Pharm D

Fee Type	Amount
Programme Fees (per Semester)	₹110000
Examination Fees	₹3000
International Fee (USD)	$5000

Slab	>=60% - 74.99%	>=75% - 89.99%	>=90% & Above
Fee	₹105000	₹100000	₹95000

Course Curriculum

1ST YEAR SUBJECTS

Introduces the structure and normal functions of the human body, including major organ systems, physiological mechanisms, and their relevance to pharmacy and clinical practice.

Course Outcome:

CO1: Understand the structure and functions of human body systems and their physiological mechanisms.
CO2: Explain the anatomy, physiology, and pathology basics of major organ systems.
CO3: Identify and describe disorders related to different body systems with basic clinical relevance.
CO4: Develop skills to interpret physiological data and understand the role of organs in maintaining homeostasis.
CO5: Apply anatomical and physiological knowledge in practical and clinical contexts.

Introduces dosage forms, prescriptions, pharmaceutical calculations, formulation principles, pharmacopoeias, incompatibilities, surgical aids, and the preparation and evaluation of pharmaceutical dosage forms.

Course Outcome:

CO1: Explain dosage forms, prescriptions, dose calculations.
CO2: Apply pharmaceutical calculations in formulation and understand history and different Pharmacopoeias.
CO3: Prepare and evaluate monophasic and biphasic dosage forms.
CO4: Prepare and evaluate Suppositories and galenical dosage forms.
CO5: Demonstrate knowledge of surgical aids and manage incompatibilities.

Covers cell biochemistry, energy compounds, membrane transport, enzymes, metabolism of major biomolecules, clinical chemistry, and immunochemical techniques relevant to disease diagnosis.

Course Outcome:

CO1: Understand cell biochemistry, energy compounds, and membrane transport.
CO2: Explain enzyme functions, classifications, and clinical applications.
CO3: Describe carbohydrate, lipid, protein, and nucleic acid metabolism including disorders.
CO4: Interpret clinical chemistry lab tests for kidney, liver, lipids, and electrolytes.
CO5: Apply immunochemical techniques for disease diagnosis.

Introduces the structures, properties, nomenclature, reaction mechanisms, and chemical transformations of organic compounds relevant to pharmaceutical sciences.

Course Outcome:

CO1: Understand structures, properties, and nomenclature of organic compounds.
CO2: Explain reaction mechanisms of substitution, elimination, and addition reactions.
CO3: Apply knowledge of resonance, aromatic substitution, and rearrangement reactions.
CO4: Analyze oxidation-reduction and condensation reactions in organic synthesis.
CO5: Prepare and evaluate official pharmaceutical organic compounds.

Covers principles and methods of pharmaceutical analysis, titration techniques, indicators, pharmaceutical compounds, medicinal gases, electrolytes, and pharmaceutical aids.

Course Outcome:

CO1: Understand principles and methods of volumetric and gravimetric analysis.
CO2: Apply different titration techniques including acid-base, redox, and complexometric titrations.
CO3: Explain the theory and use of indicators in pharmaceutical analysis.
CO4: Identify and analyze various pharmaceutical compounds and their applications.
CO5: Recognize and describe medicinal gases, electrolytes, and pharmaceutical aids.

Provides foundational knowledge of plant and animal biology, including plant structure and physiology, tissues, organs, reproduction, plant families, microorganisms, animal cells and tissues, and poisonous animals.

Course Outcome:

CO1: Understand basic plant biology including structure, classification, and physiology.
CO2: Identify and describe plant tissues, organs, and reproductive features.
CO3: Recognize important plant families and microorganisms relevant to pharmacy.
CO4: Understand animal cell structure, tissues, and general anatomy of key animals.
CO5: Explain the classification and characteristics of poisonous animals.

Provides foundational mathematical knowledge in matrices, determinants, trigonometry, analytical geometry, calculus, differential equations, and Laplace transforms for pharmaceutical applications.

Course Outcome:

CO1: Apply the concepts of determinants and matrices to solve linear algebra problems.
CO2: Solve problems involving triangles using trigonometric identities and rules.
CO3: Analyze geometric figures like lines, circles, and parabolas using analytical geometry.
CO4: Perform differentiation and integration of various mathematical functions.
CO5: Solve basic differential equations and apply Laplace transforms in mathematical modeling.

