Department of Mechanical Engineering
Engineering the future through innovation in manufacturing, thermal systems, and machine design
Our Programs CurriculumWelcome to Mechanical Engineering Department
The Department of Mechanical Engineering at Government Polytechnic Nainital is dedicated to excellence in mechanical engineering education and research. Established in 1990, our department has been at the forefront of producing skilled mechanical engineers who contribute significantly to manufacturing, automotive, energy, and aerospace industries.
Our curriculum is designed to meet the evolving demands of the manufacturing industry, with a focus on machine design, thermal engineering, production technology, and automation. We offer state-of-the-art laboratories, experienced faculty, and industry collaborations to ensure our students receive comprehensive education.
Vision & Mission
Our Vision
To be a center of excellence in Mechanical Engineering education, fostering innovation, advanced manufacturing technologies, and sustainable engineering practices to produce globally competent mechanical engineers who can drive industrial growth and technological advancement.
Our Mission
- Provide quality education in mechanical engineering through industry-relevant curriculum
- Foster research in advanced manufacturing, robotics, and sustainable energy systems
- Develop technical and professional skills to meet global standards
- Promote innovation in machine design and manufacturing processes
- Establish strong industry-academia collaborations for mutual growth
Our Programs
Diploma in Mechanical Engineering
Our 3-year diploma program in Mechanical Engineering is designed to provide students with a strong foundation in machine design, thermal engineering, manufacturing processes, and automation. The curriculum covers both theoretical concepts and practical applications, preparing students for successful careers in the manufacturing and engineering industry.
Career Opportunities
Detailed Curriculum
Our comprehensive 3-year diploma program covers foundational engineering concepts in the first year and specialized mechanical engineering subjects in subsequent years.
Program Structure
The Diploma in Mechanical Engineering is a 3-year program divided into 6 semesters. The first year (Semesters 1 & 2) covers common engineering fundamentals, while the remaining semesters focus on specialized mechanical engineering subjects.
Subjects:
- English & Communication Skills – I
- Applied Mathematics – I
- Applied Physics – I
- Applied Chemistry – I
- Engineering Graphics – I
- Basic Mechanical Engineering
- General Workshop Practice – I
- General Proficiency, Industrial Exposure
Learning Outcomes:
- Develop communication (listening, speaking, reading, writing) skills
- Apply algebra, trigonometry, derivatives to solve engineering problems
- Understand fundamentals of physics and chemistry applied in engineering
- Learn basic mechanical concepts, materials, and components
- Learn to create engineering drawings
- Acquire basic workshop and practical technical skills
Subjects:
- English & Communication Skills – II
- Applied Mathematics – II
- Applied Physics – II
- Applied Chemistry – II
- Environmental Science & Energy Management
- Engineering Graphics – II
- General Workshop Practice – II
- General Proficiency, Industrial Exposure
Learning Outcomes:
- Communicate fluently with improved writing, speaking & listening skills
- Apply integration, differential equations, coordinate geometry, statistics in engineering problems
- Understand laws of physics and chemistry in engineering context
- Acquire awareness of environment, energy use, and sustainability
- Improve drawing and modeling skills
- Apply workshop practices in real-world engineering tasks
| Subject | Learning Outcomes |
|---|---|
| Engineering Mechanics | Analyze forces in mechanical systems, understand equilibrium, friction, and motion principles. |
| Strength of Materials | Understand stress-strain relationships, bending, torsion, and deflection in mechanical components. |
| Thermal Engineering - I | Comprehend thermodynamics laws, heat transfer modes, and basic power cycles. |
| Manufacturing Processes - I | Understand casting, welding, forming, and machining processes and their applications. |
| Machine Drawing | Create and interpret engineering drawings, understand tolerances and fits. |
| Workshop Practice - I | Gain hands-on experience in fitting, carpentry, smithy, and welding operations. |
Subjects:
- Theory of Machines
- Thermal Engineering - II
- Manufacturing Processes - II
- Fluid Mechanics & Machinery
- Metrology & Instrumentation
- Workshop Practice - II
- Industrial Exposure
Learning Outcomes:
- Analyze mechanisms, gears, cams, and governors in mechanical systems
- Design and analyze IC engines, turbines, and refrigeration systems
- Understand advanced manufacturing processes and CNC machining
- Design hydraulic and pneumatic systems, pumps, and turbines
- Use precision measuring instruments and understand quality control
- Gain practical skills in machine operations and maintenance
- Connect theory with real-world industrial practices
| Subject | Learning Outcomes |
|---|---|
| Machine Design | Design mechanical components like shafts, bearings, gears, and springs using design principles. |
| CAD/CAM | Use computer-aided design and manufacturing software for product development. |
| Automation & Robotics | Understand industrial automation, PLC programming, and robotic systems. |
| Production Management | Plan and control manufacturing operations, inventory management, and quality systems. |
| Minor Project | Apply knowledge to design and fabricate a mechanical system or component. |
| Industrial Training | Gain real industry exposure, apply theory in practice, work with manufacturing companies. Build employability skills & professionalism. |
Subjects:
- Mechatronics
- Advanced Manufacturing Systems
- Renewable Energy Systems
- Automobile Engineering
- Major Project
- Employability Skills
- Industrial Exposure, General Proficiency
Learning Outcomes:
- Integrate mechanical systems with electronics and computer control
- Understand flexible manufacturing systems and Industry 4.0 concepts
- Design and analyze solar, wind, and biomass energy systems
- Understand automotive systems, engines, and vehicle dynamics
- Undertake major projects addressing real-world industry needs
- Develop employability skills: communication, teamwork, time management, interview preparation
- Gain industrial exposure and workplace ethics
Student Projects Showcase
Our students have developed innovative projects that demonstrate their technical skills and creativity in mechanical engineering.
3D Printer Development
Design and fabrication of a custom 3D printer with advanced features and material compatibility.
Solar Powered Vehicle
Design and construction of an energy-efficient solar-powered vehicle for urban transportation.
Industrial Robot Arm
Development of a 6-axis robotic arm for industrial automation with precision control.
CNC Machine Upgrade
Retrofitting and upgrading conventional milling machine with CNC controls and automation.
Department Timeline & Achievements
Department Established
Mechanical Engineering Department was established with an initial intake of 40 students.
Advanced Workshop Setup
Established comprehensive mechanical workshop with modern machining equipment.
Industry Collaboration
Signed MoUs with leading automotive and manufacturing companies for student training.
CAD/CAM Center
Established computer-aided design and manufacturing center with latest software.
Automation & Robotics Lab
Set up advanced automation laboratory with industrial robots and PLC systems.
Additive Manufacturing
Introduced 3D printing and advanced manufacturing technologies in curriculum.
Our Distinguished Faculty
Qualifications
Experience
Specialization
Contact
Mechanical Engineering Department Facilities
Advanced mechanical workshops and laboratories for thermal, design, and production training.
Workshop & Machine Lab
Lathe, milling, drilling, and fitting workshops for practical training.
Thermal Engineering Lab
Study of IC engines, heat transfer, and refrigeration systems.
CAD/CAM Lab
Design and analysis using AutoCAD, SolidWorks, and mechanical simulation software.
Fluid Mechanics Lab
Experiments related to flow measurement, pumps, and turbines.