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Файл:Ординатура / Хирургия / Библиотека им академика М.И. Перельмана / Книга_5577_Библиотеки_им_академика_М_И_Перельмана.pdf
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- •About the Authors
- •Preface
- •Acknowledgements
- •Contents
- •1.1. Singapore as a British Colony
- •1.5.1. Levelling Up the Pharmaceutical Inspection System of Singapore
- •1.5.2. Advantages of PIC/S Membership to Singapore and Other Participating Authorities
- •1.6. Emergence of MNC Pharmaceutical Manufacturing Industry in Singapore
- •1.6.1. Why do MNC Pharmaceutical Manufacturers Set Up Facilities in Singapore?
- •2.2. Geographical Background of ASEAN vis-à-vis Asia and the Rest of the World
- •2.4. Formation of an ASEAN MRA Taskforce on GMP Inspection
- •2.5. Signing of ASEAN Sectoral MRA on GMP Inspection
- •2.6. Formation of ASEAN JSC on GMP Inspection and Establishing Register of ASEAN LIS
- •2.8. Assessment of FDA Philippines by ASEAN PoE
- •2.9. Register of ASEAN Listed Inspection Services (LIS)
- •3.1. Introduction: Urgency of Training ASEAN Inspectors
- •3.3. Collaboration with Korea Ministry of Food and Drug Safety (MFDS)
- •3.4. Collaboration with the Generics and Biosimilars Initiative (GaBI)
- •3.5. Pre-employment Training in Pharmacy and Pharmaceutical Science Schools
- •4.1. Introduction
- •4.2. Historical Context to WHO Reliance Initiative
- •4.3. The First NRAs to Achieve ML4 and WLA Status
- •4.5. Other International Reliance and Harmonization Initiatives
- •4.5.1. Access Consortium
- •4.5.2. Association of Southeast Asian Nations (ASEAN)
- •4.5.3. East African Community (EAC)
- •4.5.4. European Medicines Agency (EMA)
- •4.5.6. International Council for Harmonization (ICH)
- •4.5.6.1. Introduction
- •4.5.6.2. ICH Members and Observers
- •4.5.6.3. Future Direction
- •4.5.7.1. Introduction
- •4.5.7.2. Addressing Common Regulatory Issues
- •4.5.7.3. ICMRA Pilot Program for Collaborative Hybrid Inspection
- •4.5.8. International Pharmaceutical Regulators Program (IPRP)
- •4.5.9. Latin America
- •4.5.10. Pharmaceutical Inspection Co-operation Scheme (PIC/S)
- •4.5.10.1. Introduction
- •4.5.10.2. PIC/S Participating Authorities
- •4.5.11. WHO Collaborative Registration Procedure for Medical Products (CRP)
- •4.5.12.1. Introduction
- •4.5.12.3. WHO Inspection Report
- •4.5.13. ZaZiBoNa
- •4.6. Conclusion
- •5.1. Introduction to GMP
- •5.2. Overview of the PIC/S GMP Standard
- •5.3. How is an On-site GMP Inspection Conducted?
- •5.3.1. Why is the Warehouse Inspected?
- •5.3.3. Why are the Production Areas Inspected?
- •5.3.4. Why are the Packaging Areas Inspected?
- •5.3.5. Why are the QC Laboratories Inspected?
- •5.3.6. Why do GMP Inspectors Visit Other Miscellaneous Areas?
- •5.3.8. Why is there a Need to Conduct Documentation Audit/Review?
- •5.3.8.1. Assessing Product Quality Review
- •5.3.8.3. Assessing Self-Inspection Program
- •5.4. The 20 Annexes of PIC/S GMP Standard
- •5.5. PIC/S Inspection System: A Risk-based Approach
- •5.5.1. Whom can the GMP Inspector Interview?
- •5.5.2.1. Inspector’s Expectations of a Manufacturer
- •5.5.2.2. Manufacturer’s Expectations of an Inspector
- •5.6. Who Inspects the Inspectors?
- •6.1. Historical Development of Pharmaceutical Quality
- •6.2. What is a High-Quality Medicinal Product?
- •6.3. Purity of a Medicinal Product: Elimination of Impurities and Contaminants
- •6.3.1. What is a Contaminated Medicinal Product?
- •6.3.2. Why is There a Need to Control Impurities?
- •6.3.2.1. Types of Impurities from APIs
- •6.3.2.2. Types of Impurities from Container-Closure System
- •6.3.3. Control of Intrinsic Contaminants
- •6.3.4. Control of Extrinsic Contaminants
- •6.3.5. General Assessment of Cross-Contamination Risks
- •6.4. Stability and Shelf-Life Testing of a Medicinal Product
- •6.4.1. Why is Proper Storage, Distribution and Handling of a Medicinal Product Important?
- •6.6. Summary of High-Quality Medicinal Products
- •7.1. Introduction to Stability and Quality
- •7.3.1. Why is Proper Storage Important?
- •7.3.2. Why is Proper Transportation of a Medicinal Product Important?
- •7.3.3. Why is Proper Handling of a Medicinal Product during Use Important?
- •7.4.1. Number and Size of Batches
- •7.4.2. Testing Frequency
- •7.4.3. Storage Conditions
- •7.4.4. Test Methods
- •7.4.5. Container-Closure Systems
- •7.5. Stability Study Schedule and Report
- •7.6. Temperature Excursions and Product Stability
- •7.8. Cold Chain Products and Temperature Excursions
- •7.11. Conclusion
- •8.1. Christopher Columbus versus the Vikings
- •8.4. Pharmaceutical Data Integrity and ALCOA
- •8.5. Article(s) on Pharmaceutical Data Integrity
