B.Tech. Mechanical Engineering (Lateral Entry)

Fee Type	Amount
Programme Fees (per Semester)	₹65000
Examination Fees	₹3000
International Fee (USD)	$4300

Slab	>=60% - 74.99%	>=75% - 89.99%	>=90% & Above
Fee	₹60000	₹55000	₹50000

Course Curriculum

3RD SEMESTER SUBJECTS

Provides an understanding of intellectual property concepts, including patents, copyrights, trademarks, and industrial designs, enabling students to protect, manage, and effectively utilize intellectual creations and innovations.

Course Outcome:

CO1: To know International and domestic trends in intellectual property.
CO2: To introduce students to basic concepts of copyrights, patents, Trademarks, geographical indications, trade secrets and designs.
CO3: To learn all intellectual property related legislations developed in India.
CO4: To familiarize students with rights, registration and remedies associated with each regime.

Develops logical reasoning, quantitative aptitude, problem-solving, and critical thinking abilities, enabling students to analyze information, make informed decisions, and solve academic and professional problems effectively.

Course Outcome:

CO1: Apply logical reasoning to understand, interpret and handle different situations
CO2: Interpret and efficiently solve the company specific reasoning test
CO3: Reproduce the concepts learned to solve various questions of quantitative and reasoning aptitude
CO4: Deduce aptitude and reasoning problems using shortcut tricks
CO5: Identify the concepts to solve the problems in given time
CO6: Integrate and apply different quantitative and reasoning strategies in mock test scenarios

Develops an entrepreneurial mindset through opportunity identification, innovative thinking, business model development, resource planning, and problem-solving, enabling students to transform ideas into feasible and sustainable entrepreneurial opportunities.

Course Outcome:

CO1: To understand the principles of entrepreneurship, innovation, and entrepreneurial mindset for identifying potential opportunities.
CO2: To identify and evaluate entrepreneurial opportunities based on market needs, customer requirements, and emerging trends.
CO3: To develop innovative solutions and suitable business models for identified entrepreneurial opportunities.
CO4: To analyze the feasibility of entrepreneurial ideas considering technical, financial, market, and resource requirements.
CO5: To demonstrate entrepreneurial skills through effective communication, teamwork, problem-solving, and presentation of a viable business idea.

Covers the principles and conventions of machine drawing, including sectional views, assembly drawings, and detailed representation of machine components for effective engineering communication.

Course Outcome:

CO1: Understand basic engineering symbols, surface finishes, and dimensioning standards.
CO2: Apply limits, fits, and tolerances to mechanical components.
CO3: Identify and explain common machine elements and their assemblies.
CO4: Use CAD tools for creating and editing technical drawings.
CO5: Prepare and interpret part and assembly drawings.

Focuses on the study of motion of machine elements and mechanisms, including velocity, acceleration, and mechanism analysis, forming a foundation for the analysis and design of mechanical systems.

Course Outcome:

CO1: Explain the fundamentals of mechanisms and machines, including kinematic pairs, chains, and degrees of freedom.
CO2: Analyze velocity and acceleration in mechanisms using graphical and analytical methods.
CO3: Evaluate straight-line and steering mechanisms for motion accuracy and geometry.
CO4: Evaluate belt, rope, and chain drives for velocity ratio, power transmission, and the effects of slip and creep.
CO5: Design cam profiles for various follower motions and explain the operation of brakes and dynamometers.

Offers hands-on experience in studying and analyzing the motion of various mechanisms through practical experiments, enabling students to verify fundamental principles of machine kinematics.

Course Outcome:

CO1: Understand basic mechanical elements such as links, pairs, and mechanisms.
CO2: Analyze the motion of common mechanisms including 4-bar chains, slider-crank, cams, and followers.
CO3: Determine frictional effects and power transmission in mechanical systems.
CO4: Understand and simulate mechanical linkages using CAD tools.
CO5: Evaluate the working and efficiency of mechanical devices and steering mechanisms.

Covers the fundamental concepts and laws of thermodynamics, properties of systems, energy interactions, thermodynamic processes, and cycles with applications to thermal and energy systems.

Course Outcome:

CO1: Explain the fundamentals of thermodynamics, including systems, properties, work, heat, temperature, and the Zeroth Law.
CO2: Apply the First Law of Thermodynamics and determine the properties of pure substances and gases.
CO3: Analyze steady and unsteady flow processes using the First Law of Thermodynamics.
CO4: Apply the Second Law of Thermodynamics to evaluate entropy and thermodynamic processes.
CO5: Analyze availability, exergy, and the performance of basic thermodynamic cycles.

Examines the behavior of engineering materials under different loading conditions, including stress, strain, shear, bending, and torsion, with applications in the safe design of mechanical components.

Course Outcome:

CO1: Explain the concepts of equilibrium, stress, strain, and deformation in engineering members.
CO2: Analyze principal stresses, elastic constants, thermal stresses, and strain relationships.
CO3: Apply torsion theory to determine stresses, angle of twist, and power transmission in circular shafts.
CO4: Construct and interpret shear force and bending moment diagrams for beams under various loading conditions.
CO5: Evaluate stresses in thin pressure vessels and determine the stability of columns using Euler's and Rankine's theories.

Emphasizes experimental determination of material properties and structural behavior under various loading conditions, reinforcing concepts related to stress, strain, bending, torsion, and material strength.

Course Outcome:

CO1: To understand basic different stresses, strains and deflection for designing a simple mechanical element.
CO2: Behaviour of machine elements under various loading conditions
CO3: Analysis of composite beams and shafts
CO4: Understand and apply the concept of stress and strain to analyse and design structural members and machine parts under axial load, bending moment and torsional moment
CO5: Determine the deflections and deformations of loaded flexural members

Explores the structure, properties, selection, and applications of engineering materials, including metals, alloys, polymers, ceramics, and composites, enabling informed material selection for engineering applications.