Provides practical training in identification of human tissues, hematological investigations, physiological measurements, study of body systems using specimens and models, and experimental physiology techniques.

Course Outcome:

CO1: Identify and differentiate various human tissues including epithelial, muscular, connective, and nervous tissues.
CO2: Perform hematological experiments including WBC, RBC, differential counts, ESR, hemoglobin, bleeding and clotting times.
CO3: Understand and measure physiological parameters like blood pressure and blood grouping.
CO4: Study and explain various human body systems using charts, models, and specimens.
CO5: Conduct experimental physiology techniques such as muscle contraction studies and pregnancy diagnosis tests.

Provides practical training in the preparation, standardization, and evaluation of pharmaceutical dosage forms including syrups, elixirs, linctus, solutions, liniments, suspensions, emulsions, powders, and suppositories, with emphasis on incompatibilities and quality evaluation.

Course Outcome:

CO1: Prepare and standardize various pharmaceutical dosage forms like syrups, elixirs, and linctus.
CO2: Formulate and evaluate solutions, liniments, suspensions, and emulsions with proper techniques.
CO3: Prepare powders and suppositories ensuring correct pharmaceutical practices.
CO4: Identify and analyze physical, chemical, and therapeutic incompatibilities in formulations.
CO5: Evaluate the quality, stability, and effectiveness of pharmaceutical formulations using appropriate testing techniques.

Provides practical training in biochemical laboratory techniques, including qualitative and quantitative analysis of biomolecules and interpretation of biochemical investigations.

Course Outcome:

CO1: Analyze normal and abnormal constituents of urine qualitatively and quantitatively.
CO2: Perform quantitative estimations of key biochemical parameters like glucose, creatinine, calcium, cholesterol, and urea in urine and blood samples.
CO3: Estimate serum enzymes (SGOT, SGPT) and proteins to assess physiological and pathological conditions.
CO4: Understand and apply enzymatic reactions and factors affecting enzyme activity such as pH and temperature.
CO5: Prepare and use standard buffer solutions and conduct lipid profile and electrolyte analysis in serum samples.

Provides practical training in qualitative identification, purification, preparation and evaluation of selected pharmaceutical organic compounds and related laboratory techniques.

Course Outcome:

CO1: Synthesize and characterize important organic compounds through various organic reactions.
CO2: Perform systematic qualitative analysis and identification of organic compounds and their derivatives.
CO3: Apply functional group tests to classify organic compounds such as phenols, amides, carbohydrates, amines, and others.
CO4: Understand and utilize stereochemical concepts using molecular models for better visualization of organic structures.
CO5: Develop practical skills in organic laboratory techniques including purification, synthesis, and analysis.

Provides practical training in the identification, purity testing, limit tests, preparation and evaluation of selected pharmaceutical inorganic compounds.

Course Outcome:

CO1: Understand and apply various organic synthesis techniques such as acetylation, benzoylation, bromination, nitration, condensation, diazotization, oxidation, reduction, and hydrolysis.
CO2: Demonstrate proficiency in synthesizing key organic compounds relevant to pharmaceutical and industrial applications.
CO3: Analyze the mechanisms, reagents, and reaction conditions involved in multi-step organic syntheses.
CO4: Develop skills in isolating, purifying, and characterizing synthesized compounds through recrystallization or other standard techniques.
CO5: Apply theoretical organic chemistry knowledge to practical laboratory work, ensuring safety, precision, and documentation of experimental results.

Provides practical exposure to biological specimens, microscopy, plant and animal tissues, biological structures and basic laboratory exercises for students requiring remedial biology.

Course Outcome:

CO1: Understand and demonstrate the basic structure and function of plant cells, tissues, and modifications (stem, root, leaf).
CO2: Identify and classify fruits, seeds, and economically important plant species based on morphological features.
CO3: Perform simple plant physiological experiments and prepare permanent microscopic slides for anatomical study.
CO4: Recognize key animal species, conduct detailed anatomical studies (e.g., frog dissection), and understand vertebrate systems.
CO5: Utilize computer-based tutorials to enhance learning in biology and integrate digital tools into biological studies.

2ND YEAR SUBJECTS

Explains functional and biochemical changes associated with common diseases and disorders, providing the basis for understanding clinical manifestations and therapeutic approaches.

