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Curriculum Overview

The Bachelor of Chemical Engineering program at Mittal Institute of Technology is structured over eight semesters, providing a progressive and comprehensive educational experience. Each semester builds upon the previous one, ensuring that students develop both theoretical knowledge and practical skills necessary for professional success in the field.

Advanced Departmental Elective Courses

Departmental electives are designed to provide students with specialized knowledge in emerging areas of chemical engineering. These courses are offered based on faculty expertise and industry demand.

Bioprocess Engineering

This course focuses on the principles and applications of biotechnology in industrial processes. Students learn about microbial growth kinetics, fermentation systems, product recovery, and downstream processing. The course emphasizes practical aspects such as scale-up, quality control, and regulatory compliance. Practical components include laboratory experiments involving fermentation, enzyme catalysis, and bioreactor design.

Computational Fluid Dynamics

This elective introduces students to numerical methods used in analyzing fluid flow problems. Topics include Navier-Stokes equations, finite volume method, turbulence modeling, and computational software applications. Students gain hands-on experience using tools like ANSYS Fluent and OpenFOAM to simulate complex flow scenarios.

Nanotechnology and Materials

The course explores the synthesis, characterization, and application of nanomaterials in chemical engineering processes. Students study nanoparticle synthesis techniques, surface properties, and their impact on catalytic activity. The course includes laboratory sessions on preparing nanocomposites and characterizing materials using advanced analytical instruments.

Process Simulation Software

This elective teaches students to use industry-standard simulation software for chemical process design. Courses include Aspen Plus, HYSYS, and MATLAB/Simulink. Students learn to model unit operations, perform steady-state and dynamic simulations, and optimize process parameters based on economic criteria.

Advanced Reaction Engineering

This course delves into complex reaction systems including catalytic reactions, multiphase reactors, and non-ideal behavior. Students explore topics such as catalyst deactivation, reactor modeling, and kinetic analysis. Practical sessions involve designing and analyzing batch, continuous, and plug-flow reactors under various operating conditions.

Renewable Energy Technologies

This course addresses the integration of renewable energy sources into chemical processes. Topics include solar thermal systems, wind energy conversion, hydrogen production, and carbon capture technologies. Students study energy efficiency, environmental impact, and economic viability of different renewable options.

Environmental Impact Assessment

This elective provides tools for evaluating the environmental consequences of chemical processes. Students learn to conduct life cycle assessments, perform risk analysis, and develop mitigation strategies. The course emphasizes regulatory frameworks and sustainable development practices.

Quality Control and Assurance

This course covers statistical methods for quality control in manufacturing environments. Topics include Six Sigma, process capability analysis, design of experiments (DOE), and quality management systems. Students gain practical skills in data analysis, root cause analysis, and continuous improvement techniques.

Pharmaceutical Processing

This elective focuses on the design and optimization of pharmaceutical manufacturing processes. Students study formulation development, dosage form design, quality control standards, and regulatory compliance. Practical components include laboratory experiments on tablet compression, capsule filling, and drug dissolution testing.

Industrial Training I

This practical course provides students with real-world exposure to chemical engineering operations in industry settings. Students spend several weeks working alongside practicing engineers in manufacturing plants or research facilities. The experience includes observing process operations, participating in problem-solving activities, and documenting findings for academic reporting.

Project-Based Learning Philosophy

Our department believes that project-based learning is fundamental to developing competent chemical engineers who can solve real-world problems. Projects are integrated throughout the curriculum to ensure students apply theoretical knowledge in practical contexts.

Mandatory Mini-Projects

Mini-projects begin in the second year and continue through the third year. These projects are typically completed in teams of 3-5 students and last for one semester. Students choose from a list of suggested topics or propose their own under faculty supervision.

The mini-project structure involves defining project scope, literature review, experimental design, data collection, analysis, and presentation. Each project is evaluated based on technical depth, creativity, teamwork, and communication skills. Projects are presented to faculty panels and peer groups for feedback and discussion.

Final-Year Thesis/Capstone Project

The final-year capstone project represents the culmination of a student's academic journey in chemical engineering. Students work closely with a faculty advisor on an independent research or design project that addresses a significant problem in their chosen field.

Students must demonstrate proficiency in literature review, hypothesis formulation, methodology selection, data analysis, and technical writing. The project culminates in a comprehensive report and oral presentation to the departmental committee.

Project Selection Process

Project selection begins with an orientation session where students learn about available research opportunities and faculty expertise areas. Students submit preference lists indicating their interests and career goals. Faculty advisors review these preferences and assign projects based on alignment between student interests and research needs.

For industry-sponsored projects, students may be matched with companies that provide real challenges or funding for their research efforts. This approach ensures that projects have direct relevance to current industry practices while providing valuable experience for future employment.