Collegese

Welcome to Collegese! Sign in →

Collegese

    Search colleges and courses

    Search and navigate to colleges and courses

    Start your journey

    Ready to find your dream college?

    Join thousands of students making smarter education decisions.

    Watch How It WorksGet Started

    Discover

    Browse & filter colleges

    Compare

    Side-by-side analysis

    Explore

    Detailed course info

    Collegese

    India's education marketplace helping students discover the right colleges, compare courses, and build careers they deserve.

    © 2026 Collegese. All rights reserved. A product of Nxthub Consulting Pvt. Ltd.

    Apply

    Scholarships & exams

    support@collegese.com
    +91 88943 57155
    Pune, Maharashtra, India

    Duration

    3 Years

    Diploma in Automobile Engineering

    Government Polytechnic College Mandla, Madhya Pradesh
    Duration
    3 Years
    Automobile Engineering DIPLOMA OFFLINE

    Duration

    3 Years

    Diploma in Automobile Engineering

    Government Polytechnic College Mandla, Madhya Pradesh
    Duration
    Apply

    Fees

    ₹3,18,000

    Placement

    92.0%

    Avg Package

    ₹4,50,000

    Highest Package

    ₹8,50,000

    OverviewAdmissionsCurriculumFeesPlacements
    3 Years
    Automobile Engineering
    DIPLOMA
    OFFLINE

    Fees

    ₹3,18,000

    Placement

    92.0%

    Avg Package

    ₹4,50,000

    Highest Package

    ₹8,50,000

    Seats

    120

    Students

    600

    ApplyCollege

    Seats

    120

    Students

    600

    Curriculum

    Curriculum Overview

    The Diploma in Automobile Engineering program at Government Polytechnic College Mandla, MP, is structured over six semesters to provide a comprehensive understanding of automotive systems and technologies. The curriculum balances theoretical knowledge with practical application through laboratory sessions, mini-projects, and industry exposure.

    The first year lays the foundation with basic sciences, mathematics, and introduction to engineering principles. Students are exposed to core subjects such as engineering drawing, applied physics, basic electrical engineering, and workshop practice. These foundational courses equip students with essential skills needed for advanced studies in automotive engineering.

    In the second year, students transition into core automotive disciplines including internal combustion engines, vehicle dynamics, mechanics of materials, thermodynamics, and manufacturing technology. Laboratory work complements these subjects, offering hands-on experience with tools and equipment commonly used in automotive industries.

    The third year introduces specialized areas such as powertrain systems, chassis design, safety engineering, and control systems. Students engage in advanced coursework on engine performance, fuel systems, and vehicle testing procedures. Practical sessions involve working with modern simulation software and testing equipment.

    Fourth and fifth years focus on emerging technologies and industry applications. Topics include electric vehicle technology, alternative fuels, smart transportation systems, and advanced manufacturing techniques. Students undertake mini-projects in these areas to reinforce learning and develop problem-solving abilities.

    The final year culminates with a capstone project that integrates all learned concepts. Students work individually or in teams on real-world problems, guided by faculty mentors. This experience mirrors professional engineering practices and prepares students for industry roles or further education.