Course Outcome:

CO1: Understand the fundamental mechanisms of cell injury, adaptation, inflammation, and tissue repair, including factors influencing healing.
CO2: Explain immune system function and dysfunction, including hypersensitivity, autoimmunity, graft rejection, AIDS, and amyloidosis.
CO3: Describe the biological behavior of tumors, distinguishing benign from malignant growth, mechanisms of cancer spread, and principles of cancer pathology.
CO4: Analyze the pathophysiological basis of common diseases affecting various systems (neurological, cardiovascular, endocrine, gastrointestinal, renal, respiratory).
CO5: Understand the mechanisms and consequences of shock, radiation effects, environmental/nutritional disorders, and the pathology of major infectious diseases.

Covers microorganisms, sterilization, disinfection, microbial contamination, aseptic techniques, microbial assays and pharmaceutical applications of microbiology.

Course Outcome:

CO1: Understand the foundations of microbiology and classification of major microbial groups.
CO2: Explain microbial nutrition, growth, cultivation techniques, and culture media applications.
CO3: Apply microbial isolation, staining, identification, and bacterial counting techniques.
CO4: Evaluate sterilization methods, sterility testing, and antimicrobial agents in pharmaceutical use.
CO5: Describe immunity principles, antigen-antibody interactions, and the role of vaccines and bacterial toxins.

Introduces natural drugs, crude-drug classification, cultivation, collection, processing, evaluation and phytoconstituents obtained from medicinal plants, with emphasis on phytopharmaceutical applications.

Course Outcome:

CO1: Understand the foundational concepts, history, and scope of Pharmacognosy.
CO2: Classify crude drugs based on origin, properties, and botanical aspects.
CO3: Explain cultivation, collection, processing, and storage of crude drugs.
CO4: Analyze cell wall constituents and microscopic features of crude drugs.
CO5: Perform microscopical and powder analysis for identification of crude drugs.

Introduces general pharmacology, pharmacodynamics, pharmacokinetics and drugs acting on major body systems, emphasizing mechanisms, uses and adverse effects.

Course Outcome:

CO1: Understand fundamental concepts of general pharmacology, including drug definitions, scope, and administration routes.
CO2: Explain pharmacokinetics and pharmacodynamics, including factors influencing drug effects and toxicity.
CO3: Describe drug evaluation methods, toxicity types, and drug interactions.
CO4: Comprehend pharmacology of drugs affecting the autonomic nervous and cardiovascular systems, including mechanisms and therapeutic uses.
CO5: Understand pharmacology of drugs acting on the central nervous system and respiratory tract, covering major drug classes and their uses.

Covers pharmacy services provided to patients and communities, including patient-oriented care, dispensing, counselling, health promotion and rational use of medicines.

Course Outcome:

CO1: Understand the role, scope, and responsibilities of a community pharmacist.
CO2: Apply principles of community pharmacy management, including inventory control and use of software.
CO3: Accurately interpret prescriptions and identify medication-related issues.
CO4: Implement pharmaceutical care and conduct effective patient counseling.
CO5: Promote patient medication adherence and develop supportive communication tools.

Introduces the principles of rational drug therapy and application of pharmacological knowledge to the management of common diseases and disorders.

Course Outcome:

CO1: Understand pathophysiology and pharmacological management of cardiovascular diseases and arrhythmias.
CO2: Comprehend respiratory disorders and pulmonary function testing.
CO3: Understand endocrine disorders and hormone therapies.
CO4: Apply safe prescribing principles for special populations (pediatrics, geriatrics, pregnancy).
CO5: Grasp rational drug use principles and management of common ophthalmologic conditions.

Provides practical skills in aseptic handling, staining, culture, sterilization, microbial testing and evaluation of antimicrobial agents.

Course Outcome:

CO1: Understand and perform basic microbiology laboratory techniques including sterilization and media preparation.
CO2: Apply staining methods for identification and characterization of microorganisms.
CO3: Conduct microbial enumeration, isolation, and biochemical testing for microorganism identification.
CO4: Evaluate antimicrobial susceptibility and determine minimum inhibitory concentrations of antibiotics.
CO5: Perform microbiological assays and diagnostic tests for antibiotics, vitamins, and common infectious diseases.

Provides practical identification and evaluation of crude drugs using morphological, microscopic and preliminary phytochemical methods, with application to phytopharmaceutical materials.