Course Outcome:

CO1: Understand the concept of mechanical behavior of materials and calculations of same using appropriate equations followed by important mechanical, thermal, electronic and magnetic poperties.
CO2: To analyze the Structure of materials like unit cell, FCC, BCC, HCP, APF (Atomic Packing Factor), Co- ordination Number etc.
CO3: To examine the concept of phase & phase diagram
CO4: To understand and suggest the heat treatment process & types
CO5: To introduce the concept of hardenability & demonstrate the test used to find hardenability of steels.

Provides hands-on exposure to the testing, identification, characterization, and heat treatment of engineering materials, including metals and alloys, enabling students to evaluate material properties and understand their suitability for engineering applications.

Course Outcome:

CO1: Understand the classification and mechanical behavior of engineering materials.
CO2: Examine and interpret microstructures of metals and alloys using metallographic techniques.
CO3: Analyze the iron-carbon equilibrium diagram and its practical applications.
CO4: Evaluate the influence of heat treatment, cooling rates, and carbon content on the hardness and microstructure of steel.
CO5: Understand and construct TTT diagrams and perform hardenability tests to assess steel properties.

4TH SEMESTER SUBJECTS

Course Outcome:

Develops awareness and practical skills for understanding and managing stress, emotions, and personal well-being, enabling students to build emotional resilience, maintain healthy relationships, and adopt effective strategies for personal and professional life.

Course Outcome:

CO1: To understand the concepts of stress, emotional wellness, and their impact on personal and professional well-being.
CO2: To identify common sources, symptoms, and effects of stress and emotional challenges in daily life.
CO3: To apply appropriate techniques for stress management, emotional regulation, relaxation, and maintaining mental well-being.
CO4: To develop effective communication, interpersonal skills, and positive coping strategies for managing challenging situations.
CO5: To demonstrate emotional resilience, self-awareness, and healthy lifestyle practices for achieving overall personal and professional wellness.

Enhances logical reasoning, quantitative aptitude, critical thinking, and analytical abilities through advanced problem-solving and decision-making techniques relevant to academic and professional situations.

Course Outcome:

Develops essential professional skills required for effective performance in academic, organizational, and workplace environments, including communication, teamwork, leadership, problem-solving, time management, and professional conduct, enabling students to enhance their employability and career readiness.

Course Outcome:

CO1: Prepare their résumé on an appropriate template without any grammatical and other errors, using proper syntax
CO2: Participate in a simulated interview
CO3: Actively participate in group discussions towards gainful employment
CO4: Capture a self-interview simulation video regarding the concerned job or role
CO5: Enlist the common errors generally made by candidates in an interview
CO6: Participate in Presentation Skills

Covers advanced mathematical concepts and techniques, including differential equations, transforms, numerical methods, and related topics, supporting their application in engineering analysis and problem-solving.

Course Outcome:

CO1: Understand and apply the basic concepts of probability, including conditional probability to solve real-world problems.
CO2: Analyze discrete and continuous random variables using probability distribution functions such as Binomial, Poisson, and Normal distributions.
CO3: Interpret data using descriptive statistics and graphical methods, and understand measures of central tendency and variability
CO4: Perform correlation and regression analysis to understand relationships between variables and make predictions.
CO5: Apply statistical methods such as sample testing, and confidence intervals to make data-driven decisions.

Focuses on the study of forces and motion in machine components and mechanisms, including balancing, flywheels, governors, gyroscopic effects, and vibrations for effective analysis of dynamic mechanical systems.

Course Outcome:

CO1: Perform static force analysis of mechanisms using free-body diagrams and equilibrium conditions.
CO2: Apply dynamic force analysis to mechanisms using D’Alembert’s principle and evaluate flywheel design.
CO3: Analyze the behavior and performance of governors and gear trains under varying conditions.
CO4: Explain gyroscopic effects and assess their influence on vehicle and machine stability.
CO5: Evaluate methods of balancing rotating and reciprocating masses in mechanical systems.

Examines the application of thermodynamic principles to power and energy systems, including steam and gas power cycles, compressors, turbines, and other thermal engineering devices.

Course Outcome:

CO1: Understand the various types of I.C Engines and Cycles of operation.
CO2: Analyze the effect of various operating variables on engine performance.
CO3: Understand the various types of compressors.
CO4: Explain the basic fundamentals of the various gas turbine cycles.
CO5: Will be able to compare compressors and Turbines & solve problems related to gas turbines

Reinforces thermodynamic concepts through experimental investigation of thermal systems and equipment, enabling students to evaluate performance, efficiency, and operating characteristics of various thermodynamic devices.

Course Outcome:

CO1: Understand the working principles and types of boilers.
CO2: Identify and explain boiler mountings and accessories.
CO3: Comprehend the construction and working of IC engines (Petrol and Diesel).
CO4: Evaluate engine performance parameters using standard tests.
CO5: Understand the working of air compressors and their applications.

Extends the study of material behavior under complex loading conditions, covering advanced bending, columns, strain energy, and failure theories for the analysis and design of mechanical components.

Course Outcome:

CO1: Understand and apply concepts of strain energy and related theorems in mechanical systems.
CO2: Analyze mechanical components using theories of failure and spring mechanics.
CO3: Calculate stresses and strains in thick cylinders under internal pressure using Lame’s equations.
CO4: Apply bending stress theory to various beam sections and composite beams.
CO5: Determine slope, deflection, and bending stresses in beams and curved members using analytical methods.

Introduces conventional manufacturing processes and techniques, including casting, forming, machining, and related operations, with emphasis on process selection, machine tools, and production of engineering components.

