The document discusses the International Council for Harmonization (ICH). ICH aims to harmonize technical requirements for pharmaceutical product registration among regulators in Europe, Japan, and the United States to reduce duplication of testing and make the development of new medicines more efficient. It outlines the structure of ICH, including its steering committee and expert working groups. ICH guidelines cover quality, safety, efficacy, and multidisciplinary topics. The overall goal is to streamline drug development while maintaining high standards for safety, quality and efficacy.
Preparation of Clinical Trial Protocol of India.Aakashdeep Raval
The document provides information on clinical trial protocols in India. It discusses the purpose of clinical trials and phases of clinical trials from Phase 0 to Phase 4. It explains that the clinical trial protocol is a document that states the background, objectives, design, methodology and statistical considerations of a clinical trial. The protocol describes inclusion/exclusion criteria, assessments of efficacy and safety, data management, quality control and other key elements to ensure proper conduct of the clinical trial. An effective clinical trial protocol provides all the necessary details to guide researchers in safely and ethically evaluating a medical treatment.
The document discusses India's drug regulatory system. The Drug Controller General of India regulates drugs and medical devices in the country to ensure quality, safety and efficacy. New drugs require approval through a New Drug Application process which involves submitting documentation on manufacturing, non-clinical studies, and clinical trials for review. It takes about a year to review an NDA and various forms and fees are involved in the approval and import license application processes.
The document discusses the Code of Federal Regulations (CFR) Title 21, which deals with governing food and drugs in the United States. It is divided into 3 chapters that cover the Food and Drug Administration, Drug Enforcement Agency, and Office of National Drug Control Policy. Part 11 of Title 21 specifically addresses electronic records and electronic signatures for pharmaceuticals and medical devices.
- Whilst the realization of the CTD took many years, there is now a common format for the submission of Marketing Authorizations Applications across the three ICH regions - Europe, Japan and the USA.
- This should facilitate pharmaceutical companies to make simultaneous filings in the ICH regions as it will eliminate the extensive work previously required to convert, for example, a US dossier to an EU dossier and vice versa.
Clinical data management is the process of collecting, validating, and cleaning data from clinical trials. It aims to ensure data quality and integrity. Key aspects of clinical data management include electronic data capture, establishing data standards, using clinical data management systems, and performing activities like data collection, validation, and discrepancy management. It follows guidelines from organizations like SCDM and regulations like 21 CFR Part 11.
The document discusses the history and purpose of Good Clinical Practice (GCP) guidelines. It aimed to harmonize clinical trial regulations across regions to facilitate acceptance of trial data internationally and remove inefficiencies. GCP provides a quality standard for trial conduct that protects rights and welfare of subjects. It developed guidelines for drugs, biologics and devices approved by regulatory agencies. GCP ensures trials are scientifically sound and ethically conducted according to principles like informed consent, risk-benefit assessment and independent review.
This document provides an overview of phase 3 clinical trials. Phase 3 trials involve large randomized controlled trials of up to 3000 patients to generate statistically significant data on a drug's safety and efficacy in different patient populations. The objectives are to demonstrate therapeutic efficacy and safety/tolerability in a representative sample. Results are submitted to regulatory agencies for marketing approval. Challenges include long duration, large sample sizes, high costs, and coordinating multiple study sites. If approved, the new drug application process requires submission of all safety, efficacy and manufacturing data to the regulatory agency for review and potential approval.
The document discusses the Common Technical Document (CTD), which provides a standardized format for submitting documentation to regulatory authorities for approval of pharmaceutical products. It describes the evolution and adoption of the CTD internationally and in India. The CTD aims to streamline the drug approval process and facilitate simultaneous reviews by different regulators. It is organized into five modules covering administrative information, summaries, quality, nonclinical data, and clinical data. Widespread use of the CTD format has allowed for greater harmonization and efficiency in global pharmaceutical development and regulation.
This document outlines the requirements and contents of an Investigator's Brochure (IB), which is a comprehensive document summarizing clinical and non-clinical data on an investigational product. The IB includes summaries of pharmacology, toxicology, safety and efficacy data from animal and human studies. It also provides guidance to investigators on monitoring patients and outlines a product's risks and important trial precautions. The IB's purpose is to inform investigators of the investigational product's properties to protect patient safety in clinical trials. It is prepared by the sponsor and provided to investigators to review before trials begin.
The International Conference on Harmonisation (ICH) was created in 1990 as a unique effort between regulators and industry from the EU, Japan, and US to harmonize technical requirements for pharmaceutical registration. ICH aims to ensure safety, efficacy, and quality of medicines while preventing duplicative trials and minimizing animal testing. Through guidelines developed via consensus building among members, ICH has harmonized requirements for drug development and approval processes. However, some concerns remain regarding inclusion of non-members in the decision making and implications for developing countries.
The document summarizes the new drug approval process and development of generic medications. It discusses that new drugs undergo pre-clinical testing in labs and animals, followed by four phases of clinical trials in humans that can take 10-15 years total. If approved, generics can be developed through an abbreviated process by proving bioequivalence to the original. The document stresses the importance of accuracy in prescribing and dispensing drugs due to the risk of errors from similar drug names.
The Central Drugs Standard Control Organization (CDSCO) is the main regulatory body for pharmaceuticals, medical devices, and clinical trials in India. CDSCO approves new drugs, regulates import/export and manufacturing of drugs, medical devices, and cosmetics. It has various zonal and regional offices. The document outlines CDSCO's role in drug approval process, clinical trials, regulation of cosmetics, and the new Medical Device Rules of 2016.
This document outlines the phases of clinical trials, from Phase 0 to Phase IV. It defines clinical trials as prospective biomedical studies on human subjects to answer questions about interventions. The objectives are listed as diagnosing or treating disease, preventing disease or early death, or changing behaviors. The phases are described in order from exploratory studies in small groups in Phase 0 to post-marketing surveillance trials in large populations in Phase IV. The importance of clinical trials is that they follow strict scientific standards to protect patients and produce reliable results, as a final stage of research after laboratory and animal testing.
Marketing Authorization procedures in developed and developing countriesAkshay Saxena
This document provides an overview of marketing authorization procedures for pharmaceutical products in developing and developed countries. It discusses the regulatory bodies and approval processes in key markets like the EU, US, Canada, Japan, Brazil, Russia, India, and several ASEAN countries. The central topics covered include the Common Technical Document dossier format, ICH guidelines, variations to existing approvals, and timelines and fees for obtaining marketing authorization in different jurisdictions. The document aims to help pharmaceutical companies understand the requirements for marketing medicines internationally and comply with health regulations in various countries.