Course Outcome:

CO1: Understand the basic principles and laboratory practices in Pharmacognosy, including plant cell wall constituents and inclusions.
CO2: Identify and differentiate crude drugs through macro, powder, and microscopic studies of various medicinal plants.
CO3: Analyze physicochemical properties of crude drugs by determining iodine, saponification, ester, and acid values.
CO4: Perform chemical tests for detection and characterization of natural substances such as gums, starch, lipids, and gelatin.
CO5: Develop the ability to correlate morphological features with chemical constituents for accurate identification of crude drugs.

Develops practical skills in patient-oriented therapeutic assessment through case studies, prescription evaluation and application of rational pharmacotherapy principles.

Course Outcome:

CO1: Gain practical exposure to clinical settings through active participation in ward rounds and patient care.
CO2: Develop the ability to observe and analyze drug therapy modifications in real-time patient management.
CO3: Enhance clinical reasoning by correlating patient history, symptoms, and pharmacological treatment.
CO4: Improve skills in case documentation, presentation, and clinical communication.
CO5: Foster interdisciplinary collaboration and understanding of common diseases in various hospital departments.

3RD YEAR SUBJECTS

Covers pharmacology of major cardiovascular, endocrine, gastrointestinal, respiratory and other therapeutic drug groups, including mechanisms, uses, adverse effects and interactions.

Course Outcome:

CO1: Understand pharmacology of drugs affecting blood, renal system, and blood-forming agents including anticoagulants, diuretics, and antidiuretics.
CO2: Explain chemotherapy principles and classify major antimicrobial and anticancer agents.
CO3: Comprehend immunopharmacology including immunosuppressants and immunostimulants.
CO4: Understand principles of animal toxicology covering acute, sub-acute, and chronic toxicity.
CO5: Describe cellular structure, chromosome organization, and genetic information flow in prokaryotes and eukaryotes.

Covers fundamental principles of pharmaceutical analysis including errors, accuracy, precision, volumetric analysis and analytical methods used for quality evaluation of pharmaceuticals.

Course Outcome:

CO1: Understand quality assurance principles, including quality control, validation, GLP, ISO standards, and regulatory guidelines.
CO2: Explain principles, classification, and applications of chromatographic techniques like TLC, HPLC, GC, and electrophoresis.
CO3: Comprehend electrometric methods such as potentiometry, conductometry, and their pharmaceutical uses.
CO4: Understand spectroscopic methods, their instrumentation, and applications in pharmaceutical analysis.
CO5: Apply theoretical knowledge and interpret data from analytical techniques for quality evaluation.

Continues the study of rational drug therapy and therapeutic approaches for major diseases, with emphasis on treatment selection, monitoring and patient care.

Course Outcome:

CO1: Apply rational antibiotic use guidelines and understand pharmacotherapy for infectious diseases including tuberculosis, meningitis, respiratory tract infections, gastroenteritis, endocarditis, septicemia, urinary tract infections, malaria, HIV and opportunistic infections, fungal and viral infections, gonorrhea, and syphilis.
CO2: Understand the pathophysiology and pharmacological management of musculoskeletal disorders such as rheumatoid arthritis, osteoarthritis, gout, spondylitis, and systemic lupus erythematosus.
CO3: Describe the clinical features and pharmacotherapy of renal disorders including acute and chronic renal failure, renal dialysis, and drug-induced renal disorders.
CO4: Comprehend the basic principles of cancer therapy, including the mechanisms, indications, and management of chemotherapy for breast cancer and leukemia, as well as supportive care for chemotherapy-induced nausea and emesis.
CO5: Understand common dermatological conditions such as psoriasis, scabies, eczema, and impetigo, and apply appropriate pharmacotherapeutic interventions.

Introduces laws, regulations and ethical requirements governing pharmacy profession, manufacture, sale, distribution and control of drugs and related products.

Course Outcome:

CO1: Understand key pharmaceutical legislations governing drug manufacture, sale, import, and control.
CO2: Explain professional ethics in pharmacy and the Pharmaceutical Council of India code of ethics.
CO3: Comprehend the Drugs and Cosmetics Act, 1940, including schedules, regulatory bodies, and provisions for indigenous systems.
CO4: Describe the Pharmacy Act, 1948, covering council functions, registration, and enforcement.
CO5: Understand regulations under the Medicinal and Toilet Preparation Act, Narcotic Drugs Act, and the Drugs and Magic Remedies Act.