Course Outcome:

CO1: Explain casting processes, mould design, solidification principles, and casting defects.
CO2: Describe welding, brazing, and soldering processes and evaluate their applications.
CO3: Explain metal cutting principles and the construction and operation of machine tools.
CO4: Analyze metal forming processes and identify common defects and applications.
CO5: Explain sheet metal working, gear manufacturing, powder metallurgy, and modern manufacturing technologies.

Develops practical skills in manufacturing processes through hands-on experiments and machining operations, enabling students to understand process parameters, machine tools, and the production of engineering components.

Course Outcome:

CO1: Prepare moulds, cores, and patterns for simple casting applications.
CO2: Perform basic welding operations and produce different types of welded joints.
CO3: Carry out basic machining operations using conventional machine tools.
CO4: Fabricate simple products using sheet metal working processes.
CO5: Perform basic forging operations and demonstrate practical understanding of manufacturing processes and workshop practices.

Encourages students to develop basic proficiency in an Indian or foreign language while enhancing communication skills, cultural awareness, and interaction in diverse environments.

Course Outcome:

CO1: Develop basic proficiency in the selected language.
CO2: Communicate effectively using the selected language.

5TH SEMESTER SUBJECTS

Course Outcome:

Introduces the fundamental principles and practices of management, including planning, organizing, staffing, directing, coordination, and controlling, enabling students to understand managerial functions and apply management concepts in organizational and professional environments.

Course Outcome:

CO1: To understand the fundamental concepts, principles, functions, and approaches of management.
CO2: To analyze the principles of planning, decision-making, and organizing in different organizational situations.
CO3: To understand and apply the principles of staffing, directing, leadership, motivation, and communication for effective management.
CO4: To analyze the principles of coordination and controlling and evaluate their role in achieving organizational objectives.
CO5: To apply management principles and practices to solve organizational and managerial problems in professional environments.

Assesses students’ practical exposure and learning gained during industrial training, emphasizing the application of engineering knowledge, workplace practices, professional skills, and industrial processes.

Course Outcome:

CO1: Understand industrial practices, processes, and safety procedures.
CO2: Apply mechanical engineering concepts to industrial operations.
CO3: Analyze machines, manufacturing processes, and practical problems.
CO4: Develop professional, teamwork, and communication skills.
CO5: Document and present the knowledge gained during industrial training.

Covers the fundamental principles of fluid mechanics and their application to hydraulic and fluid machinery, including pumps, turbines, and other systems used for fluid flow and energy conversion.

Course Outcome:

CO1: Gain the knowledge about the importance of various fluid properties at rest and in transit.
CO2: Derive and execute general governing equations for various fluid flows.
CO3: To Understand the concept of boundary layer theory and flow separation.
CO4: Learn how to plot velocity and pressure profiles for any given fluid flow.
CO5: Evaluate the performance characteristics of hydraulic turbines and pumps.

Develops practical understanding of fluid flow and hydraulic machinery through experiments, enabling students to determine performance characteristics, efficiency, and operating parameters of various fluid systems and machines.

Course Outcome:

CO1: Understand and determine the meta-centric height of floating vessels under loaded and unloaded conditions.
CO2: Analyze flow through variable area ducts and verify Bernoulli’s energy equation experimentally.
CO3: Determine the coefficient of discharge and hydraulic coefficients for various flow measuring devices like Venturimeter, Orificemeter, notches, and weirs.
CO4: Evaluate friction factors and head losses in pipelines due to sudden expansions, contractions, and bends.
CO5: Analyze and determine the performance characteristics and efficiencies of hydraulic machines including turbines, pumps, hydraulic ram, and fans/blowers.

Explores the fundamental principles and mechanisms of heat transfer, including conduction, convection, and radiation, along with heat exchangers and thermal systems, enabling students to analyze and evaluate heat transfer processes in engineering applications.

Course Outcome:

CO1: To understand the fundamental concepts and modes of heat transfer and perform calculations using appropriate heat transfer equations.
CO2: To analyze steady-state and transient heat conduction through different geometries and materials.
CO3: To examine the principles of convection heat transfer and evaluate heat transfer rates under different flow conditions.
CO4: To understand the principles of thermal radiation and analyze radiative heat transfer between engineering surfaces.
CO5: To analyze the performance of heat exchangers and apply appropriate heat transfer principles to engineering applications.

Provides hands-on experience in investigating conduction, convection, radiation, and heat exchanger performance through laboratory experiments, enabling students to determine thermal parameters, validate theoretical concepts, and analyze practical heat transfer systems.

Course Outcome:

CO1: To understand and perform experiments for determining heat transfer characteristics using appropriate experimental methods and calculations.
CO2: To investigate the characteristics of heat conduction through different materials and geometries.
CO3: To examine convective heat transfer under different flow conditions and determine relevant heat transfer parameters.
CO4: To analyze radiative heat transfer and determine the effect of surface characteristics on heat transfer.
CO5: To evaluate the performance of heat exchangers and correlate experimental results with theoretical principles.

Covers the principles of measurement, accuracy, precision, limits, fits, and inspection techniques, along with instrumentation used for measuring physical quantities in engineering applications.

Course Outcome:

CO1: Students will be able to design tolerances and fits for selected product quality.
CO2: They can choose appropriate method and instruments for inspection of various gear elements and thread elements.
CO3: They can understand the standards of length, angles, they can understand the evaluation of surface finish and measure the parts with various comparators.
CO4: The quality of the machine tool with alignment test can also be evaluated by them.
CO5: Estimate machining times for machining operations on machine tools

Provides hands-on experience with precision measuring instruments and inspection techniques, enabling students to perform dimensional measurements, assess measurement errors, and evaluate the accuracy of engineering components.