The document discusses the role and responsibilities of an Institutional Review Board/Independent Ethics Committee (IRB/IEC). It states that an IRB/IEC reviews clinical trial protocols to ensure the ethical treatment of study participants and protection of their rights and well-being. The IRB/IEC is composed of at least five members with diverse qualifications and one member from a non-scientific discipline. It is responsible for approving, monitoring and reviewing research involving humans. The IRB/IEC conducts initial and annual reviews of trial procedures and documentation. All records are maintained for at least three years.
The document discusses vulnerable subjects in clinical research such as students, hospital employees, and minority groups. It defines Good Clinical Practice (GCP) as standards for designing, conducting, and reporting clinical trials to protect human subjects. The foundations of ethical clinical research are outlined, including the Nuremberg Code, Declaration of Helsinki, and Belmont Report, with a focus on principles of GCP like informed consent and minimizing risks to subjects.
This document discusses clinical trial management systems. It describes key application areas such as protocol development, data collection and analysis, safety reporting, and regulatory submission. It outlines stakeholders in the clinical trial process like sponsors, investigators, and sites. It also explains how clinical trial systems support management of studies, sites, data, adverse events, and integration with external systems. Clinical trial systems help standardize, automate and manage the complex clinical trial process.
This document provides an overview of good clinical practices (GCP) for clinical research and clinical trials. It discusses the definition of clinical research and clinical trials, the phases of clinical trials, important historical documents that shaped ethical standards like the Declaration of Helsinki and Nuremberg Code, and the key principles of GCP according to the WHO and ICH guidelines. These principles aim to ensure the safety and well-being of research subjects, scientific validity of the research, and compliance with regulations.
Clinical trials involve testing investigational drugs or treatments on human subjects to determine safety and efficacy. They progress through several phases, beginning with small pre-clinical trials on animals. Phase 1 trials involve 20-50 healthy volunteers to assess pharmacokinetics and safety. Phase 2 trials enroll 50-300 patient volunteers to further evaluate safety and dosage. Phase 3 trials are large randomized controlled trials of 250-1000+ subjects comparing the investigational treatment to standard treatment or placebo. If Phase 3 is successful, the results are submitted to regulatory agencies for approval to market the new drug. Post-marketing Phase 4 trials monitor long-term safety and efficacy.
1. The document discusses medical devices, their classification, and regulatory approval processes. Medical devices range from simple items like tongue depressors to complex devices like pacemakers.
2. Devices are classified by the US FDA into Class I, II, and III based on risk, with Class III posing the greatest risks. Approval processes vary depending on class, from quality management registration for Class I to premarket approval involving clinical trials for Class III.
3. Key regulatory pathways discussed include 510(k) premarket notification for demonstrating substantial equivalence, and premarket approval involving clinical trials to establish safety and effectiveness for new Class III devices. The regulatory processes aim to ensure the quality, safety and effectiveness of medical devices.
The document provides an overview of ICH-GCP (Good Clinical Practice) guidelines, which are international ethical and scientific quality standards for designing, conducting, recording, and reporting trials that involve the participation of human subjects. The summary discusses the key sections and principles of ICH-GCP, which aim to protect trial subjects and ensure valid clinical trial data. It outlines the historical background and development of GCP standards from the Nuremberg Code to the ICH-GCP guidelines of 1996. The document reviews responsibilities of ethics committees, sponsors, investigators, clinical trial protocols, and informed consent processes.
SUGAM is an online portal launched by CDSCO that allows stakeholders to apply for licenses, permits, and approvals for drugs, medical devices, diagnostics, cosmetics, and clinical trials. Through SUGAM, applicants can submit applications online, track application status, respond to queries, and download approvals issued by CDSCO. The portal provides a single window for applying for licenses like Form 41 registration certificates, import licenses under Form 10, test licenses for clinical trials, and BE NOC for new drugs. Users must register on the portal and can then login to submit applications and check status.
The NDA application is the vehicle through which drug sponsors, such as biotech and pharmaceutical companies, formally propose that the FDA approve a new pharmaceutical for sale and marketing
The document provides information on several clinical data management systems and software, including Oracle Clinical, SAS Clinical Software, TCS Clin-E2E Software, Cognos 8 Business Intelligence Software, Symetric Software, Akaza's OpenClinica Software, SigmaSoft's DMSys Software, and Progeny Clinical Software. It discusses their key features for managing clinical trials data such as electronic data capture, reporting, security, compliance with industry standards, and integration with other systems.
CMC(CHEMISTRY,MANUFACTURING AND CONTROL).pptxJubinNath2
It includes the details about CMC(Chemistry,manufacturing and control). It includes the importance of CMC, CMC regulatory affairs, CMC review at IND stage.
Introduction to pharmaceutical industry & clinical researchBhaswat Chakraborty
This document provides an introduction to the global pharmaceutical market and clinical research environment. It discusses the significant growth expected in the global pharmaceutical market between 2010-2013. It also outlines the top 20 pharmaceutical companies by revenue. The document then discusses the Indian pharmaceutical market, noting that India is a leader in generic drugs and active pharmaceutical ingredients. It provides an overview of the top 10 pharmaceutical companies in India by revenue. The document also discusses the growth of the Indian domestic market. It introduces the dynamic continuum of drug discovery and provides definitions and descriptions of clinical research, phases of clinical trials, and the largest registry of clinical trials. It discusses opportunities for India in clinical research outsourcing and the growth of the CRO market in India.
The International Council for Harmonisation (ICH) is a joint initiative between regulators and the pharmaceutical industry to harmonize technical requirements for drug registration. The goal is to streamline development, eliminate redundant testing, and make new medicines available more quickly while maintaining standards of safety and efficacy. ICH involves six regulatory and industry parties working to produce unified guidelines for the European Union, Japan, and United States on quality, safety, and efficacy. This helps facilitate mutual acceptance of clinical data between jurisdictions.
The document discusses the International Council for Harmonization (ICH), a joint initiative between regulatory authorities and pharmaceutical industries from Europe, Japan, and the US to harmonize technical requirements for pharmaceutical registration. The goals of ICH are to ensure safety, quality and efficacy of medicines, harmonize technical requirements, and develop drugs in an efficient and cost-effective way. ICH has produced numerous guidelines on quality, safety, efficacy and multidisciplinary topics to harmonize regulatory standards across regions.