Introduces principles of drug design, structure-activity relationships and chemistry of selected therapeutic classes, linking chemical structure with biological activity.

Course Outcome:

CO1: Understand modern rational drug design concepts including QSAR, prodrugs, combinatorial chemistry, and computer-aided drug design.
CO2: Explain chemistry, mechanisms, and clinical uses of major anti-infective agents including antibiotics, antifungals, antivirals, and antiprotozoals.
CO3: Describe pharmacology and clinical applications of sulphonamides, antimalarials, and antineoplastic agents.
CO4: Comprehend pharmacology of cardiovascular drugs including antihypertensives, antianginals, and anticoagulants.
CO5: Understand endocrine and diuretic pharmacology including hypoglycemics, thyroid drugs, and diuretics.

Covers formulation development, preparation and evaluation of pharmaceutical dosage forms, applying pharmaceutic principles to the design of safe and effective medicines.

Course Outcome:

CO1: Understand classification and significance of pharmaceutical dosage forms in drug delivery.
CO2: Explain formulation, excipient selection, and quality control of tablets and capsules.
CO3: Describe formulation, evaluation, and stability of liquid oral and parenteral dosage forms.
CO4: Understand preparation and evaluation of ophthalmic and semi-solid formulations.
CO5: Introduce controlled and novel drug delivery systems with their design and clinical applications.

Provides practical and simulated exercises in experimental pharmacology, dose-response relationships, screening methods and interpretation of drug actions.

Course Outcome:

CO1: Understand the handling and care of laboratory animals and the use of physiological solutions in experimental pharmacology.
CO2: Demonstrate knowledge of laboratory equipment and anesthetic techniques used in animal experiments.
CO3: Perform and interpret dose-response studies and bioassays using isolated tissue preparations such as ileum and rectus abdominis muscle.
CO4: Analyze the pharmacological effects of agonists and antagonists through in vitro and in vivo experimental models.
CO5: Evaluate various pharmacological activities (analgesic, anti-inflammatory, anticonvulsant, antidepressant, locomotor, cardiotonic) using appropriate experimental methods.

Develops hands-on skills in preparation and standardization of solutions and performance of common analytical methods used for pharmaceutical quality control.

Course Outcome:

CO1: Understand and apply chromatographic techniques (paper chromatography, TLC, HPLC, HPTLC, GC-MS) for separation and identification of pharmaceutical compounds.
CO2: Utilize spectroscopic methods (UV-Visible, IR, NMR, fluorimetry) to analyze compound structures, derivatives, and interactions.
CO3: Perform potentiometric, conductometric, and nepheloturbidimetric analyses to determine chemical properties and concentrations in pharmaceutical samples.
CO4: Carry out drug estimations and assays using colorimetry, fluorimetry, and flame photometry, ensuring accurate quantitative analysis.
CO5: Demonstrate understanding of advanced instrumental methods (DSC, pH meter, polarimetry) and interpret spectral data for pharmaceutical evaluation.

Provides practical training in case-based therapeutic assessment, treatment evaluation and application of rational drug-use principles.

Course Outcome:

CO1: Understand the principles of clinical pharmacy and rational drug therapy selection in common disease conditions.
CO2: Apply knowledge from lectures to real-world clinical cases through ward rounds and patient follow-up.
CO3: Analyze and document changes in drug therapy, identifying reasons for modifications in treatment plans.
CO4: Develop competency in presenting and discussing patient cases, including therapeutic approaches and outcomes.
CO5: Demonstrate understanding of interprofessional collaboration in patient care and the pharmacist’s role in clinical settings.

Provides practical training in synthesis, identification and characterization of selected medicinal compounds and basic medicinal chemistry techniques.

Course Outcome:

CO1: Understand and perform quantitative assays of pharmaceutically important drugs.
CO2: Synthesize medicinally important compounds and key intermediates used in drug development.
CO3: Conduct monograph-based analysis following pharmacopeial standards for drug substances.
CO4: Determine and interpret physicochemical properties like partition coefficient, dissociation constant, and molar refractivity.
CO5: Apply analytical data in QSAR (Quantitative Structure-Activity Relationship) for drug design insights.