Course Outcome:

CO1: Demonstrate the use of instruments for measuring linear (internal and external), angular dimensions and surface roughness.
CO2: Perform alignment tests on various machine tools.
CO3: Demonstrate the use of instruments for measuring pressure, flow, speed, displacement and temperature.
CO4: Calibrate the Bourdon tube pressure gauge
CO5: To measure gear tooth profile using gear tooth vernier

Introduces mathematical and analytical techniques for solving complex engineering and management problems, including linear programming, transportation, assignment, sequencing, and optimization methods for effective decision-making.

Course Outcome:

CO1: Understand the theoretical workings of the simplex method, the relationship between a linear program and its dual, including strong duality and complementary slackness.
CO2: Perform sensitivity analysis to determine the direction and magnitude of change of a model’s optimal solution as the data change.
CO3: Solve specialized linear programming problems like the transportation and assignment problems, solve network models like the shortest path, minimum spanning tree, and maximum flow problems.
CO4: Be able to solve simple problems of replacement and implement practical cases of decision making under different business environments.
CO5: To able to design and solve simple models of CPM and queuing to improve decision making and develop critical thinking and objective analysis of decision problems.

This course covers the principles, working and applications of non-traditional machining processes used for machining difficult materials and complex shapes. It includes EDM, ECM, USM, AJM, WJM and other advanced machining techniques.

Course Outcome:

CO1: Understand the classification and basic principles of advanced machining, with a focus on ultrasonic machining and its analysis.
CO2: Analyze abrasive and jet-based machining processes and model advanced finishing techniques like MAF, AFF, and MRAFF.
CO3: Evaluate EDM and its variants including EDG, EDDG, W-EDM, and beam-based machining processes like LBM, PAM, and EBM.
CO4: Understand and model electrochemical and chemical machining processes including ECM, ECG, ESD, STEM, and ChM.
CO5: Comprehend material addition processes and evaluate their application in modern manufacturing systems such as 3D printing and LIGA.

This course covers the basic electrical systems used in automobiles, including batteries, starting, charging, ignition, lighting and wiring systems. It also introduces electrical components, sensors, actuators and basic troubleshooting techniques.

Course Outcome:

CO1: Enumerate the construction, characteristics and maintenance of battery, lighting system and different accessories in a typical automobile after careful inspection
CO2: Explain the construction, characteristics and maintenance of starting and ignition system and diagnose the ignition system fault of any vehicle.
CO3: List out the principles and characteristics of charging system components and demonstrate their working with suitable tools.
CO4: Describe the principles and architecture of electronics systems and its components present in an automobile related to instrumentation, control, security and warning systems.
CO5: Enumerate the principles, application, construction and specification of different sensors and actuators usable in typical automobile by suitable testing.

This course introduces the fundamentals of measurement, sensors, transducers and instrumentation systems. It covers measurement errors, calibration and sensors for temperature, pressure, displacement, force, speed and other physical quantities.

Course Outcome:

CO1: Apply the use of sensors for measurement of displacement, force and pressure
CO2: Employ commonly used sensors in industry for measurement of temperature, position, accelerometer, vibration sensor, flow and level.
CO3: Demonstrate the use of virtual instrumentation in automation industries
CO4: Identify and use data acquisition methods.
CO5: Comprehend intelligent instrumentation in industrial automation

This course introduces the basic concepts, components and working of electric vehicles. It covers EV architecture, electric motors, batteries, battery management systems, charging systems, power electronics and regenerative braking.

Course Outcome:

CO1: Explain the basic concepts, architecture and major components of electric vehicles.
CO2: Analyze the operating principles and characteristics of electric motors used in electric vehicles.
CO3: Evaluate different battery technologies and battery management systems used in electric vehicles.
CO4: Analyze electric vehicle charging systems and power electronic components.
CO5: Assess the working and benefits of regenerative braking and other energy-efficient technologies in electric vehicles.

This course introduces the principles and techniques used for improving productivity and efficiency in industrial systems. It covers work study, method study, time study, plant layout, production planning, inventory control and quality management.

Course Outcome:

CO1: To develop student to be a self-employed by getting knowledge of management techniques.
CO2: Student will demonstrate Commitment to quality, timeliness, and continuous improvement in production rate in manufacturing sector
CO3: Students also show the ability to formulate, conduct, analyze and interpret experiments and apply experimental results to improve processes in industry
CO4: Students will be able to implement the concepts they learned, during Industrial In-Plant Training
CO5: Students will have overview of Production Planning section, Industrial Engineering Department, Shop floor, Assembly lines etc.

This course covers the construction, working and major systems of automotive engines. It includes fuel supply, air intake, cooling, lubrication, ignition, exhaust and emission control systems, along with basic engine diagnostics and maintenance.

Course Outcome:

CO1: Acquire fundamental knowledge of the various systems of an automobile.
CO2: Associate the functions of each system with its design and layout, depict the various systems using simple schematics, and apply concepts.
CO3: Learn the core undergraduate courses to synthesize mathematical models of the various systems.
CO4: Performance analyzation in order to calculate the efficiencies of various engines.
CO5: Understand the stages of combustion in S.I. engine to reduce knocking.

This course introduces the fundamentals of microcontrollers and Programmable Logic Controllers used in automation and control systems. It covers architecture, programming, input/output interfacing, timers, counters and basic industrial automation applications.

Course Outcome:

CO1: The students will learn the basics of microcontroller
CO2: The students will learn the programming in microcontroller
CO3: The students will learn the different applications of microcontroller
CO4: The students will learn about the design of systems using Programmable Logic Controllers
CO5: The students will learn about the different applications of Programmable Logic Controllers.

This course provides an understanding of different types of disasters, their causes, risks and impacts. It covers disaster preparedness, risk assessment, mitigation, emergency response, recovery and strategies for building disaster-resilient communities.