- •Introduction
- •Current trends
- •Reasons for Data Integrity violations (inadvertent and intentional)
- •Assuring and promoting Data Integrity via legislation and guidance documents
- •Legislation
- •Guidance documents
- •Proposed Solutions to Better Promote and Assure Data Integrity
- •Culture of integrity
- •Database management systems
- •Robust quality agreements
- •Collaboration between countries
- •Computerized systems validation
- •List of abbreviations
- •Conclusion
- •Authors
- •References
- •9.1. Pharmaceuticals versus Biopharmaceuticals
- •9.2. Transcription and Translation: Central Dogma of Genetics
- •9.3. Biotechnology-derived Medicinal Products: Microbial versus Mammalian Substrates
- •9.4. Manufacture of Biotechnology-derived Medicinal Products: Key Processes
- •Introduction
- •Manufacture of biopharmaceuticals — an overview
- •Procurement and testing of biological starting materials
- •Generation and characterization of cell banks/seed lots
- •Cell culturing
- •Challenges concerning manufacture of biopharmaceuticals
- •Extensive process and product understanding required
- •Inherent variability of host cells
- •Downstream processing remains a key bottleneck
- •Review of current GMP frameworks for biopharmaceuticals
- •Challenges in the regulation of biopharmaceuticals
- •Resource-intensive evaluation of biosimilarity
- •Growing number of data integrity lapses
- •Proposed solutions to challenges of biopharmaceuticals
- •Optimizing biopharmaceutical manufacturing with Industry 4.0
- •Enhancing data integrity with a culture of quality (quality culture)
- •Conclusion
- •List of abbreviations
- •Authors
- •References
- •10.1. Introduction
- •10.2. Advantages of Nanomedicines
- •10.3. Types of Nanomedicines
- •10.3.1. Nanocarrier Systems
- •10.3.2. Nanosuspensions
- •10.4. Future of Nanomedicines
- •10.5. GMP Requirements Governing Nanomedicines and Challenges
- •10.5.1. Lack of Trained Personnel to Operate Manufacturing Processes
- •10.5.2. Lack of Safety Protocol for Manufacturing Personnel
- •10.5.3. Challenges in Controlling for Nanoparticle Contamination
- •10.6. Conclusion
- •11. Novel and Traditional Vaccines
- •11.1. Historical Development and Evolution of Traditional and Novel Vaccines
- •11.2. Traditional Vaccines Versus Novel Vaccines
- •Introduction
- •Traditional vaccines
- •Novel vaccines
- •Vaccine manufacture
- •Vaccine storage, transport and distribution
- •Regulatory controls
- •Challenges, safety and quality issues and possible solutions
- •Conclusion
- •Authors
- •References
- •12.1. Cells and Tissues
- •12.2. Gene Therapy Products
- •12.3. Published Article on CTGTPs
- •Introduction
- •CTGTPs and their principles of action
- •Manufacturing of CTGTPs
- •Premises and equipment
- •Materials and processing
- •Starting material
- •Quality control
- •Cryopreservation
- •Human resource and accreditation
- •Potential solutions to the challenges encountered in manufacturing
- •Outsourcing
- •Technology
- •Control of CTGTPs
- •Current regulatory framework
- •Risk-based approach
- •Conclusion
- •Authors
- •References
- •13. Hand Sanitizers
- •13.1. What are Hand Sanitizers?
- •13.4. Published Article and Commentary on Hand Sanitizers
- •Introduction
- •The microbiology of bacteria, fungi and viruses
- •Antimicrobial compounds and their applications in hand sanitizers
- •FDA policy for testing of alcohol and USP limits for methanol
- •Common myths about hand sanitizers
- •A lack of regulatory framework
- •Proposed solutions
- •Tightening the regulatory framework
- •Training pharmacists on hand sanitizer vigilance
- •Public Education
- •Conclusion
- •Authors
- •References
- •14. Pharmaceutical Dosage Forms
- •14.1. Introduction
- •14.2. What Are Pharmaceutical Dosage Forms?
- •14.4.1. Routes of Administration
- •14.4.1.1. Oral Dosage Forms — Solids
- •14.4.1.2. Oral Dosage Forms — Liquids
- •14.4.1.3. Topical Dosage Forms
- •14.4.1.5. Inhaled Dosage Forms
- •14.4.1.6. Ophthalmic Dosage Forms
- •14.4.1.7. Nasal Dosage Forms
- •14.4.1.8. Otic Dosage Forms
- •14.4.1.9. Rectal Dosage Forms
- •14.4.1.10. Vaginal Dosage Forms
- •14.4.1.11. Transdermal Patch
- •14.4.2. Physical Forms
- •14.4.2.1. Solid Dosage Forms
- •14.4.2.2. Liquid Dosage Forms
- •14.4.2.3. Semi-solid Dosage Forms
- •14.4.2.4. Gaseous or Aerosol Dosage Forms
- •14.5. Manufacture and Important Characteristics of Common Pharmaceutical Dosage Forms
- •14.5.1. Tablets
- •14.5.2. Capsules
- •14.5.3. Solutions
- •14.5.4. Suspensions
- •14.5.5. Emulsions
- •14.5.6. Creams
- •14.5.7. Ointments
- •14.5.8. Metered Dose Inhalers
- •14.6. Overall Summary of the Manufacture of a Pharmaceutical Dosage Form
- •15.1. Introduction