Provides hands-on training in formulation, preparation and evaluation of conventional pharmaceutical dosage forms under laboratory conditions.

Course Outcome:

CO1: Understand and perform the manufacturing processes for different tablet types using wet granulation, direct compression, and other methods.
CO2: Learn the formulation, filling, and evaluation techniques for hard gelatin capsules and parenteral preparations.
CO3: Apply quality control (QC) tests to assess the compliance of tablets, capsules, injections, and liquid oral preparations.
CO4: Formulate and evaluate semisolid dosage forms like ointments and gels, including appropriate assay methods.
CO5: Understand the preparation techniques and ingredient selection for common cosmetic products like lipsticks, creams, shampoos, and toothpaste

4TH YEAR SUBJECTS

Provides advanced study of pharmacotherapy and application of therapeutic principles to complex disease states, treatment selection and monitoring of drug therapy.

Course Outcome:

CO1: Understand the pathophysiology of common diseases and explain the rationale for appropriate drug therapy.
CO2: Summarize evidence-based therapeutic approaches for disease management.
CO3: Identify and assess patient-specific parameters for initiating, monitoring, and adjusting drug therapy.
CO4: Develop and optimize individualized therapeutic plans addressing patient needs and drug-related problems.
CO5: Demonstrate clinical decision-making and problem-solving skills in pharmacotherapy using evidence-based resources

Covers hospital pharmacy services, medication handling, procurement, storage, distribution, dispensing and the pharmacist's role in supporting patient care.

Course Outcome:

CO1: Understand the organizational structure, functions of hospitals, and the role of hospital pharmacy in healthcare delivery.
CO2: Apply principles of hospital pharmacy management including infrastructure, staffing, budgeting, procurement, and financial planning.
CO3: Participate in the development of hospital drug policies, therapeutic guidelines, and the functioning of key committees like PTC, infection control, and ethics.
CO4: Manage inventory and drug distribution systems effectively, including controlled substances, sterile supplies, and pharmaceutical manufacturing.
CO5: Demonstrate knowledge of safe practices, continuous professional development, and the handling of specialized products like radiopharmaceuticals and TPN.

Covers hospital and clinical pharmacy services, medication review, patient counselling, drug information, clinical pharmacy activities and rational use of medicines.

Course Outcome:

CO1: Understand the scope, development, and responsibilities of clinical pharmacy practice.
CO2: Apply clinical pharmacy services in patient care, including drug therapy monitoring, ADR management, ward round participation, and patient counseling.
CO3: Analyze patient case histories, medical records, and laboratory test results to optimize evidence-based drug therapy.
CO4: Provide accurate drug and poison information using appropriate resources and effective communication.
CO5: Explain and participate in pharmacovigilance activities, including ADR reporting, prevention, and management.

Introduces research design, sampling, data collection, statistical analysis, hypothesis testing, interpretation of results and preparation of scientific research reports.

Course Outcome:

CO1: Explain and design various clinical research methodologies, including study designs, sampling strategies, and power analysis.
CO2: Apply biostatistical principles to describe, analyze, and interpret data using measures of central tendency, dispersion, and graphical tools.
CO3: Demonstrate hypothesis testing using appropriate parametric and non-parametric statistical methods in pharmacy research.
CO4: Perform and interpret regression, correlation, and epidemiological analyses, including the use of statistical software like SPSS, Epi Info, and SAS.
CO5: Utilize computer systems effectively for pharmaceutical care, including patient data management, inventory control, medication dispensing, and literature retrieval.

Explains drug absorption, distribution, metabolism and elimination, bioavailability, bioequivalence and pharmacokinetic concepts used to optimize dosage regimens.

Course Outcome:

CO1: Explain fundamental pharmacokinetic principles including drug absorption, distribution, metabolism, and elimination.
CO2: Apply mathematical pharmacokinetic models (one- and multi-compartment) to analyze drug concentration data for different routes of administration.
CO3: Design and interpret multiple dosing regimens using compartmental pharmacokinetic models.
CO4: Understand nonlinear pharmacokinetics and use appropriate methods (e.g., Michaelis-Menten) for parameter estimation.
CO5: Describe bioavailability and bioequivalence principles and assess study protocols for their evaluation

Covers principles of toxicology, recognition and evaluation of poisoning and toxic effects, and the pharmacist's role in prevention, assessment and management of toxic exposures.