Course Outcome:

CO1: Explain the basic concepts, types, causes and impacts of disasters.
CO2: Analyze disaster risks, hazards and vulnerabilities in different situations.
CO3: Apply appropriate strategies for disaster preparedness and risk reduction.
CO4: Evaluate emergency response and recovery measures for different disasters.
CO5: Develop strategies for building resilient and sustainable communities against disasters.

6TH SEMESTER SUBJECTS

Develops the skills required for effective technical communication through structured writing, documentation, report preparation, research communication, and professional presentation, enabling students to communicate technical information clearly, accurately, and effectively in academic and professional environments.

Course Outcome:

CO1: To understand the principles, structure, and conventions of technical writing and professional communication.
CO2: To analyze and organize technical information from appropriate sources for effective written communication.
CO3: To prepare technical documents, reports, proposals, and other professional documents using appropriate formats and language.
CO4: To apply appropriate methods of editing, proofreading, referencing, and presentation to improve the quality and clarity of technical documents.
CO5: To demonstrate effective technical communication skills through written reports, presentations, and other professional communication activities.

Covers the fundamental principles of heat transfer and refrigeration, including conduction, convection, radiation, refrigeration cycles, refrigerants, and refrigeration systems used in thermal engineering applications.

Course Outcome:

CO1: Understand basic heat transfer modes and analyze steady-state conduction through materials.
CO2: Explain convection heat transfer and analyze heat exchanger performance.
CO3: Apply radiation heat transfer principles and use psychrometric charts for air-conditioning processes.
CO4: Understand refrigeration and heat pump cycles and evaluate their performance.
CO5: Identify air-conditioning systems and analyze heat gains for designing comfort systems.

Develops practical understanding of heat transfer and refrigeration systems through experiments, enabling students to determine thermal performance, heat transfer characteristics, and operating parameters of various systems.

Course Outcome:

CO1: Predict the thermal conductivity of solids and liquids
CO2: Estimate the heat transfer coefficient values of various fluids
CO3: Analyze the performance of extended surfaces and evaluate heat dissipation through fins and emissive surfaces
CO4: Acquire the knowledge about the basic components of refrigeration system and calculate its performance with different configurations
CO5: Acquire the knowledge about the basic components of air conditioning and investigate the effect of psychometric processes on the performance of air conditioners

Focuses on the principles and methods used in the design of machine components subjected to different loading conditions, emphasizing strength, safety, reliability, and selection of appropriate materials and dimensions.

Course Outcome:

CO1: Explain fundamentals of machine design, material selection, and failure theories including fatigue and fracture.
CO2: Analyze and design riveted, welded, and bolted joints for strength and efficiency under different loading conditions.
CO3: Design keys, splines, couplings, cotter, and knuckle joints considering various stresses and failure modes.
CO4: Design shafts subjected to torsion, bending, and combined loading with strength and safety considerations.
CO5: Design levers & pipe joints by applying stress analysis and mechanical design principles.

Introduces systematic approaches to conducting research, including research design, literature review, data collection, analysis, interpretation, technical writing, and ethical practices in engineering research.

Course Outcome:

CO1: Explain the fundamentals, types, and process of research methodology.
CO2: Conduct literature reviews and formulate research problems and objectives.
CO3: Apply modeling, experimental methods, and design of experiments in research.
CO4: Analyze research data using statistical methods and interpret results.
CO5: Demonstrate ethical research practices and communicate research findings through technical reports and presentations.

This course covers the fundamentals of automobiles, including vehicle construction, engine systems, chassis, steering, suspension, braking and electrical systems. It also introduces modern automotive technologies, safety features and emission control systems.

Course Outcome:

CO1: To Identify the different parts of the automobile
CO2: To understand the working of various parts like engine, transmission, clutch, brakes
CO3: Gain the knowledge about how the steering and the suspension systems operate
CO4: To develop a strong base for understanding future developments in the automobile industry
CO5: Learn about the electric and electronic system of the vehicle.

This laboratory provides practical exposure to automobile components and systems. Students perform experiments and demonstrations related to engine components, transmission, braking, steering, suspension, electrical systems and basic vehicle maintenance.

Course Outcome:

CO1: Understand the construction and function of key automobile systems like chassis, engine, and transmission.
CO2: Explain the working of fuel supply and ignition systems in vehicles.
CO3: Analyze suspension, differential, clutch, brake, and drive systems.
CO4: Identify and test automotive electrical components like batteries and starters.
CO5: Develop skills to troubleshoot gearboxes, shafts, and other mechanical parts.

This course covers the principles and components of automotive HVAC systems. It includes refrigeration cycles, compressors, condensers, evaporators, expansion devices, ventilation, temperature control and servicing of vehicle air-conditioning systems.

Course Outcome:

CO1: To address the underlying concepts and methods behind Automotive air conditioning.
CO2: To present a problem oriented in depth knowledge of Automotive air conditioning.
CO3: Identify different components of Automobile air conditioning
CO4: Understanding various refrigerators and their properties
CO5: Learning about maintenance and servicing of air conditioners

This laboratory provides practical knowledge of automotive HVAC components and systems. Students perform experiments related to refrigeration cycles, system operation, pressure measurement, temperature control, fault diagnosis and servicing.

Course Outcome:

CO1: To address the underlying concepts and methods behind Automotive air conditioning.
CO2: To present a problem oriented in depth knowledge of Automotive air conditioning.
CO3: Identify different components of Automobile air conditioning
CO4: Understanding various refrigerants and their properties
CO5: Learning about maintenance and servicing of air conditioners

This course introduces the fundamentals of robotics, including robot components, configurations, coordinate systems, actuators, sensors and end-effectors. It also covers basic robot kinematics, programming and industrial applications.

Course Outcome:

CO1: Ability to understand basic concept of robotics.
CO2: To analyze Instrumentation systems and their applications to various
CO3: To know about the differential motion add statics in robotics
CO4: To know about the various path planning techniques.
CO5: To know about the dynamics and control in robotics industries.

