B.Tech in Mechanical Engineering

• PSO1: Possess skill set in design, and analyse mechanical systems and components considering social, economic, and environmental implications.
• PSO2: Acquire hands-on Experience with mechanical tools, equipment and software used in industry through curricula, projects, and Internships.

• PO1: Apply basic knowledge of mathematics, science, and engineering principles to solve technical problems.
• PO2: Design and analyze a system component, or process to meet desired needs in Mechanical Engineering.
• PO3: Design a system and conduct experiments to find suitable solutions in the field of mechanical engineering.
• P04: Identify, visualize, formulate, and solve engineering problems in the field of Mechanical Engineering.
• PO5: Use the techniques, skills, and modern engineering tools necessary for engineering practice with appropriate considerations for societal and environmental constraints.
• PO6: Apply their fundamental field skills towards the understanding of the impact of engineering solutions on society in a global and social context.
• PO7: Impart knowledge of contemporary issues about society and the environment.
• PO8: Apply ethical principles and responsibilities during professional practice.
• P09: Function on multi-disciplinary teams as a team member/leader and create user-friendly environment.
• PO10: Effectively in oral, written, visual, and graphic modes within interpersonal, team, and group environments.
• PO11: Apply the techniques, skills, and modern engineering tools necessary for engineering projects.
• PO12: Recognize the need for professional advancement by engaging in lifelong learning.
• PO13: Apply basic knowledge of mathematics, science, and engineering principles to solve

• PEO1: Mechanical engineering graduates will adapt to modern technology through lifelong learning skills & prevailing global needs through technical skills with leadership attributes.
• PEO2: Mechanical engineering graduates will pursue higher studies, thrive in multidisciplinary research initiatives, and provide innovative ideas and solutions to society.
• PEO3: Mechanical engineering graduates will exhibit innovative entrepreneurial abilities in technology development for a wide range of engineering applications.

Nitte Meenakshi Institute of Technology (NMIT) stands out as a beacon of excellence in technical education. One of the key factors contributing to its reputation is the robust infrastructure and world-class facilities that cater to the diverse needs of aspiring engineers. In this write-up, we delve into the commendable infrastructure that makes Mechanical Engineering at NMIT an enriching and immersive learning experience.

State-of-the-Art Laboratories:

NMIT's Mechanical Engineering department boasts state-of-the-art laboratories equipped with cutting-edge machinery and tools. These facilities provide students with hands-on experience, allowing them to apply theoretical concepts learned in classrooms to practical scenarios. From fluid mechanics and thermodynamics to machine design and robotics, each laboratory is meticulously designed to provide a comprehensive understanding of the subject matter.

Modern Classrooms and Lecture Halls:

The Mechanical Engineering classrooms at NMIT are designed to foster an interactive and engaging learning environment. Equipped with modern teaching aids such as audio-visual systems and smart boards, these classrooms enhance the overall learning experience. The spacious lecture halls accommodate students comfortably, promoting effective communication between faculty and students.

Research and Development Centers:

NMIT's commitment to innovation is reflected in its dedicated Research and Development centers within the Mechanical Engineering department. These centers provide students and faculty with the resources and support needed to conduct groundbreaking research in various domains of mechanical engineering. Access to these facilities encourages a culture of innovation and continuous learning.

Well-Equipped Workshops:

NMIT takes pride in its well-equipped workshops that serve as the foundation for practical skill development. From machining and welding to fabrication and metrology, students have access to a wide range of workshops that simulate real-world industrial settings. The hands-on experience gained in these workshops prepares students for the challenges of the industry.

Library Resources:

The Departmental library is a treasure trove of knowledge, housing an extensive collection of books, journals, and research papers. This resource-rich environment supports students in their academic endeavors, providing them with the necessary references and literature to delve deeper into the intricacies of mechanical engineering.

Collaboration with Industry:

NMIT's Mechanical Engineering department has established strong ties with industry leaders, resulting in collaborative initiatives and industry-sponsored projects. This collaboration ensures that students are exposed to real-world challenges, giving them a competitive edge in the job market.

The success of Mechanical Engineering at NMIT can be attributed, in part, to its exceptional infrastructure and facilities. NMIT's commitment to providing students with a comprehensive and contemporary learning environment reinforces its position as a leading institution in the field of technical education. The well-rounded approach, encompassing cutting-edge laboratories, modern classrooms, research centers, workshops, and industry collaborations, sets a benchmark for excellence in Mechanical Engineering education at NMIT.