Course Outcome:

CO1: Understand and apply principles of poisoning management, including supportive care, gut decontamination, and elimination enhancement techniques.
CO2: Identify common antidotes and their clinical applications in treating various poisonings.
CO3: Recognize clinical symptoms and develop management plans for acute and chronic poisonings from pesticides, drugs, chemicals, heavy metals, and radiation.
CO4: Describe first aid and treatment strategies for envenomations such as venomous snake bites, arthropod stings, and plant/mushroom poisonings.
CO5: Identify signs, symptoms, and treatment approaches for substance abuse and dependence involving CNS stimulants, opioids, depressants, hallucinogens, cannabis, and tobacco.

Provides practical case-based training in advanced pharmacotherapy, patient assessment and evaluation of therapeutic outcomes.

Course Outcome:

CO1: Demonstrate clinical understanding through hospital ward postings by observing and analyzing patient cases related to drug therapy and disease management.
CO2: Apply etiopathogenesis and pharmacotherapy knowledge across various systems including gastrointestinal, hematological, nervous, psychiatric disorders, and pain management.
CO3: Develop skills in case presentation and clinical discussion, effectively communicating medical findings and therapeutic decisions.
CO4: Conduct evidence-based research and submit comprehensive written assignments on recent developments in drug therapy.
CO5: Prepare for and perform practical examinations including experiments, viva voce, and maintain detailed clinical records for evaluation.

Provides practical exposure to hospital pharmacy operations, medication handling, dispensing, storage, distribution and patient-care support.

Course Outcome:

CO1: Analyze and assess potential drug interactions in clinical prescriptions to ensure patient safety.
CO2: Understand and demonstrate the manufacturing processes of parenteral formulations and pharmaceutical powders.
CO3: Effectively retrieve, evaluate, and provide accurate drug information to support clinical decision-making.
CO4: Apply principles of inventory control to manage pharmaceutical stocks efficiently.
CO5: Integrate practical pharmaceutical knowledge with clinical practice to optimize therapeutic outcomes.

Provides practical training in medication review, patient counselling, drug information, clinical documentation and pharmaceutical care activities.

Course Outcome:

CO1: Demonstrate proficiency in answering drug information queries accurately to support clinical decisions.
CO2: Conduct effective patient medication counseling to enhance adherence and therapeutic outcomes.
CO3: Analyze case studies involving laboratory investigations to correlate clinical findings with pharmacotherapy.
CO4: Perform comprehensive patient medication history interviews to gather essential information for safe medication use.
CO5: Integrate practical skills with theoretical knowledge for improved patient-centered pharmaceutical care.

Demonstrates pharmacokinetic and biopharmaceutic principles through calculations, data interpretation and evaluation of drug disposition and dosage regimens.

Course Outcome:

CO1: Apply techniques to improve dissolution and solubility characteristics of poorly soluble drugs.
CO2: Perform and interpret dissolution, bioavailability, and bioequivalence studies of marketed pharmaceutical products.
CO3: Understand and evaluate the impact of polymorphism and protein binding on drug pharmacokinetics.
CO4: Calculate and analyze pharmacokinetic parameters such as Ka, Ke, t1/2, Cmax, AUC, MRT, and renal clearance from experimental data.
CO5: Conduct in vitro and in vivo absorption studies and interpret metabolic and elimination kinetics of drugs.

5TH YEAR SUBJECTS

Introduces research design, clinical study processes, data collection, analysis, interpretation and reporting relevant to clinical research and evaluation of medicines.

Course Outcome:

CO1: Describe the drug development process, including pharmacological and toxicological approaches and IND application essentials.
CO2: Understand clinical trial phases, study design, and post-marketing surveillance.
CO3: Explain Good Clinical Practice (GCP), regulatory frameworks, and ethical considerations in clinical research.
CO4: Identify roles and responsibilities of clinical trial personnel and develop essential clinical study documents.
CO5: Describe informed consent, data management, and safety monitoring to ensure patient safety and data integrity.

Covers the study of medicine use and outcomes in populations and the principles used to evaluate the economic impact, cost and value of pharmaceutical therapies.

