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    +91 88943 57155
    Pune, Maharashtra, India

    Duration

    4 Years

    Mechanical Engineering

    Roorkee Institute Of Technology
    Duration
    4 Years
    Mechanical Engineering UG OFFLINE

    Duration

    4 Years

    Mechanical Engineering

    Roorkee Institute Of Technology
    Duration
    Apply

    Fees

    ₹3,50,000

    Placement

    93.5%

    Avg Package

    ₹4,80,000

    Highest Package

    ₹8,50,000

    OverviewAdmissionsCurriculumFeesPlacements
    4 Years
    Mechanical Engineering
    UG
    OFFLINE

    Fees

    ₹3,50,000

    Placement

    93.5%

    Avg Package

    ₹4,80,000

    Highest Package

    ₹8,50,000

    Seats

    120

    Students

    1,200

    ApplyCollege

    Seats

    120

    Students

    1,200

    Curriculum

    Curriculum Overview

    The Mechanical Engineering curriculum at Roorkee Institute Of Technology is meticulously structured to ensure a seamless progression from foundational sciences to specialized engineering disciplines. The program spans eight semesters and includes core subjects, departmental electives, science electives, and hands-on laboratory sessions.

    YearSemesterCourse CodeCourse TitleCredit Structure (L-T-P-C)Pre-requisites
    1st YearIME-101Engineering Mathematics I3-1-0-4-
    ME-102Engineering Physics3-1-0-4-
    ME-103Basic Electrical Engineering3-1-0-4-
    ME-104Engineering Graphics and Computer Aided Design2-1-0-3-
    1st YearIIME-201Engineering Mathematics II3-1-0-4ME-101
    ME-202Chemistry for Engineers3-1-0-4-
    ME-203Engineering Mechanics3-1-0-4-
    ME-204Introduction to Computer Programming2-1-0-3-
    2nd YearIIIME-301Thermodynamics3-1-0-4ME-102, ME-201
    ME-302Strength of Materials3-1-0-4ME-203
    ME-303Manufacturing Processes3-1-0-4-
    ME-304Fluid Mechanics3-1-0-4ME-201, ME-203
    2nd YearIVME-401Machine Design I3-1-0-4ME-302, ME-303
    ME-402Heat Transfer3-1-0-4ME-301, ME-304
    ME-403Control Systems3-1-0-4ME-201
    ME-404Electrical Machines3-1-0-4-
    3rd YearVME-501Advanced Thermodynamics3-1-0-4ME-301
    ME-502Finite Element Methods3-1-0-4ME-302, ME-401
    ME-503Manufacturing Systems3-1-0-4ME-303
    ME-504Energy Conversion Technologies3-1-0-4ME-301, ME-402
    3rd YearVIME-601Robotics and Automation3-1-0-4ME-403, ME-502
    ME-602Materials Science3-1-0-4ME-102
    ME-603Aerospace Engineering Fundamentals3-1-0-4ME-301, ME-304
    ME-604Industrial Engineering3-1-0-4ME-503
    4th YearVIIME-701Mini Project I2-0-0-2ME-501, ME-602
    ME-702Mini Project II2-0-0-2ME-701
    ME-703Advanced Manufacturing Techniques3-1-0-4ME-503
    ME-704Special Topics in Mechanical Engineering3-1-0-4-
    4th YearVIIIME-801Final Year Project/Thesis4-0-0-4ME-702, ME-703
    ME-802Internship Report2-0-0-2-
    ME-803Elective Courses3-1-0-4-
    ME-804Professional Ethics and Management2-0-0-2-

    Advanced Departmental Elective Courses

    Advanced Robotics and Control Systems: This course delves into the design, modeling, and control of robotic systems using advanced algorithms. Students learn to program robots using ROS (Robot Operating System), develop control strategies for autonomous navigation, and integrate sensor fusion techniques.

    Sustainable Design and Manufacturing: Focused on life cycle assessment, eco-design principles, circular economy strategies, and green manufacturing practices, this course prepares students to create environmentally responsible products and processes.

    Advanced Materials Characterization: Students gain hands-on experience with electron microscopy, X-ray diffraction, spectroscopy, and other advanced analytical techniques used to characterize material properties and behavior.

    Energy Storage Technologies: This course explores battery technologies, supercapacitors, hydrogen fuel cells, and other emerging energy storage solutions, equipping students with the knowledge needed to develop next-generation energy systems.

    Digital Twin and Simulation Techniques: Utilizing simulation software like ANSYS, MATLAB/Simulink, and Python-based modeling tools, students learn to create virtual replicas of physical systems for predictive analysis, optimization, and performance evaluation.

    Computational Fluid Dynamics (CFD): Students learn to simulate fluid flow using numerical methods, apply CFD software packages like Fluent and Star-CCM+, and analyze complex flow scenarios in engineering applications.

    Smart Manufacturing Systems: This course integrates Industry 4.0 technologies with traditional manufacturing processes, teaching students how to implement automation, data analytics, and IoT solutions in production environments.

    Aircraft Propulsion Systems: Designed for aerospace enthusiasts, this elective covers the design, analysis, and optimization of jet engines, rocket motors, and other propulsion systems used in aviation and space exploration.

    Renewable Energy Conversion: Students explore solar thermal collectors, wind turbines, hydroelectric generators, and biomass conversion technologies, gaining insights into sustainable energy solutions for modern power grids.

    Advanced Manufacturing Techniques: This course introduces cutting-edge manufacturing technologies such as additive manufacturing (3D printing), laser processing, electron beam machining, and micro/nano fabrication techniques.

    Project-Based Learning Philosophy

    The Department of Mechanical Engineering at Roorkee Institute Of Technology strongly believes in experiential learning through project-based methodologies. Students begin working on mini-projects from their second year onwards, allowing them to apply theoretical concepts to real-world problems.

    Mini Projects are typically completed in groups of 3-5 students and involve designing, prototyping, testing, and documenting solutions to engineering challenges. These projects are evaluated based on creativity, technical proficiency, teamwork, presentation skills, and adherence to industry standards.

    The Final-Year Thesis/Project is a comprehensive endeavor where students select an advanced topic under the guidance of a faculty mentor. The project involves extensive literature review, experimental design, data collection, analysis, and final documentation. Students often collaborate with industry partners or research organizations to ensure relevance and impact.

    Faculty mentors are selected based on their expertise in specific areas related to the student's chosen topic. The selection process includes submitting a proposal, attending an interview, and receiving approval from the department head.