Collaborative Learning Environment:

Our labs are not just spaces for experimentation; they are hubs for collaboration, fostering teamwork, and encouraging interdisciplinary projects. Students have the opportunity to work closely with faculty members on research initiatives, pushing the boundaries of innovation in mechanical engineering.

Experience Innovation, Explore Possibilities:

We offer students a hands-on experience that transcends traditional classroom learning. Our cutting-edge lab facilities prepare individuals to tackle real-world challenges and lead the way in the ever-evolving field of mechanical engineering.

Innovative Collaboration and Research:

Our labs aren't just about individual exploration; they are collaborative arenas. Students work side-by-side with faculty on groundbreaking research initiatives, contributing to advancements in mechanical engineering. Interdisciplinary projects across departments foster a dynamic environment for innovative thinking and problem-solving.

Pioneering Beyond Boundaries:

By integrating theory with hands-on experience, our labs empower students to push boundaries, innovate, and lead in an ever-evolving technological landscape. Here, they don't just learn about engineering—they actively engineer the future.

The laboratories established in the department are:

Computer Aided Engineering Drawing Laboratory: The Computer-Aided Engineering Drawing (CAED) lab in the Mechanical Engineering department serves as a technological hub where students harness digital tools to design and analyze intricate mechanical components. Equipped with cutting-edge software, this lab provides hands-on experience in creating detailed 2D and 3D models, enabling students to translate conceptual ideas into tangible engineering solutions. The CAED lab fosters a dynamic learning environment, where students refine their drafting skills, simulate real-world scenarios, and cultivate a deep understanding of the design process essential for modern mechanical engineering.

Computer Aided Machine Drawing Laboratory: The Computer-Aided Machine Drawing Laboratory in mechanical engineering offers a specialized workspace where students utilize advanced software to develop precise and detailed machine drawings. This lab facilitates hands-on learning, allowing students to apply design principles to create digital representations of complex machinery, enhancing their proficiency in engineering visualization and technical drafting. It serves as a crucial component in preparing future mechanical engineers for the intricacies of modern manufacturing and design.

Computer Integrated Manufacturing (CIM) Laboratory: The Computer Integrated Manufacturing (CIM) Laboratory is a pivotal space within the mechanical engineering domain, focusing on the seamless integration of computer-based technologies in manufacturing processes. In this state-of-the-art facility, students engage with advanced software and automation systems to simulate, analyze, and optimize production workflows. The CIM lab plays a crucial role in shaping a new generation of engineers well-versed in the intersection of technology and manufacturing for enhanced efficiency and competitiveness in the industry.

Manufacturing laboratory: The Manufacturing Laboratory is a hands-on facility within the mechanical engineering department, serving as a practical hub for students to gain real-world experience in the manufacturing processes. Equipped with a range of machinery and tools, this lab provides a dynamic environment for students to hone their skills in metalworking, machining, and fabrication. It serves as a crucial bridge between theoretical knowledge and practical application, preparing future engineers with the skills necessary for success in the diverse field of manufacturing.

Material Testing Laboratory: The Material Testing Laboratory is an integral part of the mechanical engineering curriculum, offering students a platform to explore and analyze the properties of various materials. In this controlled environment, students conduct experiments to assess factors like tensile strength, hardness, and durability, gaining valuable insights into material behavior under different conditions. This laboratory plays a pivotal role in shaping well-rounded engineers by providing hands-on experience in evaluating and selecting materials crucial for the success and longevity of engineering projects.

Fuel and IC engine Testing laboratory: The Fuel and Internal Combustion Engine (IC Engine) Testing Laboratory is a specialized facility in mechanical engineering where students delve into the intricacies of combustion and propulsion systems. Equipped with cutting-edge instrumentation, this lab allows students to analyze fuel properties, performance parameters, and emissions from internal combustion engines. Through hands-on experimentation, students gain a comprehensive understanding of the efficiency and environmental impact of various fuels, contributing to their expertise in the design and optimization of combustion-based power systems.

Metrology and measurement laboratory: The Metrology and Measurement Laboratory in mechanical engineering serves as a precision-oriented workspace where students delve into the science of accurate measurement. Armed with advanced instruments, students acquire hands-on experience in dimensional analysis, surface finish assessment, and precision measurement techniques. This laboratory plays a pivotal role in cultivating the skills necessary for quality control, ensuring that future engineers are adept at maintaining the highest standards of precision in manufacturing and design processes.