Course Outcome:

CO1: Define pharmacoepidemiology and pharmacoeconomics, and explain their scope and significance in healthcare decision-making.
CO2: Describe key pharmacoepidemiological concepts and outcome measures related to drug use and safety.
CO3: Analyze pharmacoepidemiological study designs and data sources for evaluating drug effects.
CO4: Explain principles and types of pharmacoeconomic evaluations used in healthcare resource allocation.
CO5: Apply pharmacoeconomic and pharmacoepidemiological tools and case studies for practical decision-making.

Covers application of pharmacokinetic principles to individualize drug therapy and therapeutic drug monitoring for optimizing efficacy and minimizing toxicity.

Course Outcome:

CO1: Explain fundamental clinical pharmacokinetics concepts and their role in optimizing drug therapy.
CO2: Design individualized dosage regimens for special populations using pharmacokinetic tools.
CO3: Analyze pharmacokinetic drug interactions and their effects on metabolism and excretion.
CO4: Apply Therapeutic Drug Monitoring (TDM) principles to manage various clinical conditions.
CO5: Evaluate pharmacokinetic changes in renal/hepatic impairment and understand pharmacogenetics for personalized medicine.

Provides supervised experiential learning through hospital visits, ward-based activities, case discussions, presentations and seminars, enabling application of pharmacy knowledge to patient care.

Course Outcome:

CO1: Demonstrate clinical pharmacy skills through participation in hospital ward rounds and patient-care activities.
CO2: Collect and interpret patient history, medication history, laboratory data, and relevant clinical information.
CO3: Identify drug-related problems, including adverse drug reactions, drug interactions, and medication-related issues.
CO4: Evaluate pharmacotherapy and contribute to monitoring drug safety, efficacy, adherence, and therapeutic outcomes.
CO5: Communicate effectively with patients and healthcare professionals while providing appropriate patient counselling and maintaining professional ethics.

Involves supervised hospital-based project work including problem identification, literature review, data collection, analysis, interpretation, report writing and presentation.

Course Outcome:

CO1: Apply clinical pharmacy knowledge and skills in hospital and patient-care settings under professional supervision.
CO2: Assess patient-specific drug therapy using clinical, laboratory, and medication-related information.
CO3: Identify and resolve drug-related problems through appropriate pharmaceutical care interventions.
CO4: Provide patient counselling and medication-related education to promote safe, rational, and effective drug use.
CO5: Demonstrate professional communication, ethical practice, clinical documentation, and teamwork in multidisciplinary healthcare settings.

Admissions Open 2026-27

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Course Curriculum

1ST YEAR SUBJECTS

Human Anatomy and Physiology (Theory)

Pharmaceutics (Theory)

Medicinal Biochemistry (Theory)

Pharmaceutical Organic Chemistry (Theory)

Pharmaceutical Inorganic Chemistry (Theory)

Remedial Biology (Theory)

Remedial Mathematics (Theory)

Human Anatomy and Physiology (Practical)

Pharmaceutics (Practical)

Medicinal Biochemistry (Practical)

Pharmaceutical Organic Chemistry (Practical)

Pharmaceutical Inorganic Chemistry (Practical)

Remedial Biology (Practical)

2ND YEAR SUBJECTS

Pathophysiology

Pharmaceutical Microbiology

Pharmacognosy & Phytopharmaceutical

Pharmacology-I

Community Pharmacy

Pharmacotherapeutics-I

Pharmaceutical Microbiology (Practical)

Pharmacognosy & Phytopharmaceutical (Practical)

Pharmacotherapeutics-I (Practical)

3RD YEAR SUBJECTS

Pharmacology-II

Pharmaceutical Analysis

Pharmacotherapeutics-II

Pharmaceutical Jurisprudence

Medicinal Chemistry

Pharmaceutical Formulations

Pharmacology-II (Practical)

Pharmaceutical Analysis (Practical)

Pharmacotherapeutics-II (Practical)

Medicinal Chemistry (Practical)

Pharmaceutical Formulations (Practical)

4TH YEAR SUBJECTS

Pharmacotherapeutics-III

Hospital Pharmacy

Clinical Pharmacy

Biostatistics & Research Methodology

Biopharmaceutics & Pharmacokinetics

Clinical Toxicology

Pharmacotherapeutics-III (Practical)

Hospital Pharmacy (Practical)

Clinical Pharmacy (Practical)

Admissions
Open 2026-27

Industry-oriented
learning

Modern campus
facilities

Academic excellence &
mentorship

Global opportunities &
placements