Curriculum Overview

The Diploma in Chemical Engineering program at Government Polytechnic Diglipur Andamans is structured to provide a comprehensive understanding of chemical engineering principles and their practical applications. The curriculum is divided into eight semesters, with a blend of core courses, departmental electives, science electives, and laboratory sessions designed to build a strong foundation and then progressively advance students' expertise.

Course Structure and Credit Distribution

Each semester is designed to balance theoretical knowledge with practical application. The credit structure for each course is represented as L-T-P-C, where L stands for Lecture hours, T for Tutorial hours, P for Practical hours, and C for Credit hours. This structure ensures that students gain both theoretical understanding and hands-on experience in each subject.

Advanced Departmental Electives

The program offers a range of advanced departmental electives designed to provide students with specialized knowledge and skills in specific areas of chemical engineering. These courses are taught by experienced faculty members and often include industry case studies and project-based learning.

Bioprocess Engineering

This course explores the application of chemical engineering principles to biological systems, focusing on the design and optimization of bioprocesses. Students learn about fermentation systems, bioreactor design, and downstream processing. The course includes laboratory sessions where students conduct experiments related to microbial growth, enzyme kinetics, and product recovery. The learning objectives include understanding the principles of bioprocess engineering, designing bioreactors, and optimizing bioprocesses for industrial applications.

Polymer Engineering

This course covers the chemistry and engineering of polymers, including polymer synthesis, processing, and characterization. Students learn about polymer properties, processing techniques, and applications in various industries. The course includes laboratory sessions where students conduct experiments related to polymer synthesis, mechanical testing, and thermal analysis. The learning objectives include understanding polymer chemistry, designing polymer processing systems, and evaluating polymer properties for specific applications.

Energy Engineering

This course focuses on the principles and practices of energy engineering, including renewable energy systems, energy conversion, and sustainability. Students learn about energy efficiency, renewable energy technologies, and energy storage systems. The course includes laboratory sessions where students conduct experiments related to energy conversion and storage. The learning objectives include understanding energy systems, designing energy-efficient processes, and evaluating renewable energy technologies.

Food Process Engineering

This course applies chemical engineering principles to food processing and preservation, focusing on the design and optimization of food processing systems. Students learn about food processing technologies, quality control, and food safety. The course includes laboratory sessions where students conduct experiments related to food processing, preservation, and quality testing. The learning objectives include understanding food processing principles, designing food processing systems, and ensuring food safety and quality.

Chemical Safety Engineering

This course addresses the principles and practices of chemical safety engineering, focusing on risk assessment, hazard identification, and emergency response planning. Students learn about safety regulations, process safety management, and accident investigation. The course includes laboratory sessions where students conduct experiments related to safety systems and risk assessment. The learning objectives include understanding chemical safety principles, designing safety systems, and managing chemical risks.

Nanotechnology

This course explores the principles and applications of nanotechnology in chemical engineering, including nanomaterial synthesis, characterization, and applications. Students learn about nanoscale properties, fabrication techniques, and applications in various industries. The course includes laboratory sessions where students conduct experiments related to nanomaterial synthesis and characterization. The learning objectives include understanding nanotechnology principles, designing nanomaterials, and applying nanotechnology in chemical engineering.

Process Optimization

This course focuses on the principles and techniques of process optimization, including mathematical modeling, simulation, and optimization algorithms. Students learn about process modeling, optimization techniques, and industrial applications. The course includes laboratory sessions where students conduct experiments related to process optimization and simulation. The learning objectives include understanding process optimization principles, applying optimization techniques, and optimizing industrial processes.

Quality Control

This course covers the principles and practices of quality control in chemical engineering, including statistical process control, quality assurance, and quality management systems. Students learn about quality standards, quality control techniques, and quality improvement methods. The course includes laboratory sessions where students conduct experiments related to quality control and assurance. The learning objectives include understanding quality control principles, implementing quality control systems, and improving process quality.

Advanced Materials

This course explores the properties and applications of advanced materials in chemical engineering, including composites, ceramics, and smart materials. Students learn about material synthesis, characterization, and applications. The course includes laboratory sessions where students conduct experiments related to material properties and applications. The learning objectives include understanding advanced materials properties, designing material systems, and applying advanced materials in chemical engineering.

Project-Based Learning Philosophy

The department's philosophy on project-based learning is centered on providing students with real-world experience and practical skills that are essential for their professional development. The program emphasizes hands-on learning, critical thinking, and innovation through a structured approach to project design and implementation.

The mandatory mini-projects are designed to help students apply theoretical concepts to practical problems. These projects are typically completed in groups and involve research, experimentation, and presentation. The scope of these projects includes developing process designs, conducting experiments, and analyzing data. The evaluation criteria include project proposal, execution, report writing, and presentation.

The final-year thesis/capstone project is a comprehensive project that integrates all the knowledge and skills acquired during the program. Students work closely with faculty mentors to select a project topic, conduct research, and develop a solution. The project is typically a long-term endeavor that requires significant time and effort. The evaluation criteria include project proposal, research, development, documentation, and presentation.

Students select projects based on their interests and career aspirations, with guidance from faculty mentors. The selection process involves identifying relevant topics, conducting literature reviews, and developing project proposals. Faculty mentors provide support throughout the project development process, ensuring that students receive the necessary guidance and resources.