This laboratory provides hands-on experience with basic robotic systems. Students learn robot programming, movement control, sensor interfacing, end-effector operation and simple industrial robotic applications.

Course Outcome:

CO1: Determine and analyze robot link positions and movements.
CO2: Verify position and orientation using coordinate transformations.
CO3: Assess accuracy, repeatability, and resolution of robot tasks.
CO4: Program and simulate robots for tasks like pick-and-place and identification.
CO5: Develop multi-process robot programs for industrial automation.

This course covers the principles of electric drives used for industrial motion control. It includes electric motors, power electronic converters, speed control, braking, starting methods and selection of drives for various applications.

Course Outcome:

CO1: Explain the principles and components of electric drives used for industrial applications.
CO2: Analyze the characteristics and performance of electric motors used in drive systems.
CO3: Analyze power electronic converters used for controlling electric drives.
CO4: Apply suitable starting, speed control and braking methods for electric motors.
CO5: Select appropriate electric drives for different industrial applications.

This laboratory provides practical experience with electric motors and drive control systems. Students perform experiments on motor starting, speed control, braking, characteristics and basic drive control techniques.

Course Outcome:

CO1: Identify and explain the components of electric drive systems.
CO2: Determine the performance characteristics of different electric motors.
CO3: Demonstrate different motor starting and speed control techniques.
CO4: Perform experiments on electrical braking methods for motors.
CO5: Analyze experimental results and select suitable drives for industrial applications.

This course covers the integration of robotics with industrial automation systems. It includes robotic manipulators, sensors, actuators, programming, automated material handling and applications of robotics in modern manufacturing.

Course Outcome:

CO1: To understand the fundamentals of robotics and its components
CO2: To illustrate the Kinematics and Dynamics of robotics
CO3: To elucidate the need and implementation of related Instrumentation & control in robotics
CO4: To illustrate the movement of robotic joints with computers/microcontrollers
CO5: To examine sensors and instrumentation in robotics

This laboratory provides practical exposure to robots and automated systems. Students develop and implement basic robotic programs, sensor-based operations, material handling tasks and automated manufacturing applications.

Course Outcome:

CO1: Understand the structure, configuration, and working of industrial robotic arms and end effectors.
CO2: Identify and explain the operation of hydraulic and pneumatic valves used in automation.
CO3: Apply knowledge to design and control motion using pneumatic systems, including direction and pressure control valves.
CO4: Design and assemble various pneumatic circuits for motion control, clamping, and sequencing operations.
CO5: Analyze and troubleshoot basic pneumatic and hydraulic automation circuits used in robotics and industrial systems.

This course covers the principles, construction and operation of automotive transmission systems. It includes clutches, manual and automatic transmissions, gearboxes, differentials, drive shafts and modern transmission technologies.

Course Outcome:

CO1: Understand the basics of vehicle transmission systems, types of drives, and components like clutches and gearboxes.
CO2: Analyze the design, operation, and types of clutches and gearboxes including synchronizing mechanisms.
CO3: Explain gear ratios, gear shifting mechanisms, and power modes in vehicle gearboxes.
CO4: Understand the principles, construction, and performance of hydrodynamic, hydrostatic, and electric drives.
CO5: Describe automatic transmission systems, their components, and electronic control applications.

This laboratory provides practical knowledge of automotive transmission components and systems. Students study, dismantle and assemble transmission components and perform basic inspection, maintenance and troubleshooting activities.

Course Outcome:

CO1: Analyze layouts of various transmission systems including front, rear, and four-wheel drives.
CO2: Diagnose faults in different types of friction clutches.
CO3: Understand and study the layouts of manual and two-wheeler gearboxes and transaxles.
CO4: Perform troubleshooting and fault diagnosis for manual and automatic gearboxes, including two-wheelers.
CO5: Evaluate automatic gearbox gear shifting controls and overall performance.

This course introduces the design and development of automated industrial systems. It covers system components, sensors, actuators, control systems, sequence control, PLC-based automation and basic automation system design principles.

Course Outcome:

CO1: Knowledge of industrial automation by transfer lines and automated assembly lines
CO2: Ability to design an automated system
CO3: Ability to design an automated system
CO4: Ability to design an automated system
CO5: To understand advancement in hydraulics and pneumatics systems

This laboratory provides practical experience in designing and implementing automation systems. Students work with sensors, actuators, PLCs and control devices to develop and test basic automated processes.

Course Outcome:

CO1: Able to design and layout multiple actuator systems with start shop and emergency modules
CO2: Able to develop Ladder logic for electro-pneumatic actuator systems.
CO3: Acquiring skill of interfacing sensors like LVDT, ultrasonic and touch sensors.
CO4: Ability to develop control system for stepper motors.
CO5: Ability to design Microcontroller kit with stepper motor and drive circuit using LABVIEW software

This course covers energy storage technologies with emphasis on batteries used in electric vehicles and energy systems. It includes battery types, charging and discharging, battery characteristics, thermal management and battery management system functions.

Course Outcome:

CO1: Explain different energy storage technologies and battery types used in electric vehicles and energy systems.
CO2: Analyze the charging, discharging and performance characteristics of batteries.
CO3: Evaluate battery parameters and state of charge for energy storage applications.
CO4: Explain thermal management and cell balancing techniques used in battery systems.
CO5: Analyze the functions and operation of battery management systems.

This laboratory provides practical exposure to batteries and battery management systems. Students perform experiments related to battery characteristics, charging, discharging, state of charge, cell balancing and basic BMS monitoring and control.

Course Outcome:

CO1: Identify and explain the components and parameters of battery systems.
CO2: Determine battery characteristics during charging and discharging.
CO3: Measure and estimate the state of charge of batteries.
CO4: Demonstrate cell balancing and basic battery management techniques.
CO5: Analyze battery performance and BMS monitoring results.

