A BE/BTech Chemical Engineering curriculum in India is organized around the core transport and transformation sciences—momentum, heat, and mass transfer; thermodynamics; reaction engineering; and process systems—supported by strong math/science foundations and layered laboratory and design experiences. Early semesters introduce engineering mathematics, chemistry, and the language of process calculations: units and dimensions, material and energy balances, property estimation, and phase equilibrium relations, often taught with dimensional analysis and problem framing on realistic mixtures and state equations. Fluid mechanics builds from properties and non-Newtonian behavior to hydrostatics and flow over bodies, linking theory with measurements such as pressure drop and flow rate in lab rigs, while heat transfer covers conduction, convection, and radiation with heat exchanger analysis and design. Mass transfer introduces diffusion, interfacial mass transfer, and staged/continuous contacting, preparing students for absorption, distillation, extraction, drying, and membrane operations; reaction engineering develops rate laws, ideal/basics of non-ideal reactors, and multiple reactions with temperature effects and catalysis basics. These program cores are paired with analytical and computational skills—numerical methods, statistics for engineers, and process modeling—so students can simulate unit operations and analyze experiments.

Laboratories mirror the theory sequence: fluid mechanics and heat transfer experiments, mass transfer columns, reaction engineering kinetics and reactor characterization, and later, process control loops and instrumentation exercises. Program structures published by NITs specify credit distributions that balance general institute requirements, program core, labs, and electives; for example, one shows 160 total credits with at least seven core courses across semesters II–VI, multiple program/open electives, and essential laboratories in particulate science, reaction engineering, and mass transfer. Advanced semesters add process control and instrumentation (dynamic modeling, stability, controller design), process equipment design (vessel and exchanger sizing, mechanical design checks), and plant design/economics and safety, culminating in capstone design where teams complete material/energy balances, select and sequence separation units, size equipment, perform cost estimation, and evaluate safety and environmental controls. Several Indian universities publish updated schemes emphasizing particulate science and technology, modern separation processes, and electives in biochemical, polymer, petroleum, environmental, or energy systems, reflecting industry needs. The outcome is a graduate capable of analyzing transport phenomena, designing reactors and separations, using simulations and lab data to validate designs, and making lifecycle-conscious decisions about safety, sustainability, and cost.