Intellectual Property Rights (IPRs) are legal rights that protect creations and/or inventions resulting from intellectual activity in the industrial, scientific, literary, or artistic fields. The most common IPRs include patents, copyrights, marks, and trade secrets and Regulatory affair is a profession developed from the desire of governments to protect public health by controlling the safety and efficacy of products in areas including pharmaceuticals, veterinary medicines, medical devices, pesticides, agrochemicals, cosmetics, and complementary medicines, and by the companies
Intellectual Property Rights (IPRs) are legal rights that protect creations and/or inventions resulting from intellectual activity in the industrial, scientific, literary, or artistic fields. The most common IPRs include patents, copyrights, marks, and trade secrets and Regulatory affair is a profession developed from the desire of governments to protect public health by controlling the safety and efficacy of products in areas including pharmaceuticals, veterinary medicines, medical devices, pesticides, agrochemicals, cosmetics, and complementary medicines, and by the companies
Biosimilar a biological drug evaluation includes the biopharmaceutical families, the difference between small molecules and bio-pharmaceutical products, the regulatory requirements for biosimilars and the fact about biosimilars and biologic / bio pharmaceuticals the competent authorities and the key component of successful pharmacovigilane programs
This presentation reviews current trends in bioprocessing purification and includes key considerations for continuous processing and connected polishing for monoclonal antibodies. Topics include:
• Market trends and the evolution of next-generation processes
• Intensified capture processing
• Continuous virus inactivation
• Connected flow-through polishing
To learn more about this topic or collaborate with our technical experts, schedule an in-person or remote visit at our M Lab™ Collaboration Centers: www.merckmillipore.com/mlab
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The webinar discusses our strategies for developing lentivirus and adeno associated virus (AAV) and the impact these early decisions can have on commercial readiness.
Watch the interactive webinar now: https://bit.ly/2VplwQq
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Technology transfer could be considered as the corner stone of biodevelopment activities, as it is required each time people want to switch from a lab or a facility to another. It is expected to be handled in a methodical manner, following regulatory requirements, in order to ensure patients safety. Difficulties often come from differences between sending and receiving entities, where equipment, level of resources, internal culture, can be different. In case of failure, the cost can be huge for a drug maker.
This presentation will cover points to consider for successful tech transfers, and includes lessons learned from real cases.
In this webinar, you will learn:
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● How to build a team and tech transfer a process.
● How to accurately assess the success of a tech transfer.
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Keeping the (Adventitious) Virus Out of the (Adeno-Associated) VirusMilliporeSigma
Watch the presentation of this webinar here: https://bit.ly/2VRylbi
How can you keep an adventitious virus from contaminating your gene therapy that is delivered by an adeno virus vector? As viral vector bioprocessing advances, regulatory requirements for viral safety will as well. Learn how to define your viral clearance strategy for AAV delivered gene therapies.
How do you define a strategy for viral clearance for a process that inherently aims at purifying a virus?
Gene delivery using AAV has received a boost from two major approvals and the nearly 300 programs in the clinic. Novel gene therapies using viral vectors enable companies to transform the lives of people living with certain rare and ultra-rare diseases where treatments are often not available currently. Amongst a multitude of challenges in viral vector bioprocessing, uncertainty in regulatory expectations is a major challenge to gene therapy developers. Regulatory requirements are evolving as the science and manufacturing matures with more stringent measures for viral safety assurance expected for future approvals.
Learn how to implement techniques for adventitious virus removal in your viral vector process; we will focus on strategies for viral clearance along your journey towards commercial readiness of AAV-based processes.
In this webinar, you will learn:
• AAV process flows and focus areas for viral safety
• Strategies for implementing viral clearance measures in bioprocessing
• Case studies and data driven approaches on log reduction values (LRV) in a viral vector process
• Best practices and evaluation roadmaps on conducting viral clearance studies
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Quality Assurance and Regulatory Compliance for Pharmaceutical Product, Prof. Dr. Basavaraj K. Nanjwade, KLE University College of Pharmacy, Belgaum/Belagavi
Biosimilar a biological drug evaluation includes the biopharmaceutical families, the difference between small molecules and bio-pharmaceutical products, the regulatory requirements for biosimilars and the fact about biosimilars and biologic / bio pharmaceuticals the competent authorities and the key component of successful pharmacovigilane programs
This presentation reviews current trends in bioprocessing purification and includes key considerations for continuous processing and connected polishing for monoclonal antibodies. Topics include:
• Market trends and the evolution of next-generation processes
• Intensified capture processing
• Continuous virus inactivation
• Connected flow-through polishing
To learn more about this topic or collaborate with our technical experts, schedule an in-person or remote visit at our M Lab™ Collaboration Centers: www.merckmillipore.com/mlab
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Today’s viral vector manufacturing processes remain challenging. Process development is a critical enabler to bring safe, effective, sustainable products to market to address patient needs. When done properly, it can reduce the timeline of the project and the cost of producing the therapeutic product.
