The Mechanical Engineering Department was established in the year 2005. The school of Mechanical Engineering offers both a broad mechanical engineering degree that has emphasis on fluid mechanics, mechatronics, hydraulics, automotive engineering and medical engineering. Engineers qualified in all these areas play a key role in the design and manufacture of items that impact on modern living and our everyday lives, whether it comprises of household goods, healthcare products, sports equipment, reliable cars, aircraft or other transport system. The department has a very efficient advisory system which always keeps very close teacher-student relationship. The faculty of the department is well qualified and dedicated to the improvement of academic standards and is keen on the overall development of the students. The faculty has been trained in various National and International workshops, seminars and training programs to cope with rapidly changing teaching methodologies and to impart efficient knowledge to the students. The laboratories and the workshop in the department and the supporting departments give ample opportunities to the students of Mechanical Engineering for gaining practical knowledge and hands on experience. Industrial visits and Educational tours are made an integral part of the curriculum to familiarize the student with the industrial environments and working conditions.
Our vision is to provide excellent education that creates the new opportunities for students to meet the current and future challenges of technological development in mechanical engineering.
Providing students with a sound mechanical engineering education for a successful career. Imparting quality education to the students and enhancing their domain knowledge as well as soft skills to make them globally competitive mechanical engineers. Respond effectively to the needs of the industry with changing technology scenario. Encouraging culture of continuous teaching and learning process by adopting recent methodology and technology. To develop the professional ethics and human values for the welfare of society.
HOD
Lecturer
Lecturer
Lecturer
Lecturer
Lecturer
Lecturer
Labs with modern machineries make this course useful for students in becoming good civil engineers.
Provides hands-on experience in the fundamental principles of manufacturing processes and techniques. This workshop practice is designed to introduce students to the basic workshop tools and equipment, as well as provide an understanding of the safe and effective use of these tools. Here the students will gain experience in carpentry, foundry, plumbing, metal cutting processes such as drilling, tapping, and turning. They will also learn about metal joining techniques such as welding and soldering. Metal forming processes such as forging, stamping and bending will also be introduced. The hands-on approach of Workshop Practice 1 is aimed at helping students develop their practical skills and confidence in working with metal. The course includes both individual and group projects, allowing students to apply their knowledge and skills in a real-world setting. The projects will provide students with the opportunity to work with raw materials and create finished products, giving them a comprehensive understanding of the entire manufacturing process.
In Workshop Practice 2, students will be able to learn about more advanced metal cutting techniques such as milling and grinding. They will also gain experience in metal casting techniques, including sand casting and investment casting. The students can get a training in advanced metal forming techniques, including rolling and forging. Here individual and group projects can be done, allowing students to apply their knowledge and skills in real-world settings. These projects will challenge students to work with more complex materials and manufacturing processes, providing them with a deeper understanding of the entire manufacturing process.
This focuses on the integration of the manufacturing techniques covered in Workshop Practice 1 and 2, and provides students with a comprehensive understanding of the entire manufacturing process. In Workshop Practice 3, students will apply their knowledge and skills in real-world projects, taking on more complex and challenging tasks. They will have the opportunity to work on individual and group projects that require the integration of multiple manufacturing techniques, including cutting, forming, casting, and joining. This also covers quality control and inspection techniques, as well as the principles of production planning and control. Students will learn how to design and plan production processes, including the selection of materials, tools, and equipment. They will also gain an understanding of how to monitor and control production processes to ensure quality and efficiency.
This is advanced workshop practice for Mechanical Engineering students. This builds upon the skills and knowledge acquired in Workshop Practice 1, 2, and 3 and provides students with an in-depth understanding of advanced manufacturing techniques and processes. The use of advanced manufacturing equipment, such as computer-controlled machine tools and robotics can be studied here. This also focuses on the principles of sustainable manufacturing, including the use of renewable materials, energy-efficient processes, and the reduction of waste. Students will learn about the environmental impact of manufacturing processes and how to design and implement sustainable manufacturing practices. By the end of Workshop Practice 4, students will have a thorough understanding of advanced manufacturing techniques and processes, as well as the principles of sustainable manufacturing. They will have developed their practical skills and confidence in working with advanced manufacturing equipment, as well as their critical thinking, problem-solving, and communication skills. Workshop Practice 4 is an advanced course that provides students with the in-depth knowledge and hands-on experience required to excel in their future careers as mechanical engineers. This course prepares students to take on complex projects and succeed in their professional careers.