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Manufacture and Supply, Science and Reg ulation Towards High-Qua lity Medicinal Products
Under the Fusion Method, heating is employed; it is recommended
if the formulation consists of solid lipophilic components such as
beeswax, hard paran wax and stearyl alcohol. The Fusion Method
is suitable for both small-scale and large-scale production, where
steam-jacketed mixers are employed for melting the bases and mixing of the drug into the base.
14.5.8. Metered Dose Inhalers
Metered dose inhalers (MDI) are hand-held aerosol inhalers that
use a propellant to deliver a drug substance. They are also known
as pressurized MDIs as the device contains a metering valve in a
pressurized metal canister that contains the drug substance in a suspension. A surfactant is often added to stabilize the suspension and
to prevent caking. The metal cannister is housed in a plastic holder
with an attached mouthpiece and cap.

Pharmaceutical Dosage Forms
473
Parts of a metered-dose inhaler
Step-by-step instructions on the use of an inhaler

474
Manufacture and Supply, Science and Reg ulation Towards High-Qua lity Medicinal Products
In order to release the contents of the pressurized canister, the latter
has to be actuated or triggered. The actuation produces a fine atomized spray of the drug substance which are eventually deposited in
the lung region. MDIs remain as a first-line treatment for asthma
and other pulmonary conditions such as chronic obstructive pulmonary disease. The greatest single limitation of MDI is the inconsistent dosing that occurs with incorrect use of the inhaler. Hence,
proper education on inhaler use is of critical importance especially
for very young and elderly patients. For the MDI to deliver the drug
eciently to the lower reaches of the respiratory tract, the patient
must take a slow and deep breath to maximize passage of the aerosol in the airway, followed by a breath-hold to allow deposition
of the drug particles in the lungs. The many advantages of a MDI
include its portability, multi-dose delivery capabilities as well as
low risk of bacterial contamination. With modern technology, the
newer generation of MDIs incorporates a metering valve with a
smaller aperture. This generates aerosols of much finer particle size
for many active drug substances. The drug substances are now dissolved in hydrofluoroalkanes instead of being suspended in chlorofluorocarbons as with the older technology. The hydrofluoroalkanepropelled aerosol has a lower velocity and gentler plume. Combined
with the smaller particle size, this results in greater deposition in
the inner reaches of the respiratory tract, and less deposition in the
mouth-throat region. Deposition in the respiratory tract can also
be increased and mouth-throat deposition reduced by the use of
accessory devices such as a spacer. As the use of a spacer requires
coordination of actuation with inhalation, education on the use of
a spacer is also needed.
The manufacture of a MDI requires special GMP considerations
because of the particular nature of this form of product. All fluids