    Course Structure

    SemesterCourse CodeCourse TitleCredit Structure (L-T-P-C)Prerequisites
    1AE-101Engineering Mathematics I3-0-0-3-
    1AE-102Applied Physics3-0-0-3-
    1AE-103Basic Electrical Engineering3-0-0-3-
    1AE-104Engineering Drawing0-0-6-2-
    1AE-105Workshop Practice0-0-6-2-
    1AE-106Communication Skills3-0-0-3-
    2AE-201Engineering Mathematics II3-0-0-3AE-101
    2AE-202Applied Mechanics3-0-0-3-
    2AE-203Mechanics of Materials3-0-0-3-
    2AE-204Thermodynamics3-0-0-3-
    2AE-205Manufacturing Technology I3-0-0-3-
    2AE-206Introduction to Automobile Engineering3-0-0-3-
    3AE-301Internal Combustion Engines3-0-0-3AE-204
    3AE-302Vehicle Dynamics3-0-0-3-
    3AE-303Automotive Materials3-0-0-3-
    3AE-304Manufacturing Technology II3-0-0-3AE-205
    3AE-305Automotive Electrical Systems3-0-0-3-
    3AE-306Automotive Electronics3-0-0-3-
    4AE-401Powertrain Systems3-0-0-3AE-301
    4AE-402Automotive Chassis Design3-0-0-3-
    4AE-403Safety Engineering3-0-0-3-
    4AE-404Automotive Testing & Quality Control3-0-0-3-
    4AE-405Control Systems in Vehicles3-0-0-3-
    4AE-406Project Work I0-0-12-4-
    5AE-501Advanced Engine Design3-0-0-3AE-301
    5AE-502Automotive Fuel Systems3-0-0-3-
    5AE-503Environmental Impact Assessment3-0-0-3-
    5AE-504Smart Transportation Systems3-0-0-3-
    5AE-505Automotive Maintenance & Repair3-0-0-3-
    5AE-506Project Work II0-0-12-4-
    6AE-601Electric Vehicle Technology3-0-0-3-
    6AE-602Alternative Fuel Technologies3-0-0-3-
    6AE-603Advanced Manufacturing Techniques3-0-0-3-
    6AE-604Vehicle Simulation & Modeling3-0-0-3-
    6AE-605Capstone Project0-0-18-6-
    6AE-606Internship0-0-12-4-

    Advanced Departmental Electives

    Advanced departmental elective courses are designed to deepen students' understanding of specialized areas within automobile engineering:

    • Automotive Design & Simulation: This course introduces students to advanced design methodologies using CAD software, finite element analysis (FEA), and computational fluid dynamics (CFD). Students learn to simulate vehicle behavior under various conditions and optimize designs for performance and safety.
    • Electric Vehicle Engineering: Focused on the development and integration of electric powertrains, battery management systems, charging infrastructure, and energy efficiency optimization. The course includes hands-on projects involving real EV components and systems.
    • Sustainable Transportation Technologies: Explores renewable energy sources, emission reduction strategies, fuel cell technology, and eco-friendly vehicle designs. Students examine global initiatives aimed at reducing the carbon footprint of transportation.
    • Vehicle Dynamics & Control Systems: Teaches students to model, analyze, and control vehicle motion using mathematical tools and simulation software. The course covers topics such as suspension systems, steering mechanisms, brake performance, and electronic stability control.
    • Automotive Electronics & Embedded Systems: Covers the design and implementation of embedded controllers, sensor integration, communication protocols, and real-time system programming for automotive applications.
    • Advanced Manufacturing Processes: Focuses on modern manufacturing techniques including additive manufacturing (3D printing), automation, lean production, and quality control methodologies in automotive settings.
    • Materials Science in Automotive Applications: Delves into the properties and applications of advanced materials such as carbon fiber composites, lightweight alloys, ceramics, and smart materials in vehicle construction.
    • Autonomous Vehicle Systems: Introduces students to perception systems, decision-making algorithms, navigation technologies, and sensor fusion techniques used in autonomous vehicles.
    • Intelligent Transportation Systems (ITS): Examines the integration of communication networks, data analytics, artificial intelligence, and traffic management systems to improve road safety and reduce congestion.
    • Vehicle Testing & Validation: Provides students with experience in conducting laboratory tests, field trials, and validation procedures for automotive components and systems. Emphasis is placed on safety standards and regulatory compliance.

    Project-Based Learning Philosophy

    The department's philosophy on project-based learning centers around experiential education that bridges theory and practice. Mini-projects are assigned in the second and third years to reinforce classroom learning and develop practical skills. These projects involve small teams working under faculty supervision to solve real-world problems using engineering principles.

    Final-year students undertake a comprehensive capstone project that integrates knowledge from all previous semesters. Projects are selected based on student interests, faculty expertise, and industry relevance. Each student works closely with a mentor who guides them through research, design, prototyping, testing, and documentation phases.

    Evaluation criteria for projects include innovation, technical depth, presentation quality, and adherence to industry standards. Students must demonstrate critical thinking, problem-solving capabilities, and teamwork skills throughout the project lifecycle.