The document discusses the Common Technical Document (CTD), which provides a standardized format for submitting documentation to regulatory authorities for approval of pharmaceutical products. It describes the evolution and adoption of the CTD internationally and in India. The CTD aims to streamline the drug approval process and facilitate simultaneous reviews by different regulators. It is organized into five modules covering administrative information, summaries, quality, nonclinical data, and clinical data. Widespread use of the CTD format has allowed for greater harmonization and efficiency in global pharmaceutical development and regulation.
This document outlines the requirements and contents of an Investigator's Brochure (IB), which is a comprehensive document summarizing clinical and non-clinical data on an investigational product. The IB includes summaries of pharmacology, toxicology, safety and efficacy data from animal and human studies. It also provides guidance to investigators on monitoring patients and outlines a product's risks and important trial precautions. The IB's purpose is to inform investigators of the investigational product's properties to protect patient safety in clinical trials. It is prepared by the sponsor and provided to investigators to review before trials begin.
The International Conference on Harmonisation (ICH) was created in 1990 as a unique effort between regulators and industry from the EU, Japan, and US to harmonize technical requirements for pharmaceutical registration. ICH aims to ensure safety, efficacy, and quality of medicines while preventing duplicative trials and minimizing animal testing. Through guidelines developed via consensus building among members, ICH has harmonized requirements for drug development and approval processes. However, some concerns remain regarding inclusion of non-members in the decision making and implications for developing countries.
The document summarizes the new drug approval process and development of generic medications. It discusses that new drugs undergo pre-clinical testing in labs and animals, followed by four phases of clinical trials in humans that can take 10-15 years total. If approved, generics can be developed through an abbreviated process by proving bioequivalence to the original. The document stresses the importance of accuracy in prescribing and dispensing drugs due to the risk of errors from similar drug names.
The Central Drugs Standard Control Organization (CDSCO) is the main regulatory body for pharmaceuticals, medical devices, and clinical trials in India. CDSCO approves new drugs, regulates import/export and manufacturing of drugs, medical devices, and cosmetics. It has various zonal and regional offices. The document outlines CDSCO's role in drug approval process, clinical trials, regulation of cosmetics, and the new Medical Device Rules of 2016.
This document outlines the phases of clinical trials, from Phase 0 to Phase IV. It defines clinical trials as prospective biomedical studies on human subjects to answer questions about interventions. The objectives are listed as diagnosing or treating disease, preventing disease or early death, or changing behaviors. The phases are described in order from exploratory studies in small groups in Phase 0 to post-marketing surveillance trials in large populations in Phase IV. The importance of clinical trials is that they follow strict scientific standards to protect patients and produce reliable results, as a final stage of research after laboratory and animal testing.
Marketing Authorization procedures in developed and developing countriesAkshay Saxena
This document provides an overview of marketing authorization procedures for pharmaceutical products in developing and developed countries. It discusses the regulatory bodies and approval processes in key markets like the EU, US, Canada, Japan, Brazil, Russia, India, and several ASEAN countries. The central topics covered include the Common Technical Document dossier format, ICH guidelines, variations to existing approvals, and timelines and fees for obtaining marketing authorization in different jurisdictions. The document aims to help pharmaceutical companies understand the requirements for marketing medicines internationally and comply with health regulations in various countries.
The document discusses the role and responsibilities of an Institutional Review Board/Independent Ethics Committee (IRB/IEC). It states that an IRB/IEC reviews clinical trial protocols to ensure the ethical treatment of study participants and protection of their rights and well-being. The IRB/IEC is composed of at least five members with diverse qualifications and one member from a non-scientific discipline. It is responsible for approving, monitoring and reviewing research involving humans. The IRB/IEC conducts initial and annual reviews of trial procedures and documentation. All records are maintained for at least three years.
The document discusses vulnerable subjects in clinical research such as students, hospital employees, and minority groups. It defines Good Clinical Practice (GCP) as standards for designing, conducting, and reporting clinical trials to protect human subjects. The foundations of ethical clinical research are outlined, including the Nuremberg Code, Declaration of Helsinki, and Belmont Report, with a focus on principles of GCP like informed consent and minimizing risks to subjects.
This document discusses clinical trial management systems. It describes key application areas such as protocol development, data collection and analysis, safety reporting, and regulatory submission. It outlines stakeholders in the clinical trial process like sponsors, investigators, and sites. It also explains how clinical trial systems support management of studies, sites, data, adverse events, and integration with external systems. Clinical trial systems help standardize, automate and manage the complex clinical trial process.
This document provides an overview of good clinical practices (GCP) for clinical research and clinical trials. It discusses the definition of clinical research and clinical trials, the phases of clinical trials, important historical documents that shaped ethical standards like the Declaration of Helsinki and Nuremberg Code, and the key principles of GCP according to the WHO and ICH guidelines. These principles aim to ensure the safety and well-being of research subjects, scientific validity of the research, and compliance with regulations.
Clinical trials involve testing investigational drugs or treatments on human subjects to determine safety and efficacy. They progress through several phases, beginning with small pre-clinical trials on animals. Phase 1 trials involve 20-50 healthy volunteers to assess pharmacokinetics and safety. Phase 2 trials enroll 50-300 patient volunteers to further evaluate safety and dosage. Phase 3 trials are large randomized controlled trials of 250-1000+ subjects comparing the investigational treatment to standard treatment or placebo. If Phase 3 is successful, the results are submitted to regulatory agencies for approval to market the new drug. Post-marketing Phase 4 trials monitor long-term safety and efficacy.
1. The document discusses medical devices, their classification, and regulatory approval processes. Medical devices range from simple items like tongue depressors to complex devices like pacemakers.
2. Devices are classified by the US FDA into Class I, II, and III based on risk, with Class III posing the greatest risks. Approval processes vary depending on class, from quality management registration for Class I to premarket approval involving clinical trials for Class III.
3. Key regulatory pathways discussed include 510(k) premarket notification for demonstrating substantial equivalence, and premarket approval involving clinical trials to establish safety and effectiveness for new Class III devices. The regulatory processes aim to ensure the quality, safety and effectiveness of medical devices.
