
Explore the new drug discovery and development process, including clinical research for safety and efficacy. From 5,000–10,000 compounds to one licensed drug, about 1% succeed in 10–15 years.
Trace the history of clinical research ethics and regulation from Ambrose Parry's trial to James Leonard's control group, through sulfamide tragedy and the 1938 Federal Food, Drug, and Cosmetic Act.
Mandates premarket safety review for new drugs through the NDA, labeling, and FDA GMP inspections, while linking the Nuremberg Code’s informed consent and animal testing requirements to protect human subjects.
Thalidomide tragedy exposed drug risks, including phocomelia, and sparked Kefauver Harris amendments requiring safety and efficacy, while Nuremberg Code and Belmont Report shaped human-subject protections.
Follow the end-to-end drug discovery process from target identification and validation to lead identification and optimization, with rigorous screening of 5,000–10,000 compounds through preclinical and clinical stages.
Explore lead identification, screening, and optimization using in vitro, in vivo, and in silico methods, followed by preclinical evaluation and phased clinical trials from IND to post-marketing surveillance.
Examine informed consent, its history from the Nuremberg Code to Helsinki and Belmont, and the ethical principles of autonomy, voluntary participation, and confidentiality in clinical research.
explain the Nuremberg Code and Belmont Report, focusing on information, comprehension, and willingness for voluntary, written informed consent, and relate to ICMR 2000 guidelines in India.
Explain the Belmont Report's ethical principles for human subject research—autonomy, beneficiaries, and justice—and the informed consent process, including information, comprehension, and volunteers.
Learn how informed consent functions as a continuous, written, and language-appropriate communication process between researchers and participants, from pre-screening through trial completion, detailing purpose, procedures, risks, benefits, alternatives, and rights.
Explore adverse drug reactions and adverse events, their WHO definitions, and the pharmacological classification from type A to type F, including dose-dependent type A and delayed and withdrawal reactions.
Explore the WHO-UMC causality framework for adverse drug reactions, detailing definite, probable, possible, conditional, and doubtful categories, plus time relationship, rechallenge concepts, and severity versus seriousness criteria.
Classify adverse drug reactions by seriousness and frequency, distinguish serious from severe, and apply SmPC, package inserts, or IB definitions with 14-day expedited reporting to sponsor and authorities.
Classify adverse drug reactions by non-mechanical mechanisms, including idiosyncrasy, hypersensitivity, intolerance, drug interactions, pharmacokinetic causes, and pharmacologic effects, with examples like paracetamol hepatotoxicity.
Learn how project management drives clinical research by planning resources, time, and cost to ensure timely drug development, market entry, and effective project teams and vendor coordination.
Explores stages of project management from initiation to completion, detailing work breakdown structure, tasks and subtasks, regulatory sequencing, the critical path, and tools such as Gantt charts and CPM.
Explore pert diagrams and the critical path method to plan and control clinical trial projects. Learn how network diagrams, gantt charts, and task dependencies drive execution and closeout.
Explain Schedule Y as India's regulatory framework for clinical trials of new drugs. Outline Schedule VI guidelines from preclinical to phase three trials, with safety, efficacy, and special studies.
Track how Schedule Y changed from 1988 to now, shifting from clinical trial focus to permission applications, adding phase four, informed consent, ethics committee roles, and postmarketing surveillance.
Outline sponsor responsibilities for quality assurance and GCP compliance, with status reports and 14-day SAE reporting to DCGI, while detailing investigator and ethics committee duties in schedule VI and appendices.
Understand the structure and content format of a clinical study report, including title page, study synopsis, ethics and compliance, appendices, and safety, efficacy, and GLP considerations.
Explore informed consent, appendix five, and fixed dose combinations in clinical research, detailing ethics committee roles, investigator responsibilities, and protocol requirements.
Define the clinical research organization (CRO) and the sponsor's role in initiating, managing, and financing trials. Outsourcing delivers cost effectiveness and flexible capacity for pharmaceutical, biotechnology, and medical device sponsors.
Explore the clinical research phases from phase zero microdosing to phase one safety and pharmacokinetics, covering dose finding, MTD, pharmacodynamics, and IND prerequisites.
Analyze phase 1 trial design, safety, and ethics, including single and multiple ascending dose studies, inclusion criteria, and protocol components guiding early pharmacokinetic assessments.
Phase two, or proof of concept trials, assess safety, efficacy, and dose range for an investigational drug using randomized, double-blind designs with placebo or standard treatment.
Phase three clinical trials test the efficacy and safety of an investigational drug in large, multicenter populations, usually randomized and blinded, against the gold standard to support regulatory approval.
