Mechanical Engineering

The R.V.Parankar College of Engineering And Technology also offers Full time Graduate Program in Mechanical Engineering creates a community of top-notch scholars by bringing together faculty members which will establish graduate students with a common interest in innovation, creativity, and advanced professional study. Through the curriculum, our department strives to prepare our undergraduate students for careers in traditional Mechanical Engineering fields as well as careers in cross-disciplined areas in academia and industry.

We also pride ourselves on our faculty’s who guide to each student at exam as well as industry point of view ; Thermal and Fluid Sciences, Materials and Manufacturing, Mechanics and Systems and Controls.
The best way to learn more about Mechanical Engineering at Texas A&M is

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VISION

The Mechanical Engineering Department endeavors to be recognized globally for outstanding education and research leading to well qualified engineers, who are innovative, entrepreneurial and successful in advanced fields of mechanical engineering to cater the ever changing industrial demands and social needs.

MISSION

The mission of the Department of Mechanical Engineering is to serve the students of Texas A&M University, the State of Texas, and the nation by:

• Providing quality education that is well-grounded in the fundamental principles of engineering, fostering innovation, and preparing students for leadership positions and successful careers in industry, government and academia.
• Advancing the knowledge base of mechanical engineering to support the competitiveness of existing industry and to spawn new economic development in Texas and the nation through active involvement in basic and applied research in a global context.
• Providing professional development opportunities for practicing engineers through continuing education, service, and outreach activities.

Our Lab:
Fluid Machine Lab:

Mechanical Engineering (CBCS)
THIRD SEMESTER (CBCS)
  Applied Mathematics- III (BTME301T)
CO1 Apply Laplace Transform to solve ordinary differential equations, Integral equations and

Integro-differential Equations

CO2 Apply Fourier series in the analysis of periodic functions in terms sine and cosine encountered in engineering problems and Fourier Transform to solve integral equations.
CO3 Learn the concept of differentiating, integrating and expanding of analytic functions in complex numbers and their applications such as evaluation of integrals of complex functions
CO4 Solve partial differential equations of first order, higher order with constant coefficients and of second order using method of separation of variables.
CO5 Analyze real world scenarios to recognize when matrices are appropriate, formulate problems about the scenarios, and creatively model these scenarios in order to solve the problems using multiple approaches.
Manufacturing Processes (BTME302T)
CO1 Understand the importance of manufacturing processes, techniques of pattern making CO1 and molding with their properties. Design gating system along with selection of different types of melting furnaces and special casting process.
CO2 Get acquainted with the basic concept of joining process, welding process and its types, defects and application.
CO3 Get acquainted with the forming process for metal, mechanics of forming process along with different types of rolling machine.
CO4 Understand and define press working process along with its classification, types and terminology, different types of dies and introduction to shaping operation.
CO5 Understand introduction to plasties, ceramics and glasses, its properties, application, forming and its shaping.
Manufacturing Processes Lab (BTME302P)
CO1 Think in core concept of their engineering application by studying various topics involved in branch specific applications.
CO2 Understand the relevance and importance of the Different manufacturing techniques and

real life application in industry.

CO3 Design the gating and riser system needed for casting and requirements to achieve defect

free casting

CO4 Analyze the welding process behavior and requirements to achieve sound welded joint while welding different similar and dissimilar engineering material
CO5 Understand the plastic, glass and ceramic Processing.
Engineering Thermodynamics (BTME303T)
CO1 Explain thermodynamics concepts, relate laws of the ideal gas, identify various thermodynamic processes and apply the laws to determine the energy transfer in terms of heat and work.
CO2 Explain the first law of thermodynamics and apply the law to evaluate open, closed systems, thermal components and devices.
CO3 Interpret the second law of thermodynamics, entropy, and apply the law to evaluate heat engine, heat pump, and refrigerator performance.
CO4 Relate various steam properties, and analyze the different types of processes using steam as working fluid to determine the energy transfer in terms of heat and work.
CO5 Compare various power cycles and analyze the cycles to determine the energy transfer in terms of heat, work and efficiency.
Kinematics of machine (BTME304T)
CO1 Perform kinematic and dynamic analysis (Displacement, Velocity, acceleration, Inertia forces) of a given mechanism using graphical method.
CO2 Understand the concept of compliant mechanisms.
CO3 Contrive or synthesize new mechanisms for specific requirements.
CO4 Construct cam profiles and analysis the follower motion
CO5 Understand Geometry of gear, its types, analysis of forces and motions of gear teeth. Study of gear trains.
Machine Drawing & Solid Modelling (BTME305P)
CO1 Interpret and describe basic elements of standard machine drawing like lines, dimensions, tolerances, symbols etc.
CO2 Create 2-D detailing, sectional views of machine elements from given isometric view.
CO3 Understand and apply concepts of GD&T for creating part and assembly drawing.
 