The document provides an overview of ICH-GCP (Good Clinical Practice) guidelines, which are international ethical and scientific quality standards for designing, conducting, recording, and reporting trials that involve the participation of human subjects. The summary discusses the key sections and principles of ICH-GCP, which aim to protect trial subjects and ensure valid clinical trial data. It outlines the historical background and development of GCP standards from the Nuremberg Code to the ICH-GCP guidelines of 1996. The document reviews responsibilities of ethics committees, sponsors, investigators, clinical trial protocols, and informed consent processes.
SUGAM is an online portal launched by CDSCO that allows stakeholders to apply for licenses, permits, and approvals for drugs, medical devices, diagnostics, cosmetics, and clinical trials. Through SUGAM, applicants can submit applications online, track application status, respond to queries, and download approvals issued by CDSCO. The portal provides a single window for applying for licenses like Form 41 registration certificates, import licenses under Form 10, test licenses for clinical trials, and BE NOC for new drugs. Users must register on the portal and can then login to submit applications and check status.
The NDA application is the vehicle through which drug sponsors, such as biotech and pharmaceutical companies, formally propose that the FDA approve a new pharmaceutical for sale and marketing
The document provides information on several clinical data management systems and software, including Oracle Clinical, SAS Clinical Software, TCS Clin-E2E Software, Cognos 8 Business Intelligence Software, Symetric Software, Akaza's OpenClinica Software, SigmaSoft's DMSys Software, and Progeny Clinical Software. It discusses their key features for managing clinical trials data such as electronic data capture, reporting, security, compliance with industry standards, and integration with other systems.
CMC(CHEMISTRY,MANUFACTURING AND CONTROL).pptxJubinNath2
It includes the details about CMC(Chemistry,manufacturing and control). It includes the importance of CMC, CMC regulatory affairs, CMC review at IND stage.
Introduction to pharmaceutical industry & clinical researchBhaswat Chakraborty
This document provides an introduction to the global pharmaceutical market and clinical research environment. It discusses the significant growth expected in the global pharmaceutical market between 2010-2013. It also outlines the top 20 pharmaceutical companies by revenue. The document then discusses the Indian pharmaceutical market, noting that India is a leader in generic drugs and active pharmaceutical ingredients. It provides an overview of the top 10 pharmaceutical companies in India by revenue. The document also discusses the growth of the Indian domestic market. It introduces the dynamic continuum of drug discovery and provides definitions and descriptions of clinical research, phases of clinical trials, and the largest registry of clinical trials. It discusses opportunities for India in clinical research outsourcing and the growth of the CRO market in India.
The International Council for Harmonisation (ICH) is a joint initiative between regulators and the pharmaceutical industry to harmonize technical requirements for drug registration. The goal is to streamline development, eliminate redundant testing, and make new medicines available more quickly while maintaining standards of safety and efficacy. ICH involves six regulatory and industry parties working to produce unified guidelines for the European Union, Japan, and United States on quality, safety, and efficacy. This helps facilitate mutual acceptance of clinical data between jurisdictions.
The document discusses the International Council for Harmonization (ICH), a joint initiative between regulatory authorities and pharmaceutical industries from Europe, Japan, and the US to harmonize technical requirements for pharmaceutical registration. The goals of ICH are to ensure safety, quality and efficacy of medicines, harmonize technical requirements, and develop drugs in an efficient and cost-effective way. ICH has produced numerous guidelines on quality, safety, efficacy and multidisciplinary topics to harmonize regulatory standards across regions.
The International Conference on Harmonization (ICH) aims to harmonize technical requirements for pharmaceutical registration across Europe, Japan, and the United States to reduce duplication of testing and delays in availability of new medicines. ICH addresses quality, safety, efficacy, and multidisciplinary topics through guidelines developed by experts from regulatory authorities and the pharmaceutical industry in the three regions. The objectives of ICH harmonization are more efficient use of resources and protection of public health while eliminating unnecessary delays in the global development and availability of new medicines.
This document provides an agenda and overview for an International Council for Harmonisation meeting between the USFDA, Health Canada, and other parties. The agenda covers topics on quality, efficacy, safety, and electronic standards currently being discussed by ICH working groups. It also describes the ICH process and recent reforms, including the establishment of a non-profit association to focus global pharmaceutical regulatory harmonization.
The document discusses the International Council for Harmonization of Technical Requirements for Pharmaceuticals for Human Use (ICH) guidelines. It provides an introduction to ICH, the need for harmonization, the origin and evolution of ICH, its objectives and members. It then describes the process of ICH harmonization and provides examples of ICH guidelines related to quality, safety, efficacy, and multidisciplinary topics. The quality guidelines address stability testing, impurities thresholds, and good manufacturing practices.
The International Classification of Diseases (ICD) is a globally recognized system for classifying and coding diseases, health conditions, and related factors. It is maintained and updated by the World Health Organization (WHO) and serves several critical functions in healthcare and epidemiology. To describe the ICD comprehensively within 3000 characters, we'll cover its history, purpose, structure, and significance.
**History:**
The roots of the ICD can be traced back to the mid-19th century when various countries began documenting statistics on causes of death. The need for a standardized classification system became evident as different nations used their own systems, hindering international comparisons. The ICD was officially established in its modern form in 1948, with subsequent revisions and updates.
**Purpose:**
The primary purposes of the ICD are as follows:
1. **Disease Classification:** The ICD provides a systematic way to categorize diseases and health conditions. Each condition is assigned a unique code, which simplifies data collection and reporting.
2. **Clinical Diagnosis:** Healthcare professionals use the ICD to document and communicate diagnoses. This aids in patient care, medical billing, and insurance claims processing.
3. **Epidemiology:** The ICD is crucial for monitoring and analyzing disease patterns on a global scale. It helps identify emerging health threats, allocate resources, and develop public health policies.
4. **Health Statistics:** Governments and health organizations use the ICD to compile health statistics, such as causes of death and disease prevalence. This information guides healthcare planning and resource allocation.