The international conference on harmonisation unites regulatory bodies and industry from the EU, Japan, and US to harmonize technical requirements for registering medicines, improving safety, quality, and efficiency.
Map the ICH framework and its European Commission, EMA, and FDA regulatory roles, then examine the ICH Sterling Committee's harmonisation process and its observers.
Explore ICH guidelines categories—quality, safety, efficacy, and multidisciplinary—and learn how GCP E6 and MedDRA underlie harmonization and global clinical research.
Explore postmarketing surveillance, or phase four trials, to expand testing in real-world patient populations, assess long-term safety and efficacy, monitor rare adverse events, and meet regulatory reporting requirements.
Examine postmarketing surveillance types, including active and passive pharmacovigilance, with active surveillance being structured and proactive, and passive relying on spontaneous adverse event reports.
Trace the development and principles of the ICMR ethical guidelines for biomedical research on human subjects, including ethics committees, informed consent, vulnerable populations, and global alignment with WHO/UNESCO.
Apply the ICMR principles of essentiality, voluntary participation, informed consent, and community agreement to ensure privacy and confidentiality, risk minimization, and non-exploitation in clinical research.
Explore the overview and history of GCP, its ICH guidelines, and how it standardizes trial design, safety, and data integrity to protect subjects and enable global approvals.
Explore ICH GCP guidelines and Indian GCP standards, including glossary, ethics, IRB, investigator and sponsor responsibilities, protocol, investigator brochure, essential and source documents, and informed consent.
Explore the role of good clinical practice in India, ensuring rights, safety, and well-being of trial subjects through ethics committees, informed consent, risk-benefit assessment, and regulatory oversight.
Define standard operating procedures, or SOPs, as detailed instructions ensuring uniform task performance in clinical research and regulatory compliance under ICH GCP.
Outline how to write SOPs for clinical research, covering topics from IRB submissions to amendments, source documents, and essential records, using a header-to-appendix template to ensure GCP compliance.
Learn how to write standard operating procedures for clinical research, including IRB submissions, process mapping, two-tier systems, roles and responsibilities, training, approvals, and implementation.
Explore pharmacovigilance reporting, adverse drug reactions, and India’s national program from peripheral centers to the Uppsala Monitoring Centre, detailing training, coordination, and data flow for patient safety.
Learn how to report adverse events to the national pharmacovigilance program center, including what to report, who can report, and where to report to the nearest pharmacovigilance center.
MedWatch enables patients, consumers, and healthcare professionals to report adverse drug reactions and medical device issues to the US FDA, guiding recalls and labeling changes.
Explore quality of life in clinical research, examining drug effects on emotional, social, and physical well-being and how health-related quality of life is measured by patient questionnaires.
Explore health-related quality of life as a basis for clinical decisions, cost-benefit analysis, and patient-centered care through surveys, palliative care, and ethical considerations.
Explore the introduction to pharmacology, its role in clinical research, and the basics of pharmacokinetics and pharmacodynamics, including drug targets, receptors, and bioassay and clinical trials.
Explore pharmacodynamics by detailing how drugs produce effects, from receptor binding and agonist–antagonist actions to ion channel, enzyme, and transporter targets that shape dose–response relationships.
Explore how pharmacokinetics describes drug movement through absorption, distribution, metabolism, and excretion. Assess how routes of administration, bioavailability, and dose-response shape safety and efficacy.
Explore how medical writing communicates health data across scientific medical writing and marketing medical writing, targeting audiences with customized writing while meeting tight deadlines for regulatory submissions.
Identify the characteristics of a good medical writer: thorough research, data accuracy, and clear citations. Ensure concise, logical, readable writing and proper article structure from title to references.
Explore biostatistics in clinical trials, from phase one safety to post-marketing surveillance, learning study designs, randomization, blinding, and NDA registration processes.
Explore clinical trial design and its impact on protocol validity, including simple two-group, parallel, repeated measures, crossover, and factorial designs, with emphasis on variability, randomization, washout periods, and period effects.
Explore factorial designs for evaluating drug combinations, including testing interactions and main effects, with attention to efficiency and interpretation. Identify observational studies—cohort, case-control, cross-sectional—and their biases and design considerations.
Identify selection criteria, including inclusion and exclusion criteria, for clinical trials; design robust protocols; select sites and investigators; recruit subjects; ensure GCP and quality management system compliance in multicenter trials.
Understand clinical research outsourcing, what tasks can be outsourced—from data management to pharmacovigilance and CRF design—and how contracts enable cost-effective, timely study delivery.