Fluid machinery and flow measurement laboratory: The Fluid Machinery and Flow Measurement Laboratory is a vital component of mechanical engineering education, providing students with a hands-on environment to study fluid dynamics and machinery performance. Equipped with state-of-the-art apparatus, students experiment with pumps, turbines, and flow measurement devices. This lab fosters a deep understanding of fluid behavior, enabling students to analyze and optimize the performance of machinery crucial in fields ranging from hydraulics to aerospace engineering.

Machine shop laboratory: The Machine Shop Laboratory is a fundamental workshop within mechanical engineering, serving as the practical foundation where students gain hands-on experience in machining and fabrication processes. Equipped with a variety of tools and machinery such as lathes, mills, and grinders, this lab enables students to translate theoretical knowledge into tangible prototypes. Through hands-on projects, students develop crucial skills in precision machining, metalworking, and assembly, preparing them for the practical challenges of manufacturing and production engineering.

Design laboratory: The Design Laboratory is a dynamic space within mechanical engineering where students engage in the creative and innovative aspects of product development. Equipped with cutting-edge design software and prototyping tools, this lab fosters a hands-on approach to conceptualizing, modelling, and refining engineering designs. By undertaking diverse projects, students enhance their skills in problem-solving, CAD modelling, and design optimization, ensuring they are well-prepared to meet the complex challenges of modern engineering and contribute to the evolution of innovative solutions in various industries.

Heat transfer laboratory: The Heat Transfer Laboratory is a specialized facility in Mechanical engineering that focuses on the fundamental principles and applications of heat transfer. Equipped with experimental setups and measurement instruments, students explore conduction, convection, and radiation phenomena. Through hands-on experiments, they analyze heat exchange mechanisms in various materials and configurations, gaining practical insights into thermal conductivity and efficiency. This laboratory plays a crucial role in preparing students to address challenges related to thermal management and energy transfer in diverse engineering applications.

Applied Mechatronics laboratory: The Applied Mechatronics Laboratory is an innovative hub within mechanical engineering, merging mechanical systems with electronics and computer control. Equipped with advanced sensors, actuators, and programmable controllers, students engage in hands-on projects to design and build intelligent mechatronic systems. This laboratory provides a dynamic environment for exploring the integration of mechanical components with sensors and software, fostering a multidisciplinary approach. Students develop proficiency in automation, robotics, and control systems, preparing them for the evolving challenges at the intersection of mechanical engineering and modern technology.

Composite materials laboratory: The Composite Materials Laboratory in mechanical engineering is a specialized facility where students delve into the properties and applications of advanced composite materials. Equipped with cutting-edge testing apparatus, students engage in hands-on experiments to analyze the mechanical behavior, durability, and structural integrity of composite materials. This laboratory plays a pivotal role in preparing students to design and optimize lightweight, high-strength structures used in aerospace, automotive, and other industries. Through practical exploration, students gain valuable insights into the innovative use of composite materials, contributing to advancements in material science and engineering.

Robotics laboratory: The integration of LEGO robotics into mechanical engineering labs has proven to be a transformative and innovative approach to hands-on learning. Combining the versatility of LEGO bricks with the principles of robotics provides students with a unique opportunity to apply theoretical knowledge to practical scenarios. This small write-up explores the benefits and applications of LEGO robotics labs in the field of mechanical engineering education.

Additive manufacturing laboratory: The Additive Manufacturing Laboratory in mechanical engineering is a cutting-edge facility dedicated to exploring the transformative field of 3D printing and additive manufacturing. Equipped with state-of-the-art 3D printers and scanning technologies, students engage in hands-on projects to design, prototype, and manufacture complex components layer by layer. This laboratory serves as a dynamic space where students explore the potential of additive manufacturing in rapid prototyping, customized production, and intricate design solutions. By working with a variety of materials and printing technologies, students develop expertise in this innovative approach, preparing them for the forefront of modern manufacturing processes.

Professional Practice for Mechanical Engineers I/II Laboratory:The Professional Practice for Mechanical Engineers-I Laboratory serves as a crucial space where students bridge theoretical knowledge with real-world applications in the field. Focused on enhancing practical skills and industry-oriented competencies, this lab engages students in hands-on projects, case studies, and simulations that mirror professional challenges. Through this immersive experience, students develop the practical acumen required for successful integration into the workforce, preparing them with the skills, ethics, and problem-solving abilities essential for a thriving career in mechanical engineering.

AICTE sponsored IDEA LAB:

Board of Studies (BOS)

Board of Studies (BOS)

Department Undergraduate Committee (DUGC)

Department Advisory Committee (DAC)

Programme Advisory Committee (PAC)

Teaching Learning Methodologies

1. Flipped teaching (Mr. Vikram K V)

A flipped classroom is an instructional strategy and a type of blended learning, which aims to increase student engagement and learning by having pupils complete readings at home and work on live problem-solving during class time. This methodology adopted by NMIT faculty members to enhance the teaching learning process. Several faculty members of Mechanical department have successfully incorporated this method to enhance teaching learning process.