**Structure:**
The ICD is organized into chapters, sections, and codes. The current version, ICD-10, is divided into 22 chapters, covering a wide range of health-related topics. Here's an overview of some key chapters:
- **Chapter I:** Certain infectious and parasitic diseases
- **Chapter II:** Neoplasms (cancers)
- **Chapter III:** Diseases of the blood and blood-forming organs
- **Chapter IV:** Endocrine, nutritional, and metabolic diseases
- **Chapter V:** Mental and behavioral disorders
- **Chapter VI:** Diseases of the nervous system
- **Chapter VII:** Diseases of the eye and adnexa
- **Chapter VIII:** Diseases of the ear and mastoid process
- **Chapter IX:** Diseases of the circulatory system
- **Chapter X:** Diseases of the respiratory system
- **Chapter XI:** Diseases of the digestive system
- **Chapter XII:** Diseases of the skin and subcutaneous tissue
- **Chapter XIII:** Diseases of the musculoskeletal system and connective tissue
- **Chapter XIV:** Diseases of the genitourinary system
- **Chapter XV:** Pregnancy, childbirth, and the puerperium
- **Chapter XVI:** Certain conditions originating in the perinatal period
- **Chapter XVII:** Congenital malformations, deformations, and chromosomal abnormalities
- **Chapter XVIII:** Symptoms, signs, and abnormal clinical and labor
The International Conference on Harmonization (ICH) brings together regulatory authorities and pharmaceutical industries from Europe, Japan, and the United States to discuss scientific and technical aspects of drug registration. ICH aims to harmonize technical requirements for pharmaceutical registration to ensure safety, quality and efficacy while avoiding redundant testing. ICH has produced numerous guidelines on quality, safety, efficacy and multidisciplinary topics that are implemented by regulatory agencies in ICH regions and used globally to streamline drug development and approval processes.
The document discusses the International Conference on Harmonization (ICH) guidelines. ICH brings together regulatory authorities and pharmaceutical companies from Europe, Japan, and the US to discuss testing procedures for ensuring drug safety, quality, and efficacy. The guidelines cover Quality, Safety, Efficacy, and Multidisciplinary topics. They aim to harmonize technical requirements for drug approval across countries to reduce costs and duplication of testing while making safe, effective treatments more widely available. The Common Technical Document format was also created to standardize the submission of information to regulatory agencies in ICH regions.
The document discusses the International Conference on Harmonization (ICH) Good Clinical Practice (GCP) guideline.
ICH-GCP is an international ethical and scientific quality standard for clinical trials involving human subjects. It aims to ensure trials are scientifically sound and respect the rights, safety and well-being of participants. The guideline was developed in response to medical tragedies and the need for harmonized standards across regions to facilitate global drug development. It outlines principles for conducting clinical trials, including obtaining informed consent and ensuring confidentiality. Adherence to ICH-GCP provides assurance that clinical trial data are credible and that participants are adequately protected.
ICH GUIDELINES of chemical engineering (2).pdfAjayGhuge9
The document provides an overview of ICH (International Conference on Harmonization) guidelines. ICH is an international non-profit organization that brings together regulatory authorities and pharmaceutical industries from Europe, Japan and the US to discuss scientific and technical aspects of drug registration. The goals of ICH are to reduce duplication of clinical trials, make safe and effective new treatments more affordable/accessible to patients, and harmonize technical requirements for drug approval across countries/regions. ICH has generated numerous guidelines organized under quality, safety, efficacy and multidisciplinary categories that are recognized by many countries as standards for drug development and approval.
ICH Guidelines of Quality, Safety, Efficacy and Multidisciplinary guidelines that implemented by International Council for Harmonisation. ich stands for the harmonisation of Technical requirements of Pharmaceuticals for Human use.
It is unique in bringing together the regulatory authorities and
pharmaceutical industry to discuss scientific and technical aspects of pharmaceuticals and develop ICH guidelines.
This document provides an overview of the United States Food and Drug Administration (USFDA). It discusses the history and definition of the USFDA, its objectives to ensure safety of foods, drugs, cosmetics and medical devices. It outlines the various components of the USFDA including the Center for Drug Evaluation and Research (CDER), Center for Food Safety and Applied Nutrition (CFSAN), and Center for Veterinary Medicine (CVM). It also discusses the FDA's evaluation process, mission, laws enforced, and activities regulated.
ICH GUIDELINES Q S E M & REGULATORY REQUIREMENTS OF EU, MHRA, TGA & ROW CO...RushikeshPalkar1
The document discusses the International Conference on Harmonization (ICH), an initiative to harmonize technical requirements for pharmaceutical registration. It describes ICH's mission to reduce redundant testing, outlines its structure and members, and explains the guidelines and regulatory requirements of various countries and regions, including the EU, MHRA, TGA, and rest of world.
The document discusses the International Conference on Harmonisation (ICH), which aims to harmonize technical requirements for pharmaceutical registration across regions to ensure safe, effective, and high quality medicines. It outlines ICH's objectives, organizational structure including working groups and guidelines, and harmonization process. ICH has produced over 50 guidelines on quality, safety, efficacy, and multidisciplinary topics to eliminate duplication in drug development.
The document discusses ICH (International Conference on Harmonization) guidelines. ICH brings together regulatory authorities and pharmaceutical industries from Europe, Japan, and the US to discuss harmonizing technical requirements for drug safety, quality, and efficacy. The guidelines seek to reduce redundant testing, make treatments more affordable and accessible internationally, and reduce divergent regulatory requirements between countries. ICH guidelines are developed through a 5-step process and cover topics such as quality control, nonclinical safety testing, clinical trial standards, and multidisciplinary issues. Adoption of the guidelines helps ensure consistent evaluation of medicines across regions.
Fundamental concept of regulatory affairs in pharmaceutical & biotechnologyHitendra Singh
RA is a comparatively new profession which developed from the desire of governments to protect public health by controlling the Quality, safety and efficacy of products in areas including pharmaceuticals, Biotechnology, veterinary medicines, medical devices, pesticides, agrochemicals, cosmetics and complementary medicines.
Goals of Regulatory Affairs Professionals:-
Protection of human health
Ensuring safety, efficacy and quality of drugs
Ensuring appropriateness and accuracy of product information
This document discusses RNA molecule structure prediction and the assumptions made, including that the most likely structure is similar to the most stable energetically, and that the energy of any position is only influenced by local sequence and structure. It also mentions complementary interactions of secondary structures and circle plots of base pairs.
This document discusses several topics related to proteins including the titration curve of glycine, CLUSTALW scoring scheme for protein sequence alignment, formation of peptide bonds, structural hierarchy of proteins, protein sequencing, alpha-helix and beta conformations, and hydropathy plots for analyzing protein sequences.
