Chemical Science and Technology Syllabus

The curriculum is Chemistry-intensive and supported by Mathematics, Physics, computing, biology and selected engineering subjects. The following semester plan is representative and should not replace an official institute syllabus.

Indicative semester-wise syllabus

Engineering Mathematics

Mathematics supports quantum theory, thermodynamics, kinetics, statistics and computation. Students study calculus, differential equations, matrices, probability and numerical methods.

Physics

Physics provides foundations in mechanics, electricity, waves, optics and modern physics. It supports spectroscopy, materials and instrumentation.

General Chemistry

Early Chemistry courses develop atomic structure, bonding, equilibrium, reactions and laboratory methods. Students from different boards gain a common foundation.

Organic Chemistry

Students study structure, stereochemistry, mechanisms and synthesis. They learn substitution, addition, elimination, aromatic and carbonyl chemistry and the behaviour of functional groups.

Applied Organic Chemistry

Applied courses connect synthesis with dyes, drugs, polymers, agrochemicals and speciality products. Students consider yield, selectivity, purification and safety.

Inorganic Chemistry

Topics include periodicity, bonding, coordination compounds, organometallics and inorganic materials. Laboratory work may involve synthesis and characterisation of complexes.

Physical Chemistry

Physical Chemistry covers thermodynamics, phase equilibrium, kinetics, electrochemistry, surfaces and molecular behaviour. Mathematical reasoning is central.

Quantum Chemistry

Students learn basic quantum mechanics, operators, atomic orbitals, molecular orbitals and approximate methods. The course explains bonding and spectroscopy at a deeper level.

Chemical Thermodynamics

Students examine energy, entropy, free energy, equilibrium and phase behaviour. They learn why some transformations are spontaneous and how equilibrium responds to conditions.

Chemical Kinetics

Kinetics covers rate laws, mechanisms, temperature effects and catalysis. Experimental data are used to test models.

Electrochemistry

Students study electrode potentials, cells, ionic transport, corrosion and electrochemical kinetics. Applications include batteries, fuel cells and sensors.

Spectroscopic Techniques

Spectroscopy courses introduce ultraviolet-visible, infrared, nuclear magnetic resonance, Raman or mass-spectrometric methods depending on facilities. Students learn how molecular information is inferred from signals.

Analytical Chemistry

Analytical courses cover sampling, calibration, error, titration and instrumental analysis. Reliable measurements require appropriate controls and standards.

Instrumental Methods

Students may study chromatography, spectroscopy, electroanalysis, thermal analysis and microscopy. They should understand instrument principles, not only software operation.

Chromatography

Chromatography separates components based on different interactions with stationary and mobile phases. Techniques can include gas, liquid, thin-layer and column methods.

Computational Chemistry

Students use computers to model molecular structure, properties and reactions. They may learn basic electronic-structure methods, molecular mechanics and visualisation.

Programming and data analysis

Programming helps automate calculations, analyse spectra and manage datasets. Python or another scientific language can improve research readiness.

Chemical Process Calculations

Process calculations introduce material balances, stream composition and industrial process thinking. They help students understand technology beyond laboratory-scale Chemistry.

Fluid Mechanics

Fluid Mechanics introduces pressure, flow, viscosity, pipes and pumps. The level may be less extensive than in Chemical Engineering but supports industrial understanding.

Chemical Technology

Chemical Technology examines the industrial production of chemicals, fertilisers, polymers, fuels, pharmaceuticals and materials. Students connect reactions with raw materials, operations and environmental impact.

Environmental Chemistry

Students learn atmospheric, aquatic and soil chemistry, pollutant behaviour and chemical measurement. Treatment and environmental regulation may be introduced.

Materials Chemistry

Materials courses examine solids, polymers, ceramics, composites, semiconductors and nanomaterials. Students relate synthesis and structure to properties.

Solid-state Chemistry

Topics include crystal structures, defects, bonding, phase behaviour and electronic properties. This supports energy, electronic and catalytic materials.

Polymer Science

Students learn polymerisation, molecular weight, structure, thermal behaviour and applications. Laboratory work may involve synthesis or characterisation.

Nanochemistry

Nanochemistry covers synthesis and properties of nanoscale materials. Students examine surface effects, size-dependent behaviour and applications.

Surface and colloid Chemistry

This subject studies adsorption, interfaces, micelles, emulsions and colloids. Applications include catalysis, detergents, coatings, food and pharmaceuticals.

Catalysis

Students study catalytic mechanisms, surfaces, selectivity and deactivation. Catalysis is important in energy, environment and industrial synthesis.

Medicinal Chemistry

Medicinal Chemistry examines relationships between molecular structure and biological activity. It can include drug targets, lead optimisation and metabolism.

Biochemistry

Biochemistry introduces proteins, enzymes, carbohydrates, lipids and nucleic acids. It supports chemical biology and biotechnology pathways.

Modern Biology

Biology courses give engineers foundations in cells, genetics and molecular systems. This broadens interdisciplinary research opportunities.

Photochemistry

Photochemistry studies reactions initiated by light. Applications include solar energy, synthesis, imaging and environmental processes.

Energy Chemistry

Energy subjects may cover batteries, fuel cells, hydrogen, solar conversion and energy-storage materials. Electrochemistry and materials knowledge are essential.

Green Chemistry

Students examine safer synthesis, waste prevention, atom economy, renewable feedstocks and solvent selection. Quantitative assessment is more meaningful than general claims.

Research Methods

Research methods cover literature search, hypothesis, experimental design, statistics, scientific writing and ethics. Students learn to distinguish observation from interpretation.

Chemistry laboratories

Laboratory courses can include synthesis, titration, spectroscopy, electrochemistry, kinetics and materials preparation. Students learn safe handling, notebooks and waste disposal.

Computational laboratory

Students perform modelling, data analysis or simulations. Reproducible workflows and clear parameter reporting are important.

Industrial training

Internships may occur in research laboratories, chemical companies, pharmaceuticals, materials organisations or analytical facilities. Students should seek defined tasks.

Final-year project

Projects can involve synthesis, catalysis, spectroscopy, computational modelling, batteries, polymers, nanomaterials, environment or chemical biology. The topic depends on faculty and facilities.

Electives

Possible electives include Advanced Organic Synthesis, Organometallic Chemistry, Bioinorganic Chemistry, Quantum Materials, Drug Design, Energy Storage, Computational Materials and Environmental Analysis.

Supplementary learning

Students can strengthen Python, statistics, scientific writing, database searching and instrument interpretation. Research aspirants should read papers and practise presenting evidence.