Become Leaders of Tomorrow!

Mechanical engineering education at BBIT College focuses on developing critical thinking and problem-solving skills for designing and developing innovative products and systems. Students learn to use analytical tools to meet design and manufacturing constraints and gain a deep understanding of manufacturing technologies and processes. Emphasis is placed on building collaboration and communication skills to bring ideas and products to market, preparing students for management and leadership roles in the industry.

The curriculum integrates hands-on experience with theory through well-equipped labs and workshops. Students engage in project-based, research-led learning to solve real-world problems and apply mechanical engineering concepts effectively.

The B.Tech in Mechanical Engineering program at BBIT College adopts a comprehensive approach to refine problem-solving, project management, and leadership skills, equipping students with the knowledge and confidence to excel across various industries. BBIT College aims to train students to be impactful innovators and progress drivers, promoting an immersive, integrative, and multi-dimensional approach to career development.

Program Educational Objectives (PEOs):

Equip students with fundamental knowledge in electrical engineering, along with a strong foundation in Physics, Chemistry, and Mathematics.
Cultivate problem-solving instincts in students to address engineering challenges effectively.
Facilitate opportunities for higher education in esteemed institutions and research & development organizations.
Prepare students to become future technological leaders through comprehensive training and development.

Program Specific Outcomes (PSOs):

Apply domain knowledge to comprehend and solve engineering problems effectively.
Utilize modern software and hardware tools for the analysis and design of complex electrical systems in research and industrial contexts.
Embrace societal and national responsibilities to provide valuable services to humanity.
Develop as ethical and responsible engineering professionals.

Program Specific Objectives (PSOs):

Critically analyze complex power system scenarios and propose solutions using acquired theoretical and practical knowledge.

Work on defined projects by interpreting power system data to provide real-time solutions to system issues

Identify optimal solutions to enhance power transfer capability, improve power quality, and ensure reliability.

This program is ideal for individuals passionate about manufacturing and designing power systems, who possess strong problem-solving abilities and a desire to pursue rewarding careers in electrical system design, development, and maintenance, ensuring quality, safety, reliability, and sustainability.

Program Outcomes (POs):

Apply knowledge of mathematics, science, engineering fundamentals, and specialization to solve complex engineering problems.
Identify, formulate, review research literature, and analyze complex engineering problems, reaching substantiated conclusions using mathematical, natural sciences, and engineering principles.
Design solutions for complex engineering problems and system components or processes that meet specified needs with considerations for public health, safety, cultural, societal, and environmental factors.
Use research-based knowledge and methods, including experimental design, data analysis, and information synthesis, to provide valid conclusions.
Create, select, and apply appropriate techniques, resources, and modern engineering and IT tools, including prediction and modelling, to complex engineering activities, understanding their limitations.
Apply contextual knowledge to assess societal, health, safety, legal, and cultural issues, and understand the responsibilities relevant to professional engineering practice.
Understand the impact of professional engineering solutions in societal and environmental contexts, demonstrating knowledge of and commitment to sustainable development.
Apply ethical principles and commit to professional ethics, responsibilities, and norms in engineering practice.
Function effectively both as an individual and as a leader or member of diverse teams and multidisciplinary settings.
Communicate effectively on complex engineering activities with the engineering community and society, including writing effective reports, creating design documentation, making presentations, and giving and receiving clear instructions.
Demonstrate knowledge and understanding of engineering and management principles to manage projects and work in multidisciplinary environments effectively.
Recognize the need for and engage in independent and life-long learning in the context of technological advancements.

Potential Job Roles

Power Engineer

Specializes in the generation, transmission, and distribution of electrical power.

Telecommunication Engineer

Focuses on designing and managing communication systems and networks.

Control and Instrumentation Engineer

Works on the design and implementation of control systems and instruments for industrial processes.

Electronics Engineer

Designs and develops electronic circuits, devices, and systems.

Broadcast Engineer

Manages and maintains equipment used for broadcasting television and radio.

Electrical Engineer

Applies principles of electricity and electromagnetism to design and develop electrical systems and equipment.

Design Engineer

Specializes in designing new products and systems, ensuring they meet required specifications and standards.

Nuclear Engineer

Works on the development and management of nuclear energy and radiation processes.

Consultant

Provides expert advice and solutions in various engineering fields based on specialized knowledge.

Systems Analyst

Analyzes and designs information systems to improve efficiency and effectiveness within organizations.

