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Scholarships & exams

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

Duration

4 Years

Mechanical Engineering

Babu Sant Bux Engg College
Duration
4 Years
Mechanical Engineering UG OFFLINE

Duration

4 Years

Mechanical Engineering

Babu Sant Bux Engg College
Duration
Apply

Fees

₹7,50,000

Placement

96.5%

Avg Package

₹7,20,000

Highest Package

₹98,00,000

OverviewAdmissionsCurriculumFeesPlacements
4 Years
Mechanical Engineering
UG
OFFLINE

Fees

₹7,50,000

Placement

96.5%

Avg Package

₹7,20,000

Highest Package

₹98,00,000

Seats

120

Students

1,200

ApplyCollege

Seats

120

Students

1,200

Curriculum

Comprehensive Course List Across 8 Semesters

SemesterCourse CodeCourse TitleCredit Structure (L-T-P-C)Prerequisites
1ME101Engineering Mathematics I3-1-0-4None
1ME102Physics for Engineering3-1-0-4None
1ME103Basic Electrical Engineering3-1-0-4None
1ME104Engineering Graphics & Design2-1-0-3None
1ME105Computer Programming3-0-0-3None
1ME106Introduction to Mechanical Engineering2-0-0-2None
2ME201Engineering Mathematics II3-1-0-4ME101
2ME202Chemistry for Engineering3-1-0-4None
2ME203Materials Science3-1-0-4ME102
2ME204Mechanics of Solids3-1-0-4ME102
2ME205Fluid Mechanics3-1-0-4ME102
2ME206Thermodynamics3-1-0-4ME102
3ME301Strength of Materials3-1-0-4ME204
3ME302Mechanics of Fluids3-1-0-4ME205
3ME303Heat Transfer3-1-0-4ME206
3ME304Machine Design I3-1-0-4ME204
3ME305Manufacturing Processes3-1-0-4ME203
3ME306Engineering Economics3-1-0-4ME101
4ME401Machine Design II3-1-0-4ME304
4ME402Control Systems3-1-0-4ME301
4ME403Refrigeration & Air Conditioning3-1-0-4ME303
4ME404Production Planning & Control3-1-0-4ME305
4ME405Industrial Engineering3-1-0-4ME306
4ME406Project Management3-1-0-4ME306
5ME501Advanced Thermodynamics3-1-0-4ME206
5ME502Finite Element Methods3-1-0-4ME301
5ME503Automotive Engineering3-1-0-4ME401
5ME504Energy Conversion Systems3-1-0-4ME303
5ME505Nanotechnology in Engineering3-1-0-4ME203
5ME506Mechanical Vibrations3-1-0-4ME301
6ME601Robotics and Automation3-1-0-4ME402
6ME602Computational Fluid Dynamics3-1-0-4ME205
6ME603Biomechanics3-1-0-4ME301
6ME604Sustainable Manufacturing3-1-0-4ME305
6ME605Advanced Materials3-1-0-4ME203
6ME606Systems Modeling & Simulation3-1-0-4ME402
7ME701Renewable Energy Systems3-1-0-4ME501
7ME702Advanced Manufacturing Techniques3-1-0-4ME604
7ME703Design Optimization3-1-0-4ME502
7ME704Industrial Design3-1-0-4ME603
7ME705Advanced Robotics3-1-0-4ME601
7ME706Product Development3-1-0-4ME605
8ME801Final Year Project2-0-4-6ME701
8ME802Elective I3-1-0-4ME701
8ME803Elective II3-1-0-4ME702
8ME804Elective III3-1-0-4ME703
8ME805Elective IV3-1-0-4ME704
8ME806Professional Ethics & Management2-0-0-2ME501

Detailed Descriptions of Advanced Departmental Electives

Renewable Energy Systems: This course explores the principles and applications of solar, wind, hydroelectric, and geothermal energy systems. Students learn about energy conversion technologies, environmental impacts, and sustainable practices in energy generation. The course emphasizes hands-on design projects involving real-world renewable energy installations.

Robotics and Automation: Focused on the integration of mechanical, electrical, and software systems in robotic applications, this course covers sensor integration, control algorithms, and autonomous navigation. Students engage in building functional robots using advanced prototyping tools and simulation environments.

Advanced Manufacturing Techniques: This elective delves into modern manufacturing technologies such as 3D printing, laser cutting, CNC machining, and additive manufacturing. Students gain practical experience through lab sessions and collaborative projects with industry partners.

Design Optimization: Emphasizing mathematical modeling and computational methods for optimizing mechanical designs, this course introduces students to techniques like genetic algorithms, finite element analysis, and multi-objective optimization frameworks.

Biomechanics: Combining principles of mechanical engineering with biological systems, this course explores how mechanical forces affect living organisms. Students study human motion, medical device design, and the mechanics of tissues and organs.

Computational Fluid Dynamics: This advanced course focuses on numerical methods for solving fluid flow problems using software tools like ANSYS Fluent and OpenFOAM. Students model complex flows in various engineering applications including aerodynamics and heat transfer.

Industrial Design: Designed to bridge the gap between engineering and aesthetics, this course teaches students how to create products that are both functional and user-friendly. It includes modules on ergonomics, materials selection, and prototyping techniques.

Sustainable Manufacturing: Addressing environmental challenges in manufacturing processes, this course examines eco-design principles, life cycle assessment, and resource efficiency strategies. Students explore green technologies and sustainable practices in production systems.

Systems Modeling & Simulation: Using MATLAB/Simulink and other tools, students learn to build models of dynamic systems and simulate their behavior under different conditions. This course prepares them for complex engineering analysis and system design tasks.

Product Development: Focused on the entire lifecycle of product development from ideation to market launch, this course integrates engineering design with business strategy and marketing principles. Students work in teams to develop a complete product concept and present it to industry experts.

Project-Based Learning Philosophy

The department emphasizes project-based learning as a core pedagogical approach. In the first year, students undertake mini-projects that introduce them to engineering problem-solving through team collaboration and design thinking methodologies.

During the third year, students participate in a capstone project, which is a comprehensive, semester-long endeavor that integrates all learned concepts. Projects are typically sponsored by industry partners or chosen based on societal needs.

In the final year, students complete their final-year thesis, which can be either theoretical or applied research. Thesis topics are selected in consultation with faculty mentors who provide guidance throughout the research process.

Project selection is facilitated through a structured process that includes interest surveys, mentor matching based on expertise, and alignment with current industry trends and academic interests.