This document discusses the primary, secondary, tertiary, and quaternary structure of proteins. It begins by describing the important biological functions of proteins and the general structures of globular and fibrous proteins. It then discusses the structures of amino acids and how peptide bonds link amino acids into polypeptide chains. The levels of protein structure are introduced, including the alpha helix and beta sheet secondary structures, tertiary folding of polypeptide chains, and arrangement of subunits in quaternary structure. Common protein domains and motifs are also illustrated.
This document discusses protein structure, classification, prediction, and visualization. It covers secondary structure elements like alpha helices and beta sheets, as well as tertiary and quaternary structure. It describes protein structure databases like the Protein Data Bank and tools for visualizing protein structures. Different amino acid properties that influence secondary structure are also discussed.
This document provides information on various computational tools and methods for protein identification, characterization, and structure prediction. It discusses tools that use amino acid composition, sequence alignment, peptide mass fingerprinting, and physico-chemical properties to identify proteins. It also describes methods such as Chou-Fasman, GOR, and neural networks that predict protein secondary structure and properties based on amino acid order, propensities, and probabilities.
Structurally variable regions like loops, insertions and deletions can complicate protein structure modeling. The structure of an equivalent length segment from a homologous protein provides a guide for modeling missing regions, though the chosen segment may not always fit properly. De novo prediction involves using rotamer libraries of common amino acid conformations to predict side chain positions. Model validation checks the stereochemical accuracy, packing quality, and folding reliability of the predicted structure.
This document discusses important parameters for designing successful PCR primers. Key factors include primer length, melting temperature (Tm), specificity, and GC content. Primer length determines specificity, annealing temperature and time. For primers between 18-24 bases targeting a 50°C annealing temperature, the calculated Tm should be around 55°C. Both primers should have similar Tms. Other considerations include avoiding intra-primer complementarity beyond 3 base pairs and maintaining a GC content between 45-55%.
This document discusses phylogenetic studies and the construction of phylogenetic trees. It notes that fossil records are unreliable, so phylogenetic trees are primarily based on molecular sequencing data and morphological data. There are several assumptions made in phylogenetic analysis, including that sequences are homologous, phylogenetic divergence is bifurcating, and each position in a sequence evolved independently. The document outlines different types of phylogenetic trees, steps in phylogenetic analysis like choosing molecular markers and tree building methods, and criteria for assessing the reliability of phylogenetic trees.
Multiple sequence alignment is used to determine evolutionary relationships and structural relationships between sequences. It provides information on the most similar regions between sequences and can predict specific probes. Multiple sequence alignment extends pairwise sequence alignment through dynamic programming to align three or more sequences simultaneously. Popular multiple sequence alignment programs like CLUSTALW use progressive alignment methods that first align closely related sequences, then progressively align more distantly related sequences.
Homology modeling is a technique used to predict the 3D structure of a protein based on the alignment of its amino acid sequence to known protein structures. It relies on the observation that structure is more conserved than sequence during evolution. The key steps in homology modeling include: 1) identifying a template structure through sequence alignment tools like BLAST, 2) correcting any errors in the initial alignment, 3) generating the protein backbone based on the template structure, 4) modeling any loops or missing regions, 5) adding side chains, 6) optimizing the model structure energetically, and 7) validating that the final model matches the template structure and has correct stereochemistry. Homology modeling is useful for applications like structure-based drug design
This document discusses different methods for genome sequencing and assembly, including restriction enzyme fingerprinting, marker sequences, and hybridization assays. It focuses on using marker sequences like sequence-tagged sites (STS), expressed sequence tags (ESTs), untranslated regions (UTRs), and single nucleotide polymorphisms (SNPs) to map genomes. Large-insert cloning vectors like BACs and PACs can be used with restriction enzyme fingerprinting and FPC software to assemble contigs and map genomes at a large scale. Marker sequences provide a dense set of physical markers to build accurate physical maps of genomes.
This document discusses gene identification and genome annotation. It describes how gene finding in eukaryotes is difficult due to smaller percentages of genes in genomes like humans, and larger intron sizes. It covers open reading frames, complications with introns, and the use of six-frame translation to find protein coding sequences. Software tools for structural and functional annotation are outlined, including identifying genes through homology searching and ab initio prediction using hidden Markov models. The accuracy challenges of ab initio prediction are also summarized.
This document discusses genome analysis and sequencing. It provides background on identifying genes and studying disease processes through genome sequencing. It also describes goals of identifying gene function through experiments and challenges like gene prediction and repetitive sequences. Specific projects aimed at tracking human genetic variations and the first bacterial genome sequencing are summarized. Criteria for selecting early genomes to sequence are outlined. Key differences between prokaryotic and eukaryotic genomes are noted, including the presence of chromosomes, repeats, introns and heterochromatin/euchromatin. Different types of repetitive sequences like satellites, minisatellites and microsatellites are defined. Transposable elements in eukaryotes are also briefly introduced.
FASTA is a program for rapidly aligning protein and DNA sequences. It searches for matching k-tuples or sequence words and builds a local alignment based on these matches. It identifies the 10 best matching regions through k-tuple screening, joins nearby matches, and finds the highest density regions. It generates longer regions of identity and recalculates scores, with INITN and OPT scores used to rank database matches. Sensitivity refers to the ability to locate distantly related family members with limited similarity.
Drug design involves inventing new pharmaceutical drugs based on knowledge of biological targets, with classes of medications defined by their chemical properties, routes of administration, effects on biological systems, and therapeutic effects. The Anatomical Therapeutic Chemical classification system categorizes drugs into groups such as antipyretics, analgesics, antimalarial drugs, antibiotics, and antiseptics based on their medical use. Strategies for drug design include ligand-based and structure-based approaches.
Molecular descriptors are numerical values that characterize molecular properties and structures. They can represent physicochemical properties or values derived from algorithmic techniques applied to molecular structures. Descriptors vary in complexity and computational requirements. Some are based on experimental data while others are algorithmic constructs. Two-dimensional (2D) descriptors are calculated from 2D structures and include counts, physicochemical properties, and topological indices. Three-dimensional (3D) descriptors encode spatial relationships and include fragment screens and pharmacophore keys.
Biological data is widely distributed over the web and can be retrieved using search engines like Google or data retrieval tools. Dedicated data retrieval tools for molecular biologists include Entrez, DBGET, and SRS which allow text searching of linked databases and sequence searching. Entrez, developed by NCBI, integrates information from databases including GenBank, PubMed, and OMIM. DBGET covers databases like GenBank, EMBL, and PDB. SRS, developed by EBI, integrates over 80 molecular biology databases.
