uploaded with the author’s consent.
This presentation by Thibault Schrepel, Associate Professor of Law at Vrije Universiteit Amsterdam University, was made during the discussion “Artificial Intelligence, Data and Competition” held at the 143rd meeting of the OECD Competition Committee on 12 June 2024. More papers and presentations on the topic can be found at oe.cd/aicomp.
This presentation was uploaded with the author’s consent.
Suzanne Lagerweij - Influence Without Power - Why Empathy is Your Best Friend...Suzanne Lagerweij
This is a workshop about communication and collaboration. We will experience how we can analyze the reasons for resistance to change (exercise 1) and practice how to improve our conversation style and be more in control and effective in the way we communicate (exercise 2).
This session will use Dave Gray’s Empathy Mapping, Argyris’ Ladder of Inference and The Four Rs from Agile Conversations (Squirrel and Fredrick).
Abstract:
Let’s talk about powerful conversations! We all know how to lead a constructive conversation, right? Then why is it so difficult to have those conversations with people at work, especially those in powerful positions that show resistance to change?
Learning to control and direct conversations takes understanding and practice.
We can combine our innate empathy with our analytical skills to gain a deeper understanding of complex situations at work. Join this session to learn how to prepare for difficult conversations and how to improve our agile conversations in order to be more influential without power. We will use Dave Gray’s Empathy Mapping, Argyris’ Ladder of Inference and The Four Rs from Agile Conversations (Squirrel and Fredrick).
In the session you will experience how preparing and reflecting on your conversation can help you be more influential at work. You will learn how to communicate more effectively with the people needed to achieve positive change. You will leave with a self-revised version of a difficult conversation and a practical model to use when you get back to work.
Come learn more on how to become a real influencer!
This presentation by OECD, OECD Secretariat, was made during the discussion “Competition and Regulation in Professions and Occupations” held at the 77th meeting of the OECD Working Party No. 2 on Competition and Regulation on 10 June 2024. More papers and presentations on the topic can be found at oe.cd/crps.
This presentation was uploaded with the author’s consent.
This presentation by Yong Lim, Professor of Economic Law at Seoul National University School of Law, was made during the discussion “Artificial Intelligence, Data and Competition” held at the 143rd meeting of the OECD Competition Committee on 12 June 2024. More papers and presentations on the topic can be found at oe.cd/aicomp.
This presentation was uploaded with the author’s consent.
This presentation by Nathaniel Lane, Associate Professor in Economics at Oxford University, was made during the discussion “Pro-competitive Industrial Policy” held at the 143rd meeting of the OECD Competition Committee on 12 June 2024. More papers and presentations on the topic can be found at oe.cd/pcip.
This presentation was uploaded with the author’s consent.
This presentation by Juraj Čorba, Chair of OECD Working Party on Artificial Intelligence Governance (AIGO), was made during the discussion “Artificial Intelligence, Data and Competition” held at the 143rd meeting of the OECD Competition Committee on 12 June 2024. More papers and presentations on the topic can be found at oe.cd/aicomp.
This presentation was uploaded with the author’s consent.
Mastering the Concepts Tested in the Databricks Certified Data Engineer Assoc...SkillCertProExams
• For a full set of 760+ questions. Go to
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Collapsing Narratives: Exploring Non-Linearity • a micro report by Rosie WellsRosie Wells
Insight: In a landscape where traditional narrative structures are giving way to fragmented and non-linear forms of storytelling, there lies immense potential for creativity and exploration.
'Collapsing Narratives: Exploring Non-Linearity' is a micro report from Rosie Wells.
Rosie Wells is an Arts & Cultural Strategist uniquely positioned at the intersection of grassroots and mainstream storytelling.
Their work is focused on developing meaningful and lasting connections that can drive social change.
Please download this presentation to enjoy the hyperlinks!