The webinar discusses our strategies for developing lentivirus and adeno associated virus (AAV) and the impact these early decisions can have on commercial readiness.
Watch the interactive webinar now: https://bit.ly/2VplwQq
Tech transfer and Scale-up - Tips and tricks from a Biodevelopment centerMilliporeSigma
Technology transfer could be considered as the corner stone of biodevelopment activities, as it is required each time people want to switch from a lab or a facility to another. It is expected to be handled in a methodical manner, following regulatory requirements, in order to ensure patients safety. Difficulties often come from differences between sending and receiving entities, where equipment, level of resources, internal culture, can be different. In case of failure, the cost can be huge for a drug maker.
This presentation will cover points to consider for successful tech transfers, and includes lessons learned from real cases.
In this webinar, you will learn:
● How to design a bioreactor model in order to scale up a process.
● How to build a team and tech transfer a process.
● How to accurately assess the success of a tech transfer.
Biosimilar Development Regulatory, Analytical, and Clinical Considerations SGS
The development pathway of a biosimilar is unlike that of a novel biotherapeutic. While there is an increased requirement for analytics throughout a biosimilars development project, and a Phase II clinical trial is generally omitted, careful consideration must be given to the planning of the other phases of development. Many regulatory authorities reference a “step-by-step” approach to establishing biosimilarity. This presentation will provide a look at the multi-stage development for a biosimilar, including a review of the regulatory landscape, structural characterization techniques for biosimilarity assessment, and early phase clinical research challenges
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Watch the presentation of this webinar here: https://bit.ly/2VRylbi
How can you keep an adventitious virus from contaminating your gene therapy that is delivered by an adeno virus vector? As viral vector bioprocessing advances, regulatory requirements for viral safety will as well. Learn how to define your viral clearance strategy for AAV delivered gene therapies.
How do you define a strategy for viral clearance for a process that inherently aims at purifying a virus?
Gene delivery using AAV has received a boost from two major approvals and the nearly 300 programs in the clinic. Novel gene therapies using viral vectors enable companies to transform the lives of people living with certain rare and ultra-rare diseases where treatments are often not available currently. Amongst a multitude of challenges in viral vector bioprocessing, uncertainty in regulatory expectations is a major challenge to gene therapy developers. Regulatory requirements are evolving as the science and manufacturing matures with more stringent measures for viral safety assurance expected for future approvals.
Learn how to implement techniques for adventitious virus removal in your viral vector process; we will focus on strategies for viral clearance along your journey towards commercial readiness of AAV-based processes.
In this webinar, you will learn:
• AAV process flows and focus areas for viral safety
• Strategies for implementing viral clearance measures in bioprocessing
• Case studies and data driven approaches on log reduction values (LRV) in a viral vector process
• Best practices and evaluation roadmaps on conducting viral clearance studies
Presented by: Ratish Krishnan, Senior Strategy Consultant, Novel Modalities Bioprocessing
Quality Assurance and Regulatory Compliance for Pharmaceutical Product, Prof. Dr. Basavaraj K. Nanjwade, KLE University College of Pharmacy, Belgaum/Belagavi
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Familiarize Yourself with Applicable Regulations: Stay updated on the relevant regulations and guidelines that govern clinical research, including FDA regulations, International Council for Harmonisation of Technical Requirements for Pharmaceuticals for Human Use (ICH) guidelines, and local regulatory requirements. Understand the specific regulations that apply to your study, such as those related to investigational new drugs (IND) or investigational device exemptions (IDE).
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Investigational New Drug (IND) or Investigational Device Exemption (IDE) Application: If your clinical research involves the use of investigational drugs or devices, you may need to submit an IND or IDE application to the FDA. These applications provide detailed information on the investigational product, its safety, efficacy, manufacturing processes, and proposed study design.