Enhances professional competencies through development of communication, teamwork, leadership, interpersonal skills, workplace ethics, and career readiness for successful professional engagement.

Course Outcome:

CO1: Understand professional ethics and workplace responsibilities.
CO2: Develop effective communication and interpersonal skills.
CO3: Apply teamwork and leadership skills in professional situations.
CO4: Demonstrate problem-solving and decision-making skills.
CO5: Develop confidence and professional attitude for career growth.

7TH SEMESTER SUBJECTS

Examines the fundamentals of dynamic systems, mechanical vibrations, vibration analysis, and control techniques, enabling students to understand and manage dynamic behavior in mechanical and engineering systems.

Course Outcome:

CO1: Explain the fundamentals of mechanical vibrations and analyze free vibration of single degree of freedom systems.
CO2: Analyze damped vibration systems and evaluate their dynamic response.
CO3: Analyze forced vibration systems and apply vibration isolation principles to engineering problems.
CO4: Explain vibration measurement techniques and analyze two degree of freedom vibration systems.
CO5: Apply vibration principles to continuous systems and practical engineering applications.

Provides hands-on experience in the study and analysis of mechanical vibration systems through laboratory experiments, enabling students to determine vibration characteristics, evaluate dynamic responses, and understand the practical application of vibration measurement, damping, resonance, and isolation techniques.

Course Outcome:

CO1: To understand and experimentally determine the characteristics of single degree of freedom (D.O.F.) systems under free and damped vibrations.
CO2: To analyze experimentally the response of single and two degree of freedom (D.O.F.) systems under free and forced vibrations.
CO3: To investigate vibration control and isolation techniques and evaluate their effectiveness in reducing vibration to acceptable levels.
CO4: To understand and experimentally determine transverse, longitudinal, and torsional vibration characteristics of beams, bars, and shafts respectively.
CO5: To determine and analyze the principal modes of vibration for different spring-mass and rotor-shaft systems using appropriate experimental methods.

Covers the principles, techniques, and practices of total quality management, including quality planning, assurance, control, continuous improvement, and customer-focused approaches for achieving organizational excellence.

Course Outcome:

CO1: Evaluate the principles of quality management and to explain how these principles can be applied within quality management systems
CO2: Identify the key aspects of the quality improvement cycle and to select and use appropriate tools and techniques for controlling, improving and measuring quality
CO3: Critically appraise the organisational, communication and teamwork requirements for effective quality management
CO4: Critically analyse the strategic issues in quality management, current issues & developments
CO5: To devise and evaluate quality implementation plans

Integrates computer-based techniques for product design and manufacturing, covering CAD modeling, design analysis, process planning, and computer-aided manufacturing for efficient and modern production systems.

Course Outcome:

CO1: Explain the fundamentals of CAD, graphics systems, and geometric modeling.
CO2: Apply geometric transformations and surface representation techniques in CAD.
CO3: Develop geometric models using various modeling and curve representation techniques.
CO4: Prepare and analyze NC/CNC programs for manufacturing applications.
CO5: Explain and apply Group Technology, CAPP, and Flexible Manufacturing Systems in manufacturing.

Develops practical skills in computer-aided design and manufacturing through hands-on exercises involving CAD modeling, engineering drawings, design applications, and manufacturing-related software tools.

Course Outcome:

CO1: Create 2D sketches and 3D solid models using CAD software.
CO2: Develop engineering component models and assembly drawings using CAD tools.
CO3: Apply weldment, sheet metal, and surface modeling techniques for product development.
CO4: Generate engineering drawings, rendered models, and manufacturing documentation.
CO5: Prepare NC programs and perform CAM simulation for manufacturing

Provides students with an opportunity to identify and define an engineering problem, review relevant literature, develop suitable objectives and methodology, and initiate the design and development of a project, enabling them to apply engineering knowledge and problem-solving skills to real-world applications.

Course Outcome:

CO1: To identify and formulate a relevant engineering problem based on technical requirements and practical needs.
CO2: To conduct literature review and analyze existing methods, technologies, and solutions related to the selected project.
CO3: To develop project objectives, methodology, specifications, and work plan using appropriate engineering principles and tools.
CO4: To design and develop a suitable conceptual solution and evaluate its technical feasibility.
CO5: To document and present the project work effectively using appropriate technical communication methods.

This course introduces the principles and applications of non-destructive testing methods used for detecting defects without damaging components. It covers methods such as visual inspection, liquid penetrant, magnetic particle, ultrasonic and radiographic testing.

Course Outcome:

CO1: Explain the principles, classification, and applications of non-destructive testing methods.
CO2: Apply liquid penetrant and magnetic particle testing techniques for surface defect detection.
CO3: Explain the principles and applications of radiographic testing for inspection of engineering materials and welded joints.
CO4: Analyze engineering components using ultrasonic and eddy current testing methods.
CO5: Demonstrate knowledge of advanced NDT techniques and their applications in industrial quality assurance and condition monitoring.

This course covers the construction, components and functions of automotive chassis systems. It includes frame, steering, suspension, braking, wheels and tyres, along with modern chassis technologies and maintenance aspects.

Course Outcome:

CO1: Explain the construction and functions of major automotive chassis components.
CO2: Analyze the working principles of steering and suspension systems.
CO3: Analyze the construction and performance of automotive braking systems.
CO4: Evaluate the characteristics of wheels, tyres and chassis components.
CO5: Select suitable chassis systems and maintenance practices for different automotive applications.

This course introduces MATLAB as a tool for engineering computation, analysis and simulation. It covers basic programming, mathematical operations, data visualization, functions and applications to solve engineering problems.