2. FDA’s Mission
References
Background
Quality Systems
Six Quality Systems
Inspection Outcome
Conclusion
3. U. S. Food and Drug Administration, 5600 Fishers
Lane, Rockville MD 20857-0001, 1-888-INFO-FDA
(1-888-463-6332)
Centre for Drug Evaluation and Research,
http://www.fda.gov/cder/
Guidance for Industry: Quality Systems Approach
to Pharmaceutical CGMP Regulations –
September 2006
Pharmaceutical cGMP’s for the 21st Century – A
Risk-Based Approach – September 2005
Warning Letters, www.fdawarningletter.com
4. Protect consumers’ health and safety under the
Federal Food, Drug and Cosmetic Act
Two basic strategies:
– Monitoring the quality of products through
surveillance activities, e.g. sampling and
analyzing products in distribution
- Evaluating through factory inspections,
including the collection and analysis of
associated samples
5. Source: CDER 2005 Report to the Nation
Reported Drug Quality Defects
Other, 9%
Contamination/
sterility, 3%
Fill problem,
4%
Packaging, 6%
Delivery
system, 10%
Product defect,
14% Formulation/
substitution,
22%
Adverse drug
reports, 18%
Labeling, 14%
Fiscal year 2005
6. Limited resources and increased volume of work
August 2002 – FDA announced the
Pharmaceutical cGMP’s for the 21st Century – A
Risk Based Approach
Focus on the greatest potential risk to the public
FDA’s intent to integrate quality systems and risk
management approaches - to modernize FDA’s
regulations
Encourage industry to adopt modern and
innovative manufacturing technologies as well as
modern quality system approaches
7. Necessity of harmonizing the cGMP’s with other
non-U.S. regulatory agency’s / systems
Need to harmonize with FDA’s own medical
device quality systems regulations
Encourage Risk-Based approaches which focus
on critical elements
Ensure FDA’s Review, Compliance and Inspection
Policies – based on state-of-art pharmaceutical
science
8. Risk-Based Approach to Manufacturing and
Regulation
• Pharmaceutical Inspectorate
– Experienced Field Investigators
• Process Analytical Technology (PAT) Guidance
– Real-time measurements
• Process Validation Guidance
– Life Cycle Approach – Quality-by-Design,
not Quality-by-Testing
9. • 21 CFR 11 Electronic Records Guidance
• Quality Systems Guidance
- September 2006 – FDA issued the final
version of the “Guidance for Industry on
Quality Systems Approach to
Pharmaceutical CGMP Regulations”
• Systems-Based Inspection
• 6 systems
10. Quality should be built into the
product, and testing alone
cannot be relied on to ensure
product quality.
Ref: Guidance for Industry: Quality Systems Approach to
Pharmaceutical CGMP Regulations – September 2006
11. Human Drugs – Centre for Drug
Evaluation and Research (CDER)
Veterinary Drugs – Centre for Veterinary
Medicine (CVM)
Biological Drugs – Centre for Biologics
Evaluation and Research (CBER)
Manufacturers of Components, including
APIs
12. State-of-Control
FD&C Act and other laws to ensure that products are
developed, manufactured and held in a state of
control, i.e. contribute to SISPQ (Safety, Identity,
Strength, Purity, Quality)
Detailed inspection of a system so that the findings
reflect the state of control in that system for every
product / profile class
If one of the six systems is out of control, the
company is considered out-of-control
14. Quality System
Facility & Equipment
Materials
Production
Laboratory
Packaging & Labeling
15. Assure overall compliance with cGMP regulations and
all quality systems.
Quality by Design in the processes
Quality Assurance comes from
- Design of robust process based on thorough knowledge of
the, process and the sources of variability
Process Analytical Technology (PAT) is a system for designing,
analyzing and controlling manufacturing through ‘real time’
measurements of critical quality attributes of raw and in-process
materials and processes, with the goal of ensuring final product
quality
- Science based approach
– Process Validation – Life cycle approach from development
to market
– Quality System review and trending
– Continuous improvement within well characterized process
16. Quality Function & Responsibilities:
- The Quality Unit and all of its review and approval duties.
