Biochemistry

  • Introduction to Biochemistry

    • Understanding of Biochemistry as a discipline.
    • Fundamental properties of elements, their role in formation of biomolecules and in chemical reactions.
    • Concepts of mole, mole fraction, molarity, etc.
    • Unique property of water as a universal solvent.
    • Fundamentals of Adsorption, Viscosity, Distribution law, Osmotic pressure, etc.
    • Fundamental laws relating to photochemistry.
  • Bioorganic Chemistry and Metabolites

    • Significance of organic reactions.
    • Electrochemistry to conductance, voltaic, and electrolytic systems.
    • Chemical bonding.
    • Aliphatic and aromatic compounds and IUPAC nomenclature.
    • Formation of polymers and their importance.
    • Stereochemistry in determining conformations of biomolecules.
  • Cell Biology

    • Structure of cell and various cellular events.
    • Function of various subcellular organelles.
    • Cell theory and techniques for fractionation of sub-cellular organelles.
    • Composition of cytoskeleton and extracellular matrix.
    • Cell cycle, cell division and cell death mechanisms.
  • Biochemical Techniques

    • Chromatographic techniques and their application Centrifugation
    • and chromatography in biological investigations.
    • Principles of Electrophoresis, Spectrophotometry and ELISA and their applications.
  • Biomolecules

    • Biomolecules present in living cells.
    • Key contributions of scientists such as Hans Kreb, G. N. Ramachandran, Melvin Calvin, Louis Pasteur, Har
    • Gobind Khorana, Watson etc.
    • Properties of carbohydrates, proteins, lipids, cholesterol, DNA, RNA, glycoproteins and glycolipids.
    • Process of fermentation and manufacture of Biodiesel.
    • Amino acid and nucleotide sequences of proteins and DNA respectively.
  • Nutrition

    • Glycemic index, balanced diet, micronutrient deficiencies and the remedies, nutraceuticals and their
    • importance, junk foods and their hazards.
    • Need for specialized food for people with special needs - diabetes, pregnancy, inherited genetic
    • disorders.
    • Use of alternate crops – cereals and pulses and their importance.
    • Cattle industry and its contribution to greenhouse gases.
    • Merits and demerits of vegetarian and non-vegetarian foods.
  • Metabolism

    • Importance of lipids as storage molecules and as structural component of biomembranes.
    • Importance of high energy compounds, electron transport chain, synthesis of ATP under aerobic and anaerobic conditions.
    • Role of TCA cycle in central carbon metabolism, importance of anaplerotic reactions and redox balance.
    • Properties of metabolic enzymes of the host and pathogens
    • Metabolic engineering for the production of useful biomolecules.
  • Bioenergetics and Membrane Biology

    • Basic concepts of Bioenergetics, mechanisms of oxidative phosphorylation and photophosphorylation.
    • Composition and structure of biomembranes, transport mechanisms across biological membranes.
    • Concept and mechanism of ATP synthesis.
  • Human Physiology

    • Mechanism of signal transduction by steroid and polypeptide hormones .
    • Process of gaseous exchange in tissues and lungs, respiratory adaption to high altitude.
    • Difference between hemoglobin and myoglobin.
    • Muscular dystrophies, the role of steroids in muscle building.
    • Nitrogen metabolism.
  • Clinical Biochemistry

    • Constituents of urine, blood and their significance.
    • Causation of diseases of liver, kidney, mechanism of Cancer.
    • Trigycerides and lipoproteins and their relationship with various diseases.
    • Role of enzymes in diagnosis of various diseases.
  • Microbiology

    • Contributions of Louis Pasteur, Edward Jenner and Robert Koch in microbiology and immunology.
    • Discovery of antibiotics and their targets, drug/antibiotic resistance, preventive and therapeutic approaches of infectious diseases.
    • Microorganisms as model systems in genetics and biochemistry.
    • Contribution of gut microbiome in human health.
    • Basic concepts of metabolic engineering and synthetic biology.
  • Immunology

    • Immune system including cells, organs and receptors.
    • Structure and functions of different classes of immunoglobulins, the genetic basis of antibody diversity and the importance of humoral, cell-mediated and innate immune responses in combating pathogens.
    • Different types of hypersensitivity, and the importance of conventional vs. recombinant vaccines.
    • Importance of antigen-antibody interaction in disease diagnosis.
    • Principles of tolerance, autoimmunity and the role of immunity in protection against pathogens.
  • Enzymology

    • Enzymes and their importance in biological reactions.
    • Difference between a chemical catalyst and biocatalyst.
    • Activation energy and its importance in biological reactions.
  • Molecular Biology and Genetic Engineering

    • DNA as genetic material, DNA replication, transcription, DNA repair and translation.
    • Coding and non-coding regions of eukaryotic genome.
    • Exposure of E. coli lac operon, PCR, expression vectors and their importance in Biotechnology.
    • Merits and Demerits of transgenic crops.
    • Genomics, proteomics, metabolomics and their importance in human health.