Good Clinical Practice (GCP) Guidelines: GCP guidelines provide a framework for the conduct of clinical research to ensure data integrity and participant protection. Adhere to GCP principles, including informed consent, protocol adherence, accurate documentation, and appropriate monitoring and reporting of adverse events.
Adverse Event Reporting: Monitor and report adverse events occurring during the study promptly. Follow the FDA's requirements for safety reporting, including expedited reporting of serious and unexpected adverse events. Maintain accurate and complete records of adverse events and their follow-up actions.
Data Integrity and Documentation: Ensure the integrity, accuracy, and traceability of study data. Implement robust data management practices, including proper documentation, source data verification, and secure storage of study documents. Follow regulatory requirements for data retention, including archiving study records for the required period.
Audits and Inspections: Be prepared for audits and inspections by regulatory agencies. Maintain organized and easily accessible study documentation, including study protocols, informed consent forms, case report forms, and correspondence with IRBs and regulatory agencies. Cooperate with auditors or inspectors and address any identified deficiencies or findings promptly.
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This pdf is about the Schizophrenia.
For more details visit on YouTube; @SELF-EXPLANATORY;
https://www.youtube.com/channel/UCAiarMZDNhe1A3Rnpr_WkzA/videos
Thanks...!
(May 29th, 2024) Advancements in Intravital Microscopy- Insights for Preclini...Scintica Instrumentation
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Professional air quality monitoring systems provide immediate, on-site data for analysis, compliance, and decision-making.
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Overview of Biopharmaceuticals -basics for students
1. Presented by SATHEESH KUMAR.SSK in Oxford
college of science.Bangalore.
(Dedicated to biotech students community.)
Contact: satheeshbiotech786@gmail.com
3. Molecules used as active substances can be divided
into two classes – small and large molecules. They
differ not only in terms of size, but also in how
they are made, how they behave, their mode of
action in the body and their suitability for certain
drug forms.
Small, chemically manufactured molecules (or SMOLs
for short) are the classic active substances and still
make up over 90 percent of the drugs on the market
today. By contrast, large molecules – also known as
biologics – are therapeutic proteins; they are
becoming increasingly important.
Example for small molecule: acetylsalicylic acid (ASA)
Example for large molecule: Insulin.
4.
5. Every country has its own regulatory authority, which is responsible
to enforce the rules and regulations and issue the guidelines to
regulate drug development process,licensing, registration,
manufacturing, marketing and labeling of pharmaceutical products.
USFDA(USA), MHRA(UK), TGA(Australia), CDSCO(India), HEALTH
CANADA(CANADA), MCC(South Africa),ANVISA (Brazil) , EMEA
(European Union), SFDA (China),NAFDAC(Nigeria),
MEDSAFE(Newzeland), MHLW(Japan), MCAZ(Zimbabwe),
SWISSMEDIC(Switzerland), KFDA(Korea), MoH (Sri Lanka) are the few
regulatory agencies and organizations established in respective
countries.
World Health Organization (WHO), Pan American Health Organization
(PAHO), World Trade Organization (WTO), International Conference
on Harmonization (ICH), World Intellectual Property Organization
(WIPO) are some of the international regulatory agencies and
organizations which also play essential role in all aspects of
pharmaceutical regulations related to drug product registration,
manufacturing, distribution, price control, marketing, research and
development, and intellectual property protection.
6. New drugs begin in the laboratory with scientists, including chemists and
pharmacologists, who identify cellular and genetic factors that play a role
in specific diseases. They search for chemical and biological substances
that target these biological markers and are likely to have drug-like
effects. Out of every 5,000 new compounds identified during the discovery
process, approximately five are considered safe for testing in human
volunteers after preclinical evaluations. After three to six years of further
clinical testing in patients, only one of these compounds on average is
ultimately approved as a marketed drug for treatment.
Insilico and invitro analysis plays a key role in this stage of drug
development.
An NCE is a molecule developed by the innovator company in the early
drug discovery stage, which after undergoing clinical trials could translate
into a drug that could be a cure for some disease. Synthesis of an NCE is
the first step in the process of drug development. Once the synthesis of
the NCE has been completed, companies have two options before them.