Explore major outsourcing contract types in clinical research—fixed price, time and material, task-based unit price, milestone-based price, and risk sharing. Track how outsourcing evolved from CRO-driven growth to strategic partnerships.
Identify and manage the outsourcing process through a structured workflow: prepare a budget and RFP, evaluate proposals, select a provider, and negotiate contracting with confidentiality and clear cost terms.
Explore evaluating proposals with a comparison grid, conducting CRO diligence visits, and drafting contracts that define data transfer, ownership, responsibilities, and publication policies for clinical trial outsourcing.
Explore fraud and misconduct in clinical research, including definitions, the continuum from minor deviations to fabrication, falsification, and plagiarism, and the consequences, investigations, and due process.
Assess the prevalence and forms of fraud in clinical trials, and explore consequences, warning signs, and detection strategies to prevent research misconduct.
Understand how bioequivalence studies compare generic products to innovator drugs using pharmacokinetics to ensure similar Cmax and AUC and therapeutic effect in healthy volunteers.
Explore bioequivalence through pharmacokinetics parameters like AUC, Cmax, and Tmax, and compare test and reference products using single-dose two-period crossover designs under regulatory guidelines.
The FDA guideline for BA studies outlines administering with water, ensuring test and reference product equivalence within 5%, and using blood sampling to describe absorption and elimination for generic drug labeling.
This course provides an in-depth understanding of clinical research processes, pharmacovigilance, and the regulatory framework governing drug development. Spanning from drug discovery to bioequivalence studies, the course equips learners with the technical knowledge and skills required for careers in clinical research and related fields. Emphasis is placed on practical applications, global regulatory standards, and ethical considerations in the healthcare industry.
Section 1: Introduction
This section introduces the foundational concepts of drug discovery and development. Topics include the approaches to drug discovery, clinical trial methodologies, and significant regulatory milestones such as the Food, Drug & Cosmetic Act and the lessons learned from the Thalidomide tragedy. These lectures set the stage for understanding the critical role of clinical research in drug safety and efficacy.
Section 2: International Conference on Harmonization (ICH)
Gain a comprehensive understanding of the International Conference on Harmonization (ICH), its history, and its impact on global regulatory standards. This section delves into the harmonization process, providing a framework for understanding how consistent regulatory practices ensure drug safety and quality worldwide.
Section 3: Adverse Drug Reactions (ADRs)
This section explores adverse drug reactions, their classifications, and mechanisms. Learners will develop skills to identify, analyze, and manage ADRs, ensuring patient safety and compliance with regulatory requirements.
Section 4: Project Management in Clinical Research
Project management is integral to clinical research success. This section covers project lifecycle stages, Schedule Y guidelines, and the responsibilities of clinical research teams. Learners will gain insights into effective project planning, execution, and documentation practices.
Section 5: Clinical Research Phases
This section examines the various phases of clinical research, from Phase 1 to Phase 4, with detailed discussions on CROs, ICH guidelines, and ICMR principles. Students will learn how each phase contributes to the drug approval process and post-market surveillance.
Section 6: Regulatory Guidelines in Clinical Research
Understanding Good Clinical Practice (GCP) is vital for clinical research. This section introduces the principles of GCP, ICH guidelines, and the process of writing Standard Operating Procedures (SOPs). It also includes a focus on MedWatch and Quality of Life (QOL) assessments.
Section 7: Pharmacovigilance
This section introduces pharmacovigilance, emphasizing the importance of monitoring drug safety throughout its lifecycle. Topics include pharmacodynamics, pharmacokinetics, and clinical trial design, equipping students to manage safety concerns effectively.
Section 8: Clinical Research Process: Outsourcing
Explore the role of outsourcing in clinical research. This section highlights types of contracts, outsourcing processes, and best practices to ensure efficiency and regulatory compliance.
Section 9: Fraud and Misconduct in Clinical Research
Fraud and misconduct undermine the integrity of clinical research. This section examines their prevalence, types, and preventive measures to ensure ethical practices in all stages of clinical research.
Section 10: Special Trials: Bioequivalence and Bioavailability (BABE)
Focused on bioequivalence studies, this section discusses the parameters of bioequivalence and FDA guidelines, preparing students for roles in specialized clinical trials.
Section 11: Communication in Clinical Research
Effective communication is crucial in clinical research. This section teaches the fundamentals of communication and its role in ensuring collaboration and compliance within research teams.
Course Conclusion:
By the end of the course, students will have a thorough understanding of clinical research processes, regulatory requirements, and pharmacovigilance. This knowledge will empower them to contribute meaningfully to drug development, safety monitoring, and regulatory compliance.