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Comprehensive Course Structure

Advanced Departmental Elective Courses

The department offers several advanced elective courses that allow students to specialize in areas of interest and gain deeper insights into emerging fields. These courses are designed to complement the core curriculum while providing opportunities for research and innovation.

Reaction Engineering

This course delves into the kinetics and mechanisms of chemical reactions, focusing on reactor design and optimization. Students explore various types of reactors including batch, continuous stirred-tank, and plug flow reactors. The course emphasizes practical applications through case studies involving industrial processes such as petroleum refining and pharmaceutical manufacturing.

Learning objectives include understanding reaction kinetics models, designing reactors for specific processes, and evaluating performance parameters. Students engage in hands-on laboratory sessions where they conduct experiments to validate theoretical concepts. The course also includes guest lectures from industry experts who share real-world experiences with reactor design challenges.

Process Design

Process design is a comprehensive course that teaches students how to develop and optimize chemical processes from conceptualization to implementation. Topics include process flow diagramming, material and energy balances, equipment selection, and safety considerations. Students learn to use industry-standard software for process simulation and optimization.

The course emphasizes the integration of theoretical knowledge with practical skills through a series of design projects. Each project involves designing a complete chemical plant or unit operation, requiring students to consider economic factors, environmental impact, and regulatory compliance. This approach prepares students for real-world engineering challenges they will encounter in their careers.

Environmental Engineering

This course addresses the impact of industrial activities on the environment and explores methods for minimizing pollution and waste generation. Students study wastewater treatment processes, air quality control systems, solid waste management, and risk assessment techniques. The curriculum includes both theoretical concepts and practical applications through laboratory experiments and field visits.

Key learning outcomes include understanding environmental regulations, designing treatment systems, and conducting environmental impact assessments. Students also explore sustainable practices and green technologies that can be implemented in industrial processes to reduce environmental footprint. Case studies from major industries provide insights into current environmental challenges and solutions.

Sustainable Engineering Practices

This course focuses on developing engineering solutions that are environmentally responsible and economically viable. Students examine life cycle assessment methods, resource optimization strategies, and circular economy principles. The curriculum includes discussions on renewable energy systems, waste minimization techniques, and sustainable material selection.

The course emphasizes the importance of considering environmental and social impacts in engineering design decisions. Students work on projects that involve designing sustainable processes or products, integrating economic viability with environmental stewardship. Guest speakers from sustainability consulting firms provide practical perspectives on implementing sustainable practices in industry.

Nanotechnology Applications

This advanced course explores the principles and applications of nanotechnology in chemical engineering contexts. Students study nanoparticle synthesis methods, surface modification techniques, and applications in catalysis, drug delivery, and environmental remediation. The course includes laboratory sessions where students fabricate and characterize nanomaterials.

Learning outcomes include understanding nanoscale phenomena, designing nanostructured materials, and applying nanotechnology to solve engineering problems. Students also explore regulatory frameworks governing nanotechnology development and commercialization. This course prepares graduates for careers in emerging areas such as nanomedicine, advanced materials, and environmental nanotechnology.

Bioprocess Engineering

Bioprocess engineering integrates biological principles with chemical engineering concepts to develop processes involving living organisms. The course covers fermentation technology, bioreactor design, downstream processing, and product purification. Students learn about various biotechnological applications including pharmaceutical production, biofuel development, and food processing.

Key topics include microbial growth kinetics, bioreactor operation, enzyme catalysis, and scale-up considerations. Laboratory experiments involve working with microorganisms and developing bioprocesses under controlled conditions. The course also explores regulatory aspects of biotechnology and ethical considerations in genetic engineering.

Advanced Process Control

This course focuses on the design and implementation of control systems for chemical processes. Students study process dynamics, feedback control theory, and advanced control strategies including PID controllers, model predictive control, and adaptive control. The curriculum includes both theoretical analysis and practical implementation through laboratory experiments.

Learning objectives include understanding process behavior, designing effective control systems, and troubleshooting common issues in industrial processes. Students also explore computer-based control system design using industry-standard software. This course prepares students for roles in process automation, instrumentation, and control system engineering.

Computational Fluid Dynamics

This course introduces students to numerical methods for solving fluid flow problems in chemical engineering applications. Topics include Navier-Stokes equations, turbulence modeling, heat transfer analysis, and multiphase flows. Students learn to use computational tools for simulating complex fluid dynamics scenarios.

Key learning outcomes include understanding fluid behavior at different scales, applying numerical methods to solve engineering problems, and validating simulation results with experimental data. Laboratory sessions involve using commercial CFD software packages to model industrial processes. This course is essential for students interested in process simulation, reactor design, or fluid mechanics research.

Materials Engineering

This course explores the relationship between material structure, properties, and performance in chemical engineering applications. Students study polymer science, ceramic processing, metal alloys, and composite materials. The curriculum includes both theoretical concepts and practical applications through laboratory experiments.

Learning objectives include understanding material selection criteria, characterizing material properties, and designing materials for specific applications. Students also examine manufacturing processes and quality control methods. This course prepares graduates for careers in materials development, product design, or research and development roles in various industries.

Energy Systems

This course examines the principles and technologies involved in energy conversion and utilization. Topics include renewable energy sources, fossil fuel processing, energy storage systems, and efficiency optimization techniques. Students learn to analyze energy systems from both technical and economic perspectives.

The curriculum includes case studies of successful energy projects, exploration of emerging technologies such as hydrogen production, and discussion of policy frameworks supporting clean energy development. Laboratory sessions involve testing energy conversion equipment and analyzing system performance. This course prepares students for careers in the rapidly evolving energy sector.

Project-Based Learning Philosophy

The department's philosophy on project-based learning emphasizes hands-on experience that bridges theoretical knowledge with practical application. Projects are designed to simulate real-world engineering challenges, requiring students to apply interdisciplinary concepts and collaborate effectively in teams.

Mini-projects are introduced in the second year, providing foundational experience with problem-solving and teamwork. These projects typically span one semester and involve designing simple processes or analyzing existing systems. Students work under faculty supervision to develop solutions that address specific technical challenges.

The final-year thesis/capstone project represents the culmination of students' academic journey. These projects are typically undertaken in collaboration with industry partners or research laboratories, providing exposure to current engineering challenges and professional environments. Students work closely with assigned mentors to develop innovative solutions to complex problems.

Project selection involves a comprehensive process where students identify areas of interest, conduct literature reviews, and propose project scopes. Faculty mentors guide students through the development phase, ensuring projects align with academic rigor and industry relevance. The evaluation criteria emphasize technical competence, innovation, presentation skills, and team collaboration.