They can either go for clinical trials on their own or license the NCE to
another company.
7. Pharmacodynamics (what the drug does to
the body)..Eg:Agonist or Antagonist.
Pharmacokinetics (what the body does to the
drug)
ADME studies.
Animal testing
a.)Institutional Animal Care and Use
Committee (IACUC)
B.) Committee for the purpose of control and
supervision on Experimentation on
Animals.(CPCSEA)
8. CDER is the largest of FDA's six centers, It has
responsibility for both prescription and nonprescription or
over-the-counter (OTC) drugs
Some companies submit a investigation of new Drug (IND)
to introduce a new drug product into the market.
IRB reviews the IND,
CDER's Manual of Policies and Procedures (MaPPs) are
approved instructions for internal practices and procedures
followed by CDER staff to help standardize the new drug
review process and other activities. All MAPPs are available
for the public to review for a better understanding of
office policies, definitions, staff responsibilities and
procedures.
5210.5 Review of Investigational New Drug Applications
(Bio-INDs) by the Office of Generic Drugs.
The Applicant are allowed to file the patent once IND is
approved.
9. There are two IND categories:
Commercial
Research (non-commercial)
The IND application must contain information in
three broad areas:
Animal Pharmacology and Toxicology Studies
Manufacturing Information
Clinical Protocols and Investigator Information
Once the IND is submitted, the sponsor must
wait 30 calendar days before initiating any
clinical trials.
10. The final regulations published in the Federal
Register (daily published record of proposed
rules, final rules, meeting notices, etc.) are
collected in the Code Of Federal Regulations
(CFR). The CFR is divided into 50 titles that
represent broad areas subject to Federal
regulations. The FDA's portion of the CFR
interprets the The Federal Food, Drug, and
Cosmetic Act and related statutes. Section
21 of the CFR contains most regulations
pertaining to food and drugs. The
regulations document all actions of all drug
sponsors that are required under Federal law.
11. 21CFR Part 312 Investigational New Drug
Application/ 21CFR Part 314 INDA and NDA
Applications for FDA Approval to Market a
New Drug (New Drug Approval) 21CFR Part
316 Orphan Drugs 21CFR Part 58 Good Lab
Practice for Nonclinical Laboratory [Animal]
Studies 21CFR Part 50 Protection of Human
Subjects 21CFR Part 56 Institutional Review
Boards 21CFR Part 201 Drug Labeling 21CFR
Part 54 Financial Disclosure by Clinical
Investigators
12. Phase-1: To evaluate safety. Ranges 20 to 80
peoples
Phase -2: Establishing the efficacy of the
drug, usually against a placebo. Testing with
a larger group of people (100–300)
Phase-3:Final confirmation of safety and
efficacy. Testing with large groups of people
(1,000–3,000)
Phase-4( usually happens after PD and
marketing)
13. Process development scientists aim to
optimise the performance of manufacturing
systems. They are responsible for identifying
and developing new processes for product
manufacture, as well as putting in place
process controls to make sure the products
are of a high quality and are manufactured in
a reproducible manner.
Product development scientists work with
research scientists to develop new ideas and
scientific discoveries, which can be used in
the manufacture of new products. They also
develop and improve existing products.
14. The sponsor submitted a New Drug
Application (NDA) with full information on
manufacturing specifications, stability and
bioavailablility data, method of analysis of
each of the dosage forms the sponsor intends
to market, packaging and labeling for both
physician and consumer, and the results of
any additional toxicological studies not
already submitted in the Investigational New
Drug application.
15. New drugs, like other new products, are
frequently under patent protection during
development.
When the patents or other periods of
exclusivity on brand-name drugs expire,
manufacturers can apply to the FDA to sell
generic versions.
The Abbreviated New Drug Applications
(ANDA) Gives the guidance,laws and
regulation for generic drug.
16. A Drug Master File (DMF) is a submission to the
Food and Drug Administration (FDA) that may be
used to provide confidential detailed information
about facilities, processes, or articles used in
the manufacturing, processing, packaging, and
storing of one or more human drugs. The
submission of a DMF is not required by law or
FDA regulation. A DMF is submitted solely at the
discretion of the holder. The information
contained in the DMF may be used to support an
Investigational New Drug Application (IND), a
New Drug Application (NDA), an Abbreviated New
Drug Application (ANDA),
17. This guideline does not impose mandatory
requirements (21 CFR 10.90(b)). It does,
however, offer guidance on acceptable
approaches to meeting regulatory
requirements.