BLAST is a program that compares nucleotide or protein sequences to sequence databases and calculates the statistical significance of matches. It performs sequence similarity searches using either FASTA or BLAST algorithms. The BLAST process involves filtering sequences, preparing a list of words, evaluating matches using BLOSUM62, organizing high-scoring words into a search tree, scanning databases for matches, extending alignments, identifying statistically significant matches, and calculating expect values for alignments.
This document provides information about several nucleotide and protein sequence databases including:
- INSDC (International Nucleotide Sequence Database Collaboration) which includes GenBank, EMBL, and DDBJ.
- GenBank which contains over 80 billion nucleotide bases from 76 million sequences and doubles in size every 18 months. The top species represented are human, mouse, rat, cattle, and maize.
- EMBL and DDBJ which are similar to GenBank in content and format but maintained by different collaborations. Secondary databases like UniProt, PROSITE and PRINTS/BLOCKS provide additional annotation and analysis of sequences.
1. InEtUe rGnCaPti onal Conference on
Harmonization (ICH)
Consolidated Guidelines
Pravin Cumar
Head Academics
2. EU GCP
What is ICH?
Need to harmonies
Purpose of harmonization
Initiation of ICH
Objectives of ICH
The Structure of ICH
The process of Harmonization
ICH Guidelines – Q, S, E & M
ICH & the Future
The Impact of ICH
3. EU GCP
ICH is a unique joint initiative
involving both regulators and
industry as equal partners in the
scientific and technical
discussions of the testing
procedures which are required to
ensure and assess the safety,
quality and efficacy of medicines.
4. EU GCP
Awareness on critical evaluation of
medicinal products before market release
Medical tragedies
1960-70s:
Rapid increase in laws, regulations & guidelines
on medicinal products
Globalization of Pharmaceutical industry
But regulation of medicine remained as a
national responsibility
5. EU GCP
These changes lead to:
Duplication of work
Raising cost of health care
Escalation of R&D costs
Delay in drug development
6. EU GCP
The purpose is to make
recommendations on ways to achieve
greater harmonization in the
interpretation
Application of technical guidelines
Requirements for product registration in
order to reduce or obviate the need to
duplicate the testing carried out during
the research and development of new
medicines.
7. EU GCP
Aim to produce a single set of technical
requirements for the registration of new
drug, drug products to streamline
development.
Reduce or obviate duplicate testing
More economical use of human, animal and
material resources.
Eliminate unnecessary delays in the
availability of new medicines.
8. EU GCP
Availability of new medicines whilst
maintaining safeguards on quality, safety
and efficacy, and regulatory obligations to
protect public health.
To provide a unified standard for the
European Union (EU), Japan & United
States to facilitate mutual acceptance of
clinical data by the regulatory authorities
in these jurisdictions
9. EU GCP
Member:
Steering committee (SC):
ICH Parties - 6
ICH – Coordinators (One from each party)
Observers - 3 (non-voting)
IFPMA: Secretariat
Expert Working Groups (EWGs)
10. EU GCP
Expert working group: The SC is
advised on technical issues concerned
with harmonization topics by Expert
Working Groups.
They are nominated from the 6 Co –
Sponsors.
11. EU GCP
Participants
Six Parties: EU, EFPIA, FDA,
MHLW, JPMA, PhRMA,
Three Observers: WHO, EFTA, CanadaEuropean
Commission - European Union (EU)
European Federation of Pharmaceutical Industries
and Associations (EFPIA)
US Food and Drug Administration (FDA)
Pharmaceutical Research and Manufacturers of
America (PhRMA)
Ministry of Health, Labor and Welfare, Japan (MHLW)
Japan Pharmaceutical Manufacturers Association
(JPMA)
12. EU GCP
STEERING COMMITTEE:
Oversees the preparation for ICH and
the harmonization initiatives under
taken under the ICH Process.
2 members from each of the 6 co-sponsors
Determines policies & procedures
Selects topics for harmonization
Monitors progress of harmonization
initiatives
13. EU GCP
Five-step approach
Step 1: Consensus building
Step 2: Confirmation of six-party harmonised
and consensus text released
Step 3: Regulatory Consultation and
Discussion outside the ICH
Step 4: Adoption of an ICH Harmonized
Guideline
Step 5: Implementation
14. EU GCP
Quality (Q)
- chemical & pharmaceutical QA
Safety (S)
dealing with in vitro & in vivo pre clinical
testing
Efficacy (E)
clinical studies in human beings
Multidisciplinary (M)
Terminology
Electronic Standards
Common Documents
15. EU GCP
Q 1(A-F): Stability - Photostability
Q 2: Analytical Validation
Q 3(A-C): Impurities
Q 5(A-E): Biotechnological Quality
Q 6(A,B): Specifications
Q 7: GMP for active pharma ingredients
Q 8: Pharmaceutical development
Q 9: Quality risk management
Q10: Pharmaceutical Quality System
16. EU GCP
S1: Carcinogenicity studies – Need,
Testing, Dose Selection
S2: Genotoxicity – Regulatory, Battery of Tests
S3A: Toxicokinetics
S3B: Pharmacokinetics
S4: Chronic Toxicity Testing
S5A: Toxicity to Reproduction
S5B: Toxicity to Male Fertility
S6: Preclinical Biotech derived drugs
S7A: Safety Pharmacology
S7B: QT interval prolongation
S8: Immunotoxicity for Human Pharmaceuticals
S9 : Nonclinical Evaluation for Anticancer Pharmaceuticals
17. EU GCP
E 1: Exposure to assess clinical safety
E 2: Clinical Safety Data Management
E 3: Study Reports
E 4: Dose Response Studies
E 5: Ethnic Factors
E 6: Good Clinical Practice (GCP)
E 7: Special Populations – Geriatrics
E 8: Clinical Trials Design
E 9: Statistical Considerations
18. EU GCP
E 10: Choice of Control Group
E 11: Special Populations – Children
E 12: Therapeutic categories
E 14: The clinical evaluation of QT/QC interval prolongation &
pro arrhythmic potential for non antiarrhythmic drugs
E15: Definitions for Genomic Biomarkers,
Pharmacogenomics, Pharmacogenetics, Genomic Data
& Sample Coding Categories
E16: Genomic Biomarkers Related to Drug Response:
Context, Structure and Format of Qualification
Submissions
19. EU GCP
M1: Medical Terminology
M2: Electronic Standards for Transfer of
Regulatory Information & Data (ESTRI)
M3: Maintenance of ICH guidelines for nonclinical
safety studies
M4: Common Technical Document (CTD)
M5: Data Elements and Standards for Drug
Dictionaries
20. EU GCP
IMPACT :
Enhanced patient safety
Streamline development programs
Common quality standard
Reduce resource requirements
Forum for Communication
Opportunity for Industry & Regulators to sit across
the table
Discuss drug development procedure with a
common goal of identifying best scientific
practice and applying the same uniformly across
the globe
22. US FOOD & DRUG ADMINISTRATION
The Food and Drug Administration is one of
the nation's oldest and most respected
consumer protection agencies.