List of Flipped Classroom Videos Developed by Faculty Members, Dept of Mechanical Engineering.

Topic	Link
Part 1 - Pneumatic Systems - Mobile Workstation	https://www.youtube.com/watch?v=yt_6n0ne7t8&t=141s
Part 2 - Pneumatic Systems - Identification of Physical Components	https://www.youtube.com/watch?v=RescoKt3o-M&t=204s
Part 3 - Pneumatic Systems - Identification of Special Purpose Valves & Measurement Unit	https://www.youtube.com/watch?v=i9FliUDHKto
Part 4 - Identification of Physical Components of Electro Pneumatic Valves	https://www.youtube.com/watch?v=UMZyUGU1V_U
Electro Pneumatics - Exercise 1 - Sorting Device	https://www.youtube.com/watch?v=A0fGkDHNONc
Electro Pneumatics - Exercise 2 - Assembly Station	https://www.youtube.com/watch?v=AQe9iNH_IQo&t=72s
Electro Pneumatics - Exercise 3 - Hopper Control	https://www.youtube.com/watch?v=JcpHK0T2WPg&t=4s
Electro Pneumatics - Exercise 4 - Multi Track Gravity Feed Magazine	https://www.youtube.com/watch?v=0yILEKhCrdI&t=660s
CNC Manual Part Program - Lathe Model 1	https://www.youtube.com/user/annikinni/videos
CNC Manual Part Program - Lathe Model 2	https://www.youtube.com/watch?v=WwMIcGVUK3E&list=PLMJmxkaT2HgFXEtGms2vdAfQChblv6YqM&index=1
CNC Manual Part Program - Lathe Model 3	https://www.youtube.com/watch?v=kHxmz3Mrz2Y&list=PLMJmxkaT2HgFXEtGms2vdAfQChblv6YqM&index=2
CNC Manual Part Program - Lathe Model 4	https://www.youtube.com/watch?v=HGhK1pgWF0E&list=PLMJmxkaT2HgFXEtGms2vdAfQChblv6YqM&index=3
CNC Manual Part Program - Milling Model 1	https://www.youtube.com/watch?v=EM2_APybysA&list=PLMJmxkaT2HgFXEtGms2vdAfQChblv6YqM&index=4
CNC Manual Part Program - Milling Model 2	https://www.youtube.com/watch?v=XCPjyraKpYI&list=PLMJmxkaT2HgFXEtGms2vdAfQChblv6YqM&index=5
Mechatronic Systems - Introduction to Pneumatic Systems - Part 1	https://www.youtube.com/watch?v=iW3umCK_86Q
Mechatronics Systems - Introduction to Pneumatic Systems - Part 2	https://www.youtube.com/watch?v=m0xGxgonCUc
Mechanical Vibrations	https://www.youtube.com/user/annikinni/videos
Industry 4.0 - Data As a New Resource for Organization & Big Data	https://www.youtube.com/watch?v=K3b-urKXdnM&t=678s
Industry 4.0 - Introduction to Resource Based View of a Firm	https://www.youtube.com/watch?v=lMXS0nABtEc&t=383s
Computer Aided Engineering Drawing: Projection of Pyramid	https://youtu.be/dv8JDrlnSiE
Computer Aided Engineering Drawing - Projection of Prisms (Pentagonal Prism)	https://youtu.be/OcNe03YVaq8
Mechanical Vibrations, Finite Element Method	https://www.youtube.com/watch?v=QI_0J5SZmXc&t=23s

2. Project Based learning (Mr. Prashanth N & Dr. Kiran M C)

Project-based learning, spearheaded by Mr. Prashanth N and Kiran M C, involves a hands-on approach to education where students actively engage in designing, developing, and implementing models using Arduino boards and sensors. Through this approach, students acquire practical skills, problem-solving abilities, and a deeper understanding of electronics and programming concepts. This experiential learning methodology encourages collaboration, critical thinking, and creativity as students tackle real- world challenges. By combining theory with practical application, Mr. Prashanth and Kiran provide students with a comprehensive learning experience that prepares them for the demands of the industry while fostering a passion for innovation.