Drug Master Files are provided for in 21 CFR
314.420
18. There are five types of DMF's:
Type I Manufacturing Site, Facilities,
Operating Procedures, and Personnel
Type II Drug Substance, Drug Substance
Intermediate, and Material Used in Their
Preparation, or Drug Product
Type III Packaging Material
Type IV Excipient, Colorant, Flavor, Essence,
or Material Used in Their Preparation
Type V FDA Accepted Reference Information
19. Clean rooms:
HVAC
BSL Facility.
Upstream Equipments
Downstream Equipments
Utilities( WFI,purified water,bioler for steam)
Documentation as per GMP regulation
including system enteries.
Trained man powers.
20. Some vital examples of validation:
Validation of clean rooms
Validation of HVAC
Validation of process
Validation of cleaned container.
Validation of equipments installed.
22. Design Qualification is used at the stage
where a design that has been developed from
the, URS and other Health and Safety
Guidelines, is reviewed and documented by
competent persons to ensure that the
designed equipment, if built, will satisfy all
the detailed specified requirements
23.
24. The Installation Qualification (IQ) execution;
verifies that the equipment, and its ancillary
systems or sub-systems have been installed
in accordance with installation drawings and
or specifications. It further details a list of
all the cGMP requirements that are
applicable to this particular installation
qualification. These requirements must all be
satisfied before the IQ can be completed and
the qualification process is allowed to
progress to the execution of the Operational
Qualification (OQ).
25. The Operational Qualification Protocol is a
collection of test cases used to verify the
proper functioning of a system. The
operational qualification test requirements
are defined in the Functional Requirements
Specification. Operational Qualification is
usually performed before the system is
released for use.
26. Performance Qualifications are a collection of
test cases used to verify that a system performs
as expected under simulated real-world
conditions. The performance qualification tests
requirements defined in the User Requirements
Specification (or possibly the Functional
Requirements Specification).
Performance Qualifications should be approved
before protocol execution. A copy of the
unexecuted protocol should be kept in the
validation package. The unexecuted protocol
should be approved by the System Owner and
Quality Assurance. The executed protocol should
be signed by the tester and reviewed by the
system owner and Quality.
27. The Factory Acceptance Test (FAT) is a major
project milestone where the vendor
demonstrates that the system design and
manufacturing meets the contract specifications.
FATs generally consist of the following:
Review of the specification line by line while
checking the equipment for compliance with the
specification.
Review of appropriate standards and regulations
referenced.
Inspection for workmanship.
Inspection for damage that can occur during
installation (lift points, accessibility, etc.).
28. A SAT is a Site Acceptance Test the system is
tested in accordance to client approved test
plans and specifications to show the system
is installed properly and interfaces with
other systems and peripherals in its working
environment.
29.
30. A cleanroom or clean room is an
environment, typically used in manufacturing
or scientific research, with a low level of
environmental pollutants such as dust,
airborne microbes, aerosol particles, and
chemical vapors.
31.
32. CLASS A CLASS 100
CLASS B CLASS 1000
CLASS C CLASS 10000
CLASS D CLASS 100000
33.
34. HVAC (heating, ventilating, and air
conditioning) is the technology of indoor and
vehicular environmental comfort. Its goal is
to provide thermal comfort and acceptable
indoor air quality.
Ventilation includes both the exchange of air
to the outside as well as circulation of air
within the building. It is one of the most
important factors for maintaining acceptable
indoor air quality in buildings.
35.
36.
37. Biological Safety Cabinets (BSCs), which are the primary
means of containment developed for working safely with
infectious microorganisms.
Three kinds of biological safety cabinets, designated as
Class I, II(type A1,A2 and Type B1 and B2) and class III.
BSL types Personnel
protection
Environmen
t Protection
Product
Production
CLASS-1 Yes Yes NO
CLASS-2 Yes Yes Yes
CLASS-3 yes yes yes
38. It is similar in terms of air movement to a
chemical fume hood,but has a HEPA filter in the
exhaust system.
unfiltered room air is drawn in through the work
opening and across the work surface.
minimum velocity of 75 linear feet per minute
(lfm) is maintained through the front opening.