Pharmaceutical Dosage Forms
Use of spacer by asthmatic patient together with an inhaler
such as liquid or gaseous propellants should be filtered to remove
particles greater than 0.2 micron. Where possible, an additional filtration immediately before filling is desirable. Precautions should
be taken to ensure uniformity of suspensions at the point of fill
throughout the filling process. The manufacture of a MDI has to be
carried out under conditions which minimize microbial and particulate contamination. There are presently two common manufacturing and filling methods as described below:
475
• A two-shot pressure filling system where the active drug substance is suspended in a high-boiling-point propellant. The
required dose is put into the container, the valve is crimped on
and the lower-boiling-point propellant is injected through the
valve stem to make up the finished product. The suspension of
active drug substance in the propellant is kept cool to reduce
evaporation loss.
• A one-shot cold filling process where the active drug substance
is suspended in a mixture of propellants and held either under
high pressure or at a low temperature, or both. The suspension
is then filled directly into the container in one shot.

476
Manufacture and Supply, Science and Reg ulation Towards High-Qua lity Medicinal Products
Whatever the method, the manufacture and filling should be carried out as far as possible in a closed system. Where the clean MDI
components are exposed, the area should be supplied with filtered
air, compliant with the requirements of at least a Grade D environment with entry via airlocks. When a two-shot filling process is used,
it is necessary to ensure that both shots are of the correct weight in
order to achieve the correct composition. For this purpose, 100%
weight checking at each stage is often desirable. In-process quality
controls after filling should ensure the absence of undue leakage.
Any leakage test should be performed in a way which avoids microbial contamination or residual moisture. Annex 10 of the PIC/S
Guide to GMP for Medicinal Products provides special considerations in the manufacture of pressurized metered dose aerosol preparations for inhalation.
14.6. Overall Summary of the Manufacture of a Pharmaceutical Dosage Form
What goes on in the making of a pharmaceutical dosage form?
What are the inputs and outputs of the manufacturing processes?
At any pharmaceutical manufacturing facility, the inputs are the
starting materials comprising the active pharmaceutical ingredients, also referred to as the drug substances, and the excipients,
sometimes referred to as the inactive pharmaceutical ingredients
or packaging materials. The starting materials are kept at appropriate storage areas within the warehouse. The initial step in the
manufacture of a pharmaceutical product involves the weighing of
APIs and excipients of approved quality, and this is followed by the
actual manufacture of the product. The dierent production steps

Pharmaceutical Dosage Forms
or manufacturing processes include weighing, mixing (also known
as blending), granulation, drying, if necessary compression, coating
in the case of solid dosage forms like tablets and pills, dissolution
and homogenization in the case of liquids and semi-solid dosage
forms like creams and ointments, and sterilization in the case of eye
drops and injectable products. Following production, the various
dosage forms are packaged and labeled, and turned into finished
products such as tablets, capsules, solutions, suspensions, emulsions,
creams, ointments, eye drops and injections, which are the outputs.
During production and packaging, the intermediate and finished
products are subject to in-process quality control tests and assessments before they are released for distribution and use.
Appended below is a typical manufacturing flow in a pharmaceutical dosage form production facility.
477


Part IV
Assuring Quality and Supply Chain
Integrity of Starting Materials and
Other Health Products


Chapter 15
Assuring Quality and Supply Chain
Integrity of Active Pharmaceutical
Ingredients
481
15.1. Introduction
ctive pharmaceutical ingredients (APIs) are defined
as substances intended to be used in the manufacture
of medicinal products and, when used in the formu-
A
becomes an active ingredient of that product. Without APIs, the
medicinal products in finished dosage forms are nothing more
than placebos. Generally, APIs are manufactured in large production batches which can be used to make many dosage units
lation and production of a finished drug product,
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