Computer Programming (BTME306P)
CO1 Understand and explore concepts in basic programming like data types, input/output functions, operators, programming constructs and user defined functions.
CO2 Develop capabilities of writing „C‟ programs in optimized, robust and reusable code
CO3 Apply appropriate concepts of data structures like arrays, structures implement programs for various applications
FOURTH SEMESTER (CBCS)
Machining Processes (BTME401T)
CO1 Understand fundamentals of metal cutting
CO2 Understand basic construction and operations of lathe shaping, planning
CO3 Understand basics of milling and milling cutters, slotting
CO4 To know about the surface finishing processes.
CO5 Understand the basic of drilling, boring, reaming and broaching.
Machining Processes Lab (BTME401P)
CO1 Understand basic cutting tools.
CO2 Working of lathe and turning operation
CO3 Shaping and planning operation
CO4 Milling and drilling operation
CO5 Grinding and surface finishing
Fluid Mechanics and Hydraulic Machines (BTME402T)
CO1 Classify and explain fluid their properties, fluid in rest condition, types of flow & flow measuring devices and mathematical application of equations on hydraulic components.
CO2 Explain behavior of fluid in motion condition and application of Bernoulli’s equation to fluid flow measuring devices.
CO3 Apply dimensional analysis to design hydraulic machines and different losses of fluid flow through pipes.
CO4 (i) classify different layout of hydro-electric power plant and

(ii) analyze design characteristics of hydraulic machines i.e. turbines (impulse and reaction)

CO5 Explain the working principle & design of Centrifugal and reciprocating pump & practical application of similitude & model testing.
Fluid Mechanics and Hydraulic Machines Lab (BTME402P)
CO1 Explain what is the stability condition of floating bodies and Law of conservation of Energy.
CO2 Apply Frictional losses and Hydraulic co-efficient in the pipe flow.
CO3 Estimate the Performance characteristics of Pelton Turbine.
CO4 Estimate the Performance characteristics of Francis Turbine & Kaplan Turbine.
CO5 Estimate the Performance characteristics of Centrifugal Pumps

and Reciprocating Pumps

Material Science and Engineering (BTME403T)
CO1 Student will be capable to distinguish micro structure and analyze the effect to crystalline nature of metals, construct and analyze Iron-Irou carbide equilibrium diagram
CO2 Student will be able to study the commercial steels with their applications and properties.
CO3 Student will be able to analyze and implement suitable heat treatment processes.
CO4 Student will be able to analyze the Cast Iron and their properties.
CO5 Student will be able to perceive the basics of powder Metallurgy for powder metallurgical components
Mechanics of Materials (BTME404T)
CO1 Demonstrate fundamental knowledge about various types of loading and stresses induced
CO2 Draw the SFD and BMD for different types of loads and support conditions.
CO3 Estimate the strain energy in mechanical elements. And analyse the deflection in beams.
CO4 Can design shaft for various loading conditions.
CO5 Understand theory of failure and effective designing of column and Struts.
Material Testing Lab (BTME404P)
CO1 Analyze the Microstructure and investigate various properties of ferrous and Non-ferrous

Materials.

CO2 Analyse the stress strain behaviour of materials
CO3 Analyse the effect of tensile, shearing force and can utilized the gained while tackling real life

engineering problems for different types of Materials

CO4 Understand Microstructures and their Applications for various uses

, Measure torsional strength, hardness of material

CO5 Incorporate the various important concepts learnt while designing components
Professional Ethics (BTME405T)
CO1 Understand basic purpose of profession, professional ethics and various moral and social

issues

CO2 Analyze various moral issues and theories of moral development
CO3 Realize their roles of applying ethical principles at various professional levels
CO4 Identify their responsibilities for safety and risk benefit analysis.
CO5 Understand their roles in dealing various global issues
FIFTH SEMESTER (CBCS)
Heat Transfer (BTME501T)
CO1 Students will be able to define and compare the different modes of heat transfer and calculation of thermal resistance and heat transfer through plane and composite wall, cylinder and sphere.
CO2 Students will be able to apply the concept of internal heat generation for the calculation of heat transfer for plane wall, cylinder and sphere and also learn about various types of fins and their significance in steady state conduction heat transfer calculations. It will also help them to

understand the concept of unsteady state heat transfer.