Used in centrifuges, harvesting equipment or
small fermenters.
39.
40. Air flow is drawn from the room around the
operator into the front grille of the cabinet,
which provides personnel protection. In
addition, the downward laminar flow of
HEPA-filtered air provides protection for
experimental material inside the cabinet.
Because cabinet air has passed through the
exhaust HEPA filter, it is contaminant-free,
providing environmental protection, and may
be recirculated back into the laboratory
(Class II Type A) or ducted out of the building
(Class II Type B).
41. Due to the relative size of these two filters,
approximately 30% of the air passes through
the exhaust HEPA filter and 70% recirculates
through the supply HEPA filter back into the
work zone of the cabinet.
42.
43. The Class III biological safety cabinet is most
suitable for work with biohazardous agents
requiring high contain (biosafety level 3 or
4). The Class III cabinet is completely
enclosed, HEPA filter-ventilated cabinet
fitted with glove ports and decontamination
capabilities for entry and exit of material. It
offers the highest degree of personnel and
environmental protection from infectious
aerosols.
44.
45. PURE STEAM:
IMPURE STEAM
WFI ( Water for injection): Its helps to
prevent endotoxin contamination
Purified water by MCDS
Sterile air.
46. Departments.
1.) Board of Directors.
2.)Human resource and admins
3.)Research and development:---
a.)Research investigators
b.)Process development
4.) Production development
5.)Quality assurance
6) Quality control
7) Storage and packing department.
9)Logistics and marketting people.
10) Technology transfer department
11)IP and IT deparrtments
47. In the eyes of regulatory authorities, the quality issues of
biologics are definitely different from chemical drugs
because of: (1) use of living source materials to produce
the biologic, (2) increased complexity of biologic
manufacturing processes and (3) increased complexity of
the biologic molecules themselves. While chemical drugs
can become generics, biologics products are best viewed
as biosimilars, and not as bio-generics.
Biologics are highly susceptible to adventitious agent
contamination – prions, viruses, mycoplasmas, and
bacteria/fungi microbes. Risk control procedures –
such as barriers to entry, testing to confirm absence,
and inactivation/removal – are essential. Lessons can
be learned from reported contaminations of biologic
manufacturing processes. Compared to chemical
drugs, biologics have a more complex process-related
impurity safety profile, especially due to the living
system-related impurities
48. quality assurance is any systematic process
of checking to see whether a product or
service being developed is meeting specified
requirements. Many companies have a
separate department devoted to quality
assurance. A quality assurance system is said
to increase customer confidence and a
company's credibility, to improve work
processes and efficiency, and to enable a
company to better compete with others.
49. 1.) Wet lab work:
Working along with the team of quality
analyst and manufacturers to ensure
Quality,safety and efficacy of a product
through out the production process and to
ensure the whole process is carried out in
compliance with the standard regulatory
requirements
50. 2) Regulatory work
a.)Work with local and international
organisation to guarantee products adhere to
certain standards
b.) Prepare submission to regulatory bodies
and review submission results
c.) Resolve problems where results fail to
meet certain guidelines
d.) One can work either in a pharmaceutical
company, for an independent regulatory firm
that helps companies, or even for the
regulatory bodies themselves.
51. Pharmaceutical companies routinely require
external audits to ensure operations are in
accordance with established guidelines
Audit Types in Biopharmaceuticals:
Internal audit
A financial audit
A compliance audit
An operational audit,
52. 1) internal audit with accordance to ICH-
Q10(Quality management system)
a.) Plan the audit
b.)Conduct the audit
c.)Report and close the audit
d.)Follow up the audit.
53. Compliance audit will assess level of
conformance with operating procedures as
stipulated by contractual arrangements
and/or government regulatory agencies,
including an investigation of hard-copy
prescriptions, computerized records of refills
and invoice records.
54. An operational audit, also called a
performance or management audit, seeks to
evaluate the company's overall efficiency as
a vendor administering prescription plans for
various sponsors.
A real time Example: GSK, a pioneer in
pharmaceuticals is presently dependent on
Kemwell biopharma(an CRO) for their
production of a X synthetic drug. So GSK
holds the right to conduct a performance
audit in kemwell to meet the quality
standards of production
55.
