The medicinal products industry is heavily regulated by governments. Within the industry’s Good Manufacturing Practice (GMP) framework, analytical laboratories engaged in quality control (QC) of starting materials, intermediates, bulk products, finished products, and packaging need to comply with relevant GMP standards. We refer to these as Good Quality Control Laboratory Practice, or GQCLP. Regulatory authorities inspect laboratories to confirm that they meet the standards. This course explains how to comply with GQCLP, and it provides advice on laboratory work in general.
The purpose of GLP is to provide assurance of the quality and reliability of nonclinical study data. GLP covers the planning, performance, monitoring, recording and reporting of studies. Regulatory authorities typically require GLP rules to be followed for nonclinical studies intended to support an application for approval of clinical research or marketing of a product containing the test item. This course outlines the history of GLP and explains why it is important, identifies the penalties that may be incurred for noncompliance, and sets out requirements that need to be met. Learners are also referred to the two main sources of GLP rules: The Organisation for Economic Co-operation and Development’s Principles on Good Laboratory Practice and US Regulation 21 CFR 58: Good Laboratory Practice for Nonclinical Laboratory Studies.
The warehouse plays a crucial role in a medicinal products factory. This module explains the requirements of Good Manufacturing Practice (GMP) for the warehouse, and how to comply with them.
Medicines for the prevention, diagnosis, or treatment of rare diseases have become known as ‘orphan drugs’ because of their commercial unattractiveness. Development of such products is successfully encouraged through incentives offered by regulatory authorities. To qualify for important incentives, the sponsor of a drug must gain ‘orphan designation’ for its use in an indication. This module describes the requirements for orphan designation and how to apply for it in the USA and the European Economic Area.
21CFR11 applies to records that are required to be submitted to the FDA, or that are subject to FDA inspection, and that are in electronic form – that is, as computer files. It applies to all computer systems used to create, modify, maintain, archive, retrieve, or transmit such records – from a humble spreadsheet program to a complex information management system.
The sponsor of a clinical trial needs to reach agreement with clinical investigators to conduct the trial. The suitability of investigators and their institutional sites, typically hospitals, has to be evaluated, and the trial has to be set up at each site. This module describes the processes involved, focusing particularly on the role of a Clinical Research Associate (CRA) employed or contracted by the sponsor to monitor the trial.
This module provides a guide to signal detection and management for approved products. The subject is presented as a process comprising four stages: signal detection, signal validation, signal analysis and prioritisation, and risk assessment and minimisation.
This module addresses characteristic issues influencing the registration of medicinal products based on monoclonal antibodies (mAbs), for use in humans. Regulatory requirements for the registration of biological medicinal products such as those based on mAbs differ in certain respects from those for small-molecule products. This is because of the distinct characteristics of biologics, such as complex structure and susceptibility to variation during manufacture.
The Centralised Procedure (CP) is one of three routes available to applicants to gain multinational marketing authorisation within the European Economic Area (EEA) on the basis of a single application. In the CP, one successful application leads to a marketing authorisation being issued by the European Commission that applies throughout the EEA. The CP is mandatory for certain types of products.
Pharmacokinetic (PK) and pharmacodynamic (PD) studies provide a bridge between science and medicine in the development of a drug. In this module we describe the role of in-vivo PK and PD studies in a drug development programme, set out the uses to which the findings can be put, and discuss their implications for clinical development and application for marketing approval.