CO3 Students will be able to evaluate heat transfer rate by radiation from ideal and actual surfaces and enclosures of different geometries.
CO4 Students will be able to select and apply appropriate empirical correlations to estimate forced convection and free convection heat transfer, for internal and external flows.
CO5 Students will be able to evaluate heat exchanger performance for the given geometry and

boundary conditions to deliver a desired heat transfer rate.

Heat Transfer Lab (BTME501P)
CO1 Students will be able to determine the heat transfer rates through various cross-sections and mediums in different modes.
CO2 Student will be able to acquire, tabulate, analyze experimental data, and draw interpretation and conclusions
CO3 Student will be able to calculate radiation heat transfer and utilize that knowledge in

designing any heat transfer application.

CO4 Student will able to select the proper heat exchangers per system requirements,
CO5 Student will be able to understand heat exchanger analysis.
Energy Conversion-I (BTME502T)
CO1 Explain, classify, and analyze the steam generators (ie. Boilers), boiler mountings & COI accessories. Also evaluate the performance parameters of boiler,
CO2 Explain the concepts of fluidized bod boilers and various draught system and evaluate performance parameters of natural draught system (ie. chimney).
CO3 Explain the importance of steam nozzle and determine its throat area, exit area, exit velocity. Also compare impulse and reaction steam turbines and explain the concept of governing of steam turbine.
CO4 Explain the methods of compounding of steam turbine, various energy losses in steam turbine and able to draw velocity diagrams of steam turbine blades to analyze the angles of the blades, work done, thrust, power, efficiencies of turbine.
CO5 Explain, classify the steam condensers, cooling towers and evaluate performance parameters of surface condenser
Design of Machine Elements (BTME503T)
CO1 Apply principals of static loading for design of Cotter joint, Knuckle joint.
CO2 Design bolted, welded joints, power screws & pressure vessels
CO3 Design the power transmission shaft & coupling.
CO4 Design components subjected to fatigue or fluctuating stresses. Also, will be able to apply principles for determining bending stresses for design of curved beams e.g. crane hook.
CO5 Design Clutches, Breaks and Springs.
Industrial Economics & Management (BTME504T)
CO1 Understand the concept of demand and supply and its relationship with the price
CO2 Relate various factors of production with reference to different economic sectors
CO3 Analyze the causes and effects of inflation and understand the market structure
CO4 Acquire knowledge of various functions of management and marketing management
CO5 Perceive the concept of financial management for the growth of business
Automobile Engineering (BTME505T)
CO1 Demonstrate the vehicle construction, chassis, fuel supply system, lubrication system and cooling system in automobile.
CO2 Illustrate the principle and working of Transmission system and clutch, gear box, rear axle drives, fluid flywheel, torque converter
CO3 Identify the steering, suspension system and brake system.
CO4 Understand the applications of electrical/electronic system of automobile and wheels, tyres.
CO5 Explain the concept of electric vehicles, Hybrid vehicles, fuel cell vehicles and vehicle pollution norms. Appraise the automobile safety system and recent development in automobiles.
Industrial Visit (BTME506P)
CO1 Opportunity to interact with Industry Experts.
CO2 Learning experience.
CO3 Enhanced employability and PPO’s
CO4 Interpersonal skills enhancement.
CO5 Acquire in depth knowledge about industries & innovative technologies employed,
Performing Art (BTME507P)
CO1 Develop problem-solving skills through creative and analytical thinking.
CO2 Enhance the ability to analyze situations and communicate effectively.
CO3 Acquire essential soft skills that improve employability in reputed companies
CO4 Explore various career options and make informed decisions about the future.
CO5 Engage in performing arts activities that foster confidence, teamwork, and self-expression.
SIXTH SEMESTER (CBCS)
Automation in Production (BTME601T)
CO1 Recognize fundamentals and constructional features of N.C. CNC and D.N.C machines and prepare a CNC program for given part.
CO2 Get Acquainted With Automation, Its Type’s, Strategies, Assembly Line Balancing And Its Analysis, Methods Of Work Part Transport
CO3 Get Acquainted With The Robotic Configuration, Types Of Links, Joints, Grippers, Industrial Robotics And Robot Applications.
CO4 Cultivate Information About Automated Material Handling Systems, Automated Storage And Retrieval System (AGVS.AS/RS) Its Analysis
CO5 Get Acquainted With Automated Inspection (CAPP, CAQC, and CMM) And Group