56. An example: The srikulam facility of Dr
reddys lab was inspected by USFDA On
nov.14th resulting in a form 483 with nine
observations.The observation was largely
related to Procedural and other compliances
of the plant system.
then later company responded to the agency
with its remediation plans and avoided
further enforcement.
57. Production: can be subdivided under two
streams namely: USP and DSP. The
equipments and operations involved differs
from product to another product.
QA should be in full swing to prepare
BMR,checklist,SOP,EOP,STP. Etc..
QC should be well organised with
sophisticated intruments like HPLC,GC,ASS
MS. Etc..the instrument requirement differs
according to the nature of the product
58. QC laboratories controlling the quality of
commercial drugs that are sampled from large
repetitive batch production should comply
withall GMP requirements listed in CFR Part 210
and 211
There involved three section of Qc analysis in
any production plant.
1) Raw material analysis.
2)in process analysis
3) Finished product anaysis
If any deviation or ooz is observed in the above
said three analysis then it should be informed to
QA where they ll try to do CAPA ( corrective and
preventive action).
59. Quality control Stability analysis falls into 2
catagories:
A) Real time stability analysis
B) Facilititated stability analysis.
60. MARKETTING is the prime and foremost focus
of any owner.
Marketing is said to be a heart of any
business.
Product selling and technology transfer are
the two rhythms of any biopharmaceuticals
Technology transfer managers who are expert
in both technical aswell as management are
a key players.
61. Postmarketing drug surveillance refers to the
monitoring of drugs once they reach the
market after clinical trials. It evaluates drugs
taken by individuals under a wide range of
circumstances over an extended period of
time. Such surveillance is much more likely
to detect previously unrecognized positive or
negative effects that may be associated with
a drug. The majority of postmarketing
surveillance concern adverse drug reactions
(ADRs) monitoring and evaluation
62. united States Patent and Trademark Office (USPT0) is the
regulatory authority for patent management.
Once the patent term ends, the innovating company loses
its market exclusivity privilege as generic manufactures
enter the market. There however are processes to extend
the life of a patent term through “patent term
restoration.” Additionally, the innovating company still
enjoys market exclusivity while generic manufactures
undergo their required FDA approval process.
Another method of patent extension, due to the FDA
approval process, is under the Drug Price Competition and
Patent Term Restoration Act of 1984, also known as the
Hatch-Watchman Act. The act provides a maximum 5-year
extension, and is limited to a 14-year term from the time
of FDA approval. The calculation of extension is complex
and depends on patent prosecution and approval factors.
63. Biosimilars, also known as follow-on biologics, are
biologic medical products whose active drug
substance is made by a living organism or derived
from a living organism by means of recombinant DNA
or controlled gene expression methods.
Biosimilars (or follow-on biologics) are terms used to
describe officially approved subsequent versions of
innovator biopharmaceutical products made by a
different sponsor following patent and exclusivity
expiry on the innovator product.[1] Biosimilars are
also referred to as subsequent entry biologics (SEBs)
BPCI Act
The Biologics Price Competition and Innovation Act of
2009
Code of Federal Regulations, Title 21, Part 610.10 ...
Part 210, 211(21 CFR 210, 211)
64.
65. The term biobetter refers to a recombinant
protein drug that is in the same class as an
existing biopharmaceutical but is not
identical; it is improved over the original.
Biobetters build on the success of existing,
approved biologics but are considered less of
a commercial risk than developing a brand
new class of biologic.
One example is Centocor/J&J’s new anti-TNF
(tumor necrosis factor); the first was highly
immunogenic — their biobetter is humanized
to reduce this undesirable effect.
66. Biosimilars are seen in some non-U.S. countries
as a “biologic generic.” They are intended to be
identical to the originator biologic drugs. But,
since they are manufactured using a new
process, they will have subtly different
structures and possibly different actions. For
these reasons, the United States is unlikely to
allow them as substitutes for originator biologics
without proof from expensive clinical trials. In
contrast, biobetters are not copies and will
never be considered generics. Biobetters are
new molecular entities that are related to
existing biologics by target or action, but they
are deliberately altered to improve disposition,
safety, efficacy, or manufacturing attributes.
67. biobetters may be targeted to have improved
pharmacodynamics leading to less frequent
dosing or reduced side-effect profiles or may
have sustained or slow release formulations.