- Assures overall compliance with cGMP’s
Quality Unit reviews and approves:
- Annual Product Quality Reviews
- Complaints
- Deviations / Failure Investigations
- Change Control
- CAPA (Corrective and Preventive Action)
- Re-processing / Re-working
- Validation / Re-validation
- Rejections
- Stability Failures / Out of Trend data
- Quarantine Products
- Documented Training – GMP and Job Related
17. Location, design and construction, is appropriate to
facilitate operations, maintenance and cleaning
Layout and air-handling systems designed and
constructed to prevent (cross) contamination
Flow of materials and personnel - designed to
prevent mix-ups or contamination
- Incoming Materials – ID, quarantine and segregation
- Sampling Area – Prevent cross- contamination, cleaning
- Quarantine Area – API’s and Intermediates
- Released Area – Labeling, MRP
- Rejection of materials
Separate facilities or containment where needed,
e.g., penicillins, hormones, highly potent
compounds, etc.
18. Appropriate design, size, location, and non-reactive
product contact surfaces
Identification of equipment – clearly marked
Equipment qualification – DQ, IQ, OP, PQ
Equipment calibration – schedule & procedures
Preventative maintenance - schedule & procedures
Equipment cleaning procedures and validation –
prevent contamination and mix-ups
Equipment usage log – use, cleaning & maintenance
Lubricants, thermal fluids – not contact / alter
product quality
Closed or contained equipment
Line clearance & pre use inspection
19. Electricity and wiring drawings – qualified, approved
and appropriately monitored
Pipe work – Permanently installed and appropriately
identified
Drains of adequate size
Process water at minimum meeting WHO guidelines
for potable water
Justify and establish specifications
Validate water treatment facilities
API for Sterile Dosage Form – Water used in later
stages should be monitored and controlled for total
microbial counts, objectionable organizations and
endotoxins
20. Materials can include items such as:
- Components e.g. APIs, raw materials, process water, gas, etc.
- Containers & Closures
Reliable input materials
Qualified internal and external sources/suppliers
Suppliers for critical materials – select, evaluate,
audit, qualify
- Supplier evaluation should include three fully tested
batches initially, and one fully tested batch per year
Periodic audit of suppliers
CGMP requires either testing, or use a C of A plus an
identity analysis
21. Include measures and activities to control
finished products
Purchased specifications vs agreed
specifications
Change Control for changing suppliers and
suppliers’ processes
Before and during manufacturing
– Identification and test
– Store in manner to prevent degradation, contamination,
and no adverse effect on quality
- Drums, bags, boxes off the floor
22. Process Flows and Written Procedures –
receipt, identification, quarantine, storage,
handling, sampling, testing and approval /
rejection of materials
- Receipt – check for correct labeling, transportation conditions,
seals, etc.
– Assurance obtained from non-dedicated tankers / trucks
– Product codes of received batches – status and identity
– Written sampling plan with justification
– Specific ID test on incoming batches + Certificate of Analysis
– Sufficient initial tests – establish reliability
– Periodic reassessment – trending data
– Prevent contamination of sampled containers
23. MRP Systems, e.g. SAP,
- Released materials – storage and distribution, traceability if
product recall
- FIFO – First in First out
- Rejected materials – identify and control under a quarantine
system
- Retested materials – establish and justify the retest periods
- Expired materials – quarantine and destruction
24. Production and process controls – ensure quality of
finished products
State of Control
Entire Product Life Cycle – validation, consistency,
continual improvement
Process Validation based on knowledge of process –
scientific basis for identifying critical steps / critical
process parameters and control points
Risk Management – identify process weakness and
critical quality attributes
Justification for in-process specifications and final
product specifications
25. Monitor critical processes – eliminate variability
Measure and analyze processes – analytical methods,
PAT, statistical techniques
Process Capability – Cp and CpK
Data documented and available to Quality Unit for
review – trending, investigations, etc.