Course Outcome:

CO1: Understand the MATLAB environment, basic commands, and file types to perform elementary mathematical and plotting operations.
CO2: Develop MATLAB programs using matrices, vectors, operators, and functions for mathematical computing.
CO3: Apply MATLAB tools to solve problems in linear algebra, including systems of equations, eigenvalues, and curve fitting.
CO4: Use MATLAB for data analysis, statistics, and interpolation to evaluate and visualize datasets.
CO5: Create and modify 2D and 3D graphical visualizations for effective data presentation using MATLAB.

This course introduces the fundamentals of MEMS and embedded systems used in modern engineering applications. It covers MEMS sensors and actuators, embedded system architecture, microcontrollers, interfacing and basic real-time applications.

Course Outcome:

CO1: Explain the fundamentals and applications of MEMS and embedded systems.
CO2: Analyze the working principles of MEMS sensors and actuators.
CO3: Explain the architecture and functions of microcontrollers used in embedded systems.
CO4: Apply interfacing techniques for sensors, actuators and other embedded system components.
CO5: Develop basic embedded system solutions for real-time engineering applications.

This course covers the integration of mechanical, electrical, electronic and computer-based systems for modern engineering applications. It includes sensors, actuators, control systems, microcontrollers, PLCs and automation.

Course Outcome:

CO1: Explain the fundamentals, elements, and applications of mechatronic systems.
CO2: Select and apply appropriate sensors and transducers for engineering applications.
CO3: Analyze signal conditioning and data acquisition systems used in mechatronics.
CO4: Explain the operation of pneumatic, hydraulic, and electrical actuation systems.
CO5: Apply microcontroller-based control systems for basic mechatronic applications.

This course covers the design, construction and materials used in automotive vehicle bodies. It also introduces vehicle safety systems, crashworthiness, occupant protection, active and passive safety features and safety standards.

Course Outcome:

CO1: Understand the constructional features, types, and safety aspects of various car bodies and their components.
CO2: Explain the types, layouts, materials, and safety considerations of bus bodies in relation to usage and regulations.
CO3: Analyze the structure and design requirements of commercial vehicle bodies and driver cabins with respect to standards.
CO4: Evaluate the aerodynamic characteristics of vehicles, effects of external forces, and techniques to reduce drag using wind tunnel testing.
CO5: Demonstrate knowledge of automotive body materials, tools, repair techniques, corrosion protection, and painting methods.

This course introduces the principles of machine vision for automated inspection and identification of objects. It covers image acquisition, image processing, feature extraction, pattern recognition and industrial applications of vision systems.

Course Outcome:

CO1: Understand the fundamentals of vision systems and their components in robot vision.
CO2: Apply image processing and vision algorithms for enhancement and segmentation of visual data.
CO3: Analyze and interpret camera image models including geometry and calibration parameters.
CO4: Evaluate and implement techniques for object recognition using various views and depth data.
CO5: Demonstrate knowledge of integrating vision systems with robotic platforms using ROS and OpenCV.

This course introduces the application of Internet of Things technologies in modern automobiles. It covers connected vehicles, sensors, data communication, vehicle monitoring, predictive maintenance, telematics and smart automotive systems.

Course Outcome:

CO1: Explain the fundamentals of IoT and its applications in the automotive industry.
CO2: Analyze the role of sensors and communication technologies in connected vehicles.
CO3: Apply IoT technologies for vehicle monitoring and data collection.
CO4: Evaluate IoT-based solutions for predictive maintenance and vehicle diagnostics.
CO5: Develop basic IoT-based solutions for smart and connected automotive systems.

Enhances professional competencies through development of communication, teamwork, leadership, interpersonal skills, workplace ethics, and career readiness for successful professional engagement.

Course Outcome:

8TH SEMESTER SUBJECTS

Provides practical exposure to industrial operations, processes, and workplace practices, enabling students to apply engineering knowledge in real-world settings and develop professional, technical, and problem-solving skills.

Course Outcome:

Supervised training work in a cooperating agency or business

Enables students to undertake an independent research study involving problem identification, literature review, methodology development, experimentation or analysis, and interpretation of results to develop research and technical skills.

Course Outcome:

To enable students to undertake an engineering project or research work by applying fundamental mechanical engineering principles, modern tools, and analytical techniques to solve practical problems and effectively present the outcomes through a dissertation and viva voce.

Admissions Open 2026-27

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Course Curriculum

3RD SEMESTER SUBJECTS

Intellectual Property Rights

Analytical Skills - I

Entrepreneurship Mindset – III

Machine Drawing

Kinematics of Machines

Kinematics of Machines Lab

Elements of Thermodynamics

Strength of Materials-I

Strength of Material-I Lab

Engineering Materials

Engineering Materials Lab

4TH SEMESTER SUBJECTS

Entrepreneurship Mindset – IV

Stress Management and Emotional Wellness

Analytical Skills - II

Professional Skills

Engineering Mathematics- III

Dynamics of Machines

Applied Thermodynamics

Applied Thermodynamics Lab

Strength of Materials-II

Manufacturing Technology

Manufacturing Technology Lab

Learn One More-Bharatiya Bhasha / Foreign Languages

5TH SEMESTER SUBJECTS

Entrepreneurship Mindset- V

Principles of Management

Industrial Training-I Evaluation

Fluid Mechanics and Machinery

Fluid Mechanics and Machinery Lab

Heat Transfer

Heat Transfer Lab

Metrology and Instrumentation

Metrology and Instrumentation Lab

Operation Research

Non-Traditional Machining

Automotive Electrical System

Sensors and Instrumentation

Fundamentals of Electric Vehicle

Industrial Engineering

Automotive Engine Systems

Microcontrollers and PLC

Disaster Risk Reduction and Management

6TH SEMESTER SUBJECTS

Technical Writing

Admissions
Open 2026-27

Industry-oriented
learning

Modern campus
facilities

Academic excellence &
mentorship

Global opportunities &
placements