68. Biobetters allow companies to target an
established mechanism, safety, and efficacy
profile but gain the benefit of the patent
protection and sales of a new molecular
entity. The development costs are the same
as developing a new biological product, but
the chances of successful registration are
significantly higher. This means the business
risk in developing a biobetter is significantly
reduced and the potential for return on
investment for a manufacturer is greatly
improved.
69. 1.USFDA:The mission of FDA's Center for Drug
Evaluation and Research (CDER) is to ensure that
drugs marketed in this country are safe and
effective
CDER is the largest of FDA's six centers. It has
responsibility for both prescription and
nonprescription or over-the-counter (OTC) drugs
ASME –BPE.
ICH
FFDCA(Federal Food, Drug, and Cosmetic Act)
regulatory section deals with medical device
CMS –CENTRE FOR MEDICARE AND MEDICAID
SERVICES-havecontrols over genetic test and
diagnostic kids manufacturing.
70. The Code of Federal Regulations (CFR) is a
codification of the general and permanent rules
published in the Federal Register by the
Executive departments and agencies of the
Federal Government.. Title 21 of the CFR is
reserved for rules of the Food and Drug
Administration. Each title (or volume) of the CFR
is revised once each calendar year. A revised
Title 21 is issued on approximately April 1st of
each year and is usually available here several
months later.
Example : 21 CFR part 11 : contains the details
about electronic records and signatures
71. EU provides information for companies and
individuals involved in developing and
marketing medicines for human use in the
European Union (EU).
72. The International Conference on Harmonisation
of Technical Requirements for Registration of
Pharmaceuticals for Human Use (ICH) is unique
in bringing together the regulatory authorities
and pharmaceutical industry to discuss scientific
and technical aspects of drug registration. Since
its inception in 1990, ICH has gradually evolved,
to respond to the increasingly global face of drug
development, so that the benefits of
international harmonisation for better global
health can be realised worldwide. ICH's mission
is to achieve greater harmonisation to ensure
that safe, effective, and high quality medicines
are developed and registered in the most
resource-efficient manner.
73.
74. quality guidelines.(ICH Q1 to ICH Q12)
Safety guidelines.(ICH S1 to ICH S11)
Efficacy guidelines.(ICH E1 to ICH E18)
Multidisciplinary quidelines.( ICH M1 to M8)
75.
76. ICH Q7 – GMP
ICH Q2 – Analaytical validation
ICH Q10- Pharmaceutical quality system.
ICH S2-GENOTOXICITY STUDIES
ICH S4-TOXICITY STUDIES
ICH E6-Good clinical practice
ICH E16- Qualification of genomic markers.
77. Good Laboratory Practice (GLP) embodies a set
of principles that provides a framework within
which laboratory studies are planned,
performed, monitored, recorded, reported and
archived. These studies are undertaken to
generate data by which the hazards and risks to
users, consumers and third parties, including
the environment, can be assessed for
pharmaceuticals (only preclinical studies),
agrochemicals, cosmetics, food additives, feed
additives and contaminants, novel foods,
biocides, detergents etc.... GLP helps assure
regulatory authorities that the data submitted
are a true reflection of the results obtained
during the study and can therefore be relied
upon when making risk/safety assessments.
78. Good Automated Manufacturing Practice
(GAMP) is both a technical subcommittee of
the International Society for Pharmaceutical
Engineering (ISPE) and a set of guidelines for
manufacturers and users of automated
systems in the pharmaceutical industry
The Good Automated Manufacturing Practice
(GAMP) Guide for Validation of Automated
Systems in Pharmaceutical Manufacture
describes a set of principles and procedures
that help ensure that pharmaceutical
products have the required quality.
79. One of the core principles of GAMP is that
quality cannot be tested into a batch of
product but must be built into each stage of
the manufacturing process. As a result, GAMP
covers all aspects of production; from the
raw materials, facility and equipment to the
training and hygiene of staff. Standard
operating procedures (SOPs) are essential for
processes that can affect the quality of the
finished product.
84. Biozeen
Biocon
Lablink biotech
Mr.Easwaran
Dr. Prasad rao.
To my father: KR.Sasidharan
M/s.sultana.
Thankyou one and all of you.you people played
a core role in my life. And will remain a long
lasting memory in my heart..i hope this slide will
help upcoming biotech students to learn and
know about certain basics in
biopharmaceuticals(obsolutely not all
concepts)..All the best students.