Training – documented
- GMP and job related
Records
- Master Production and Control Records
- Batch Production and Control Records
- Change Control Procedure
- Complete Batch Production Documentation – contemporaneous
and accurate
- In-process Controls charts, tests, examinations
- Equipment Logs – Cleaning, Calibration, Qualifications
- SOPs
26. Procedures in place to ensure the accuracy of test
results
Quality Control Unit has adequate lab facilities
Independent from Production
Adequate staff – supervisory and bench personnel
Written specifications – raw materials, APIs,
intermediates, labels, packaging and finished
products
Written procedures – sampling, testing, approval or
rejection of materials, recording and storage of data
Change Control approval for written procedures
Method validation / revalidation
Reference Standards
27. Equipment – Qualification
Calibration & Maintenance – Written procedures,
schedule, documentation
Computerized System – Validation and security of test
results and related data; system for assuring integrity
of all lab data
Out-of-Specification (OOS) – Procedures for the
timely investigation, documentation and conclusion of
OOS investigation.
- FDA Guidance on OOS – issued in October 2006
- Due to testing problems or manufacturing problems
- Invalidation of a test results should be scientifically sound and
justified
- Identify CAPA and Implementation
- Report in Product Quality Reviews
28. Samples - Description of samples
Methods - Identification of method used, method
number, compendial number
Raw data – sample, standards, reagents, equipment,
testing results
Calculations – manual, calculators, spreadsheets,
software program
Test Results – Compare with established acceptance
criteria, statement of test results
Signatures
- Person(s) who performed each test, date(s) performed
- Second Person who reviewed original test records for accuracy,
- completeness and compliance with established standards
29. Process Flows and Written Procedures – receipt,
identification, quarantine, sampling, testing and
approval/rejection of packaging and labeling
materials
Specifications
Each shipment – maintain records of receipt,
transportation, examination, test results
Containers & Closures – protective, clean, not alter
product quality
Label Storage Area – enclosed (locked), limited
access
Written procedures – reconciliation, investigation if
discrepancy
30. All excess labels coded with batch number – to be
destroyed and documented
Printing device controlled to insure accuracy of label
against batch record
Print labels checked against master and a copy
placed with the batch record
Documented procedures to assure correct packaging
materials / labels used
Packaging operations designed to prevent mix-ups
Line clearance documentation
Shift changes documentation
31. Packaged and labeled intermediates
Tamper-evident seals
Child resistant features
Labels with barcodes
32. No Observation
Inspectional Observations Form, i.e. Form 483
- Withhold product Approvals
Establishment Inspection Report (EIR) – Deviations cited
- No Action Indicated (NAI)
- Voluntary Action Indicated (VAI)
- Official Action Indicated (OAI)
Warning Letter
Product Recall
Import Alert
Civil Money Penalties
Product Seizure
Consent Decree
33. What is cGMP?
cGMP refers to the Current Good Manufacturing Practice
regulations enforced by the US Food and Drug Administration
(FDA).
cGMPs provide for systems that assure proper design, monitoring,
and control of manufacturing processes and facilities.
Adherence to the cGMP regulations assures the identity, strength,
quality, and purity of drug products by requiring that
manufacturers of medications adequately control manufacturing
operations.
This includes establishing strong quality management systems,
obtaining appropriate quality raw materials, establishing robust
operating procedures, detecting and investigating product quality
deviations, and maintaining reliable testing laboratories.
This formal system of controls at a pharmaceutical company, if
adequately put into practice, helps to prevent instances of
contamination, mix-ups, deviations, failures, and errors. This
assures that drug products meet their quality standards.
34. Implementation of a comprehensive, robust Quality
System Model
Proactive approach to achieve long-term benefits
Characteristics of a Successful Quality System:
- Science Based Approach
- Understand the intended use of a product
- Identify and control potentially weak processes
- Timely resolution of deviation and investigation
- Sound methods for assessing and reducing risks
- Well defined processes and products – Product life Cycle
- Systems for careful analysis of product quality
- Supportive Management – philosophically and financially