www.fda.gov
23. FDA's mission
FDA's mission is:
To promote and protect the public health by
helping safe and effective products reach the
market in a timely way,
To monitor products for continued safety after
they are in use, and
To help the public get the accurate, science-based
information needed to improve health.
24. Overview
At the heart of all FDA's regulatory activities is a
judgment about whether a new product's benefits to
users will outweigh its risks.
Science-based, efficient risk management allows the
agency to provide the most health promotion and
protection at the least cost to the public.
No regulated product is totally risk-free, so these
judgments are important. FDA will allow a product
to present more of a risk when its potential benefit is
great -- especially for products used to treat serious,
life-threatening conditions.
25. FDA Departments
FDA is an agency within the Department of
Health and Human Services and consists of 9
centers/offices.
Center for Biologics Evaluation and Research
(CBER)
Center for Devices and Radiological Health
(CDRH)
Center for Drug Evaluation and Research
(CDER)
26. Contd…
Center for Food Safety and Applied Nutrition
(CFSAN)
Center for Veterinary Medicine (CVM)
National Center for Toxicological Research
(NCTR)
Office of Chief Counsel
Office of the Commissioner (OC)
Office of Regulatory Affairs (ORA)
27. CBER
CBER's mission is to protect and enhance the public
health through the regulation of biological and related
products including blood, vaccines, allergenics, tissues,
and cellular and gene therapies.
Biologics, in contrast to drugs that are chemically
synthesized, are derived from living sources (such as
humans, animals, and microorganisms), are not easily
identified or characterized, and many are manufactured
using biotechnology.
28. CBER
These products often represent cutting-edge
biomedical research and, in time, may offer the
most effective means to treat a variety of
medical illnesses and conditions that presently
have few or no other treatment options.
29. CDRH
More than 20,000 firms worldwide produce over
80,000 brands and models of medical devices for
the U.S. market, ranging from contact lenses and
blood sugar monitors to implanted hip joints and
heart valves.
The FDA's Center for Devices and Radiological
Health (CDRH) makes sure that new medical
devices are safe and effective before they are
marketed.
30. Contd…
Many of these devices are the first of a kind,
such as a robotic arm that can operate a variety
of surgical tools with tremendous precision.
Other high-tech devices are designed to
prevent, diagnose or treat cancer, heart disease,
impaired vision and hearing, and other health
problems.
31. Contd….
The center also monitors devices throughout
the product life cycle, including a nationwide
postmarket surveillance system.
And it assures that radiation-emitting products,
such as microwave ovens, TV sets, cell phones,
and laser products meet radiation safety
standards.
32. CDER
The FDA's Center for Drug Evaluation and
Research (CDER) promotes and protects the
health of Americans by assuring that all
prescription and over-the-counter drugs are
safe and effective.
CDER evaluates all new drugs before they are
sold, and serves as a consumer watchdog for
the more than 10,000 drugs on the market to be
sure they continue to meet the highest
standards.
33. Contd…
The center routinely monitors TV, radio, and
print drug ads to ensure they are truthful and
balanced.
CDER also plays a critical role in providing
health professionals and consumers
information to use drugs appropriately and
safely.
34. CDER regulates-
Prescription Drugs: Prescription medicines
include any drug product that requires a
doctor's authorization to purchase.
Generic Drugs: A generic drug is a drug
product that is equivalent to brand name
products in terms of quality and performance.
Over-the-Counter Drugs: OTC drug products
are available to consumers without a doctor's
prescription.
36. Introduction
Title 21 is the portion of the Code of Federal
Regulations that governs food and drugs within
the United States for the Food and Drug
Administration (FDA), the Drug Enforcement
Administration (DEA), and the Office of
National Drug Control Policy (ONDCP).
37. It is divided into three chapters:
Chapter I — Food and Drug Administration
Chapter II — Drug Enforcement
Administration
Chapter III — Office of National Drug Control
Policy
38. Chapter I
• Most of the Chapter I regulations are based on the
Federal Food, Drug, and Cosmetic Act.
• Notable sections:
• 11 - electronic records and electronic signature
related
• 50- Protection of human subjects in clinical trials
• 56- Institutional Review Boards that oversee clinical
trials
• 58- Good Laboratory Practices (GLP) for nonclinical
studies
39. The 100 series are regulations pertaining to food:
101, especially 101.9 — Nutrition facts label related
106-107 requirements for infant formula
110 cGMPs for food products
170 food additives
190 dietary supplements
40. The 200 and 300 series are regulations
pertaining to pharmaceuticals :
202-203 Drug advertising and marketing
210 cGMPs for pharmaceuticals
310 Requirements for new drugs
328 Specific requirements for over-the-counter
(OTC) drugs.
41. The 500 series are regulations for animal feeds
and animal medications:
The 600 series covers biological products (e.g.
vaccines, blood):
The 700 series includes the limited regulations
on cosmetics:
The 800 series are for medical devices:
42. The 900 series covers mammography quality
requirements enforced by CDRH.
The 1000 series covers radiation emitting
device (e.g. lasers, cell phones) requirements
enforced by CDRH.
The 1200 series consists of rules primarily
based in laws other than the Food, Drug, and
Cosmetic Act:
43. Chapter II
1308.11 — List of Schedule I drugs
1308.12 — List of Schedule II drugs
1308.13 — List of Schedule III drugs
1308.14 — List of Schedule IV drugs
1308.15 — List of Schedule V drugs
44. Chapter III
1405 Government wide requirements for drug-free
workplaces