Focuses on the study of fluid mechanics and its applications in various types of fluid machinery. This lab provides students with hands-on experience in the design, testing, and analysis of fluid machines, including pumps, turbines, and compressors. In the Fluid Machines Lab, students will have the opportunity to work with various types of fluid machinery and study their performance characteristics. They will learn about the principles of fluid mechanics and apply this knowledge to the analysis of fluid machines. Students will also learn about the design and testing of fluid machines, including the selection of materials and components, as well as the methods for measuring and analysing their performance.
Heat engines lab focuses on the study of heat engines and their applications in various energy conversion systems. The course provides students with hands-on experience in the design, testing, and analysis of heat engines, including internal combustion engines, steam engines, and gas turbines. In the Heat Engines Lab, students will have the opportunity to work with various types of heat engines and study their performance characteristics. They will learn about the principles of thermodynamics and apply this knowledge to the analysis of heat engines. Students will also learn about the design and testing of heat engines, including the selection of materials and components, as well as the methods for measuring and analysing their performance.
In the industrial Maintenance Lab, the study of industrial maintenance and its applications in various manufacturing and production settings are studied. This provides students with hands-on experience in the maintenance, repair, and overhaul of industrial equipment and machinery. In the Industrial Maintenance Lab, students will have the opportunity to work with various types of industrial equipment and machinery and learn about their maintenance requirements. They will learn about the principles of maintenance and the methods for troubleshooting and repairing equipment. Students will also learn about the selection of materials and components, as well as the methods for measuring and analysing the performance of industrial equipment.
Here, use of computer-aided design software to create and analyse mechanical drawings and designs. This provides students with hands-on experience in using industry-standard CAD software to create and analyse complex mechanical systems. In the CADD Lab, students will have the opportunity to work with various CAD software programs and learn about their capabilities and limitations. They will learn about the principles of 2D and 3D drafting and how to create and modify mechanical drawings and designs. Students will also learn about the visualisation of mechanical systems and the use of animations to simulate their motion.
This lab focuses on the study of hydraulic systems and their applications in various mechanical systems. The course provides students with hands-on experience in the design, operation, and maintenance of hydraulic systems. In the Hydraulic Machines Lab, students will have the opportunity to work with various hydraulic machines and systems, including pumps, actuators, and valves. They will learn about the principles of hydraulic systems, including fluid mechanics and hydraulic power transmission. Students will also learn about the selection of hydraulic components and the methods for troubleshooting and repairing hydraulic systems.
is a crucial course in Mechanical Engineering that focuses on the study and application of metalworking and machining techniques. The course provides students with hands-on experience in the use of manual and computer-controlled machine tools to produce a variety of precision parts. In the Machine Shop Practice, students will have the opportunity to work with various metalworking and machining equipment, including lathes, milling machines, and drilling machines. They will learn about the principles of metalworking and machining, including the selection of cutting tools and materials, and the methods for measuring and inspecting parts. Students will also learn about the safety procedures and best practices in the machine shop.
is a crucial course in Mechanical Engineering that focuses on the study and application of fabrication techniques and processes. The course provides students with hands-on experience in the design and manufacture of a variety of mechanical components and systems. In the FAB Lab, students will have the opportunity to work with a variety of fabrication tools and equipment, including manual and computer-controlled machines. They will learn about the principles of fabrication, including material selection, design principles, and manufacturing processes. Students will also learn about the safety procedures and best practices in the fabrication lab. The hands-on approach of the FAB Lab is aimed at helping students develop their practical skills and confidence in working with fabrication tools and equipment. The course includes individual and group projects, allowing students to apply their knowledge and skills in real-world settings. These projects will challenge students to design and manufacture a variety of mechanical components and systems, providing them with a deeper understanding of fabrication techniques and processes.