3. Mechanism (by Mr. Anand M N)

Anand M N employs an effective approach to teaching the kinematics of machines by utilizing demonstrative models. As an expert in the field, he understands the challenges students face in comprehending complex mechanical concepts. By incorporating tangible models, Anand provides students with a visual and interactive learning experience. These demonstrative models enable students to grasp the intricate workings of various mechanisms, such as gears, linkages, and cam- follower systems. Through hands-on exploration and observation, students gain a deeper understanding of the principles of kinematics. Anand's innovative teaching methodology not only enhances student engagement but also fosters a practical understanding of the subject, ensuring a solid foundation for future engineering endeavors.

4. Model Based Teaching (Mr. Hemanth Kumar, Dr. Chethan D)

Mr. Hemanth Kumar, an associate professor at NMIT, employs a teaching approach centred around demonstrative models for I.C (Internal Combustion) engines. Recognizing the complexity of this subject, he utilizes physical models and visual aids to enhance student comprehension. By showcasing the intricate workings of IC engines through tangible representations, Hemanth fosters a deeper understanding of the principles and mechanisms involved. This hands-on approach allows students to observe the inner workings, visualize the processes, and gain a practical perspective on engine operations. Hemanth's dedication to providing an immersive learning experience ensures that students grasp the intricacies of IC engines, preparing them for future challenges in the field of mechanical engineering.

Dr. Chethan D, an Assistant Professor at NMIT, employs demonstrative models to enhance the teaching of Engineering Drawing. Through this approach, students are provided with tangible representations of complex concepts, allowing for better visualization and understanding of geometric principles, projections, and technical drawings. Dr. Chethan's innovative use of demonstrative models encourages active learning, engages students in hands-on exploration, and facilitates the development of spatial reasoning skills. By incorporating these models into the classroom, Dr. Chethan fosters a dynamic learning environment that promotes student participation, critical thinking, and application of theoretical knowledge. This pedagogical approach equips students with a solid foundation in Engineering Drawing, preparing them for success in their future engineering endeavors.

5. Simulation based learning (Dr. Praveen and Mr Manoj I V)

The faculty members at NMIT employ an innovative teaching methodology that leverages simulation through ICT, smart boards, and simulation software for subjects like Python programming and ANSYS. By utilizing interactive tools and software, students are immersed in a virtual learning environment that enhances their understanding and practical skills. Through simulations, students can experiment, analyze, and visualize complex concepts, fostering a deeper comprehension of theoretical principles. This approach also encourages active participation, collaboration, and critical thinking among students. The faculty members at NMIT are dedicated to providing an enriching educational experience that prepares students for real-world challenges, equipping them with the necessary skills to excel in their chosen fields.

6. Virtual Lab (Dr. Vijaykumar & Dr. Pradeep Badiger)

Virtual labs are interactive, digital simulations of activities that typically take place in physical laboratory settings. Virtual labs simulate the tools, equipment, tests, and procedures used in chemistry, biochemistry, physics, biology, and other disciplines. NMIT (Nitte Meenakshi Institute of Technology), in association with the Virtual Lab of NITK (National Institute of Technology Karnataka), has been making significant strides in enhancing the teaching-learning process for students of Mechanical Engineering. Spearheading this initiative are Dr. Vijaykumar and Dr. Pradeep Badiger, who provide invaluable guidance and expertise to ensure the successful implementation of this collaboration The Virtual Lab of NITK offers a diverse range of online resources and simulations that simulate real-world experiments and scenarios. Through this partnership, NMIT students gain access to a wide array of virtual experiments, interactive modules, and simulations specifically tailored to the field of Mechanical Engineering. These resources supplement traditional classroom learning, enabling students to apply theoretical concepts to practical situations and deepen their understanding of complex topics.

Dr. Vijaykumar and Dr. Pradeep Badiger, renowned experts in their respective fields, play a crucial role in leveraging the Virtual Lab's capabilities effectively. They guide students in navigating the virtual experiments, provide clarifications, and facilitate discussions to foster critical thinking and problem-solving skills. Their expertise ensures that the students receive the best possible learning experience while utilizing the virtual resources.

By incorporating the Virtual Lab into the curriculum, NMIT empowers students to conduct experiments and explore concepts in a virtual environment, irrespective of constraints such as time, space, or availability of equipment. This approach not only enhances the practical knowledge of students but also prepares them for real-world challenges in the field of Mechanical Engineering.

Overall, the collaboration between NMIT and the Virtual Lab of NITK, under the expert guidance of Dr. Vijaykumar and Dr. Pradeep Badiger, has revolutionized the teaching-learning process for Mechanical Engineering students. It equips them with the necessary skills and knowledge to excel in their academic pursuits and meet the demands of the industry effectively.

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