Program Overview & Structure

Theory:

  1. English Language& TechnicalCommunication

  2. Physics – 1
  3. Mathematics – 1
  4. Basic Electrical &Electronic Engineering – I
  5. Engg. Mechanics

Practical:

  1. Physics – 1 (Laboratory)
  2. Basic Electrical &Electronic Engineering – I (Laboratory)
  3. Workshop Practice
  4. Language Laboratory
  5. Extra-Curricular Activities(NSS/NCC/NSOetc.)

Theory:

  1. Basic Computation & Principles of Computer Programming
  2. Chemistry  – 1
  3. Mathematics  – 2
  4. Basic Electrical & Electronic Engineering – II
  5. Engineering Thermodynamics & Fluid Mechanics

Practical:

  1. Basic Computation &Principles of ComputerProgramming (Lab)
  2. Chemistry – 1 (Laboratory)
  3. Basic Electrical & Electronic Engineering – II (Laboratory)
  4. Basic Engg. Drawing &Computer Graphics

Theory:

  1. Values & Ethics in Profession
  2. Physics – 2
  3. Basic Environmental Engineering &Elementary Biology
  4. Applied Thermodynamics
  5. Strength of Materials
  6. Engineering Materials

Practical:

  1. Technical Report Writing & Language Lab Practice

  2. Physics Lab – 2
  3. Machine Drawing –I
  4. Workshop Practice – II
  5. Applied Mechanics Lab

Theory:

  1. Numerical Methods
  2. Mathematics – 3
  3. Fluid Mechanics & Hydraulic Machines

  4. Mechanisms
  5. Primary Manufacturing Processes

Practical:

  1. Numerical Methods Lab
  2. Fluid Mechanics & Hydraulics Lab
  3. Manufacturing Technology Lab
  4. Material Testing Lab
  5. Machine Drawing – II

Theory:

  1. Principles & Practices of Management

  2. Dynamics of Machines
  3. Heat Transfer
  4. Design of Machine Elements
  5. Metrology & Measurement

Practical:

  1. Seminar – I
  2. Applied Thermodynamics & HeatTransfer Lab
  3. Design Practice – I
  4. Metrology & Measurement Lab

Professional Elective – I Lab:

  1. Electrical Machines Applied Fluid Mechanics

Theory:

  1. Production & Operations Management

  2. PIC Engines and Gas Turbines
  3. Machining Principles & Machine Tools

  4. Machine Design

Professional Elective – II:

  1. Air Conditioning & Refrigeration Mechatronics Fluid Power Control

Professional Elective – III:

  1. Materials Handling Finite Element Method Turbo Machinery

Practical:

  1. Machining & Machine Tools Lab
  2. IC Engine Lab
  3. Design Practice – II
  4. Dynamics of Machines Lab

Professional Elective – II Lab:

  1. Air Conditioning & Refrigeration Mechatronics Fluid Power Control

Theory:

  1. Power Plant Engineering
  2. Advanced Manufacturing Technology

Professional Elective – IV:

  1. Maintenance Engineering Renewable Energy Systems Tribology

Professional Elective – V:

  1. Quantity Production Method Advanced Welding Technology Computational Methods in Engineering

Free Elective – I:

  1. Software Engineering Industrial Instrumentation Operations Research Biomechanics & Biomaterials

Practical:

  1. Advanced Manufacturing Lab
  2. Project : Part 1
  3. Viva Voce on Vacational Training
  4. Group Discussion

Theory:

  1. Economics for Engineers

Professional Elective – VI:

  1. CAD/CAM Industrial Robotics Energy Conservation & Management Quality & Reliability Engineering

Free Elective – I:

  1. Safety & Occupational Health Automation & Control Water Resource Engineering, Automobile Engineering

Practical:

  1. Deign of a Mechanical System
  2. Project : Part II
  3. Comprehensive viva

Eligibility Criteria

B. Tech: Sr. Secondary (10+2) in PCM/PCMB with minimum 50% marks from recognized Board / University

Fees Structure

24 Months EMI

₹4,583*

Interest free

Per Semester Fee

₹27,500*

Full Program Fee

₹1,65,000

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State-of-the Art Laboratories

Vision

The aim of the department is to deliver quality technical education on par with premier institutions, focusing on excellence in domain knowledge through innovative research and development.

Mission

To impart quality knowledge through dedicated faculty, develop students into future leaders with a broad knowledge base, expand learning beyond the syllabus, and encourage innovative research and development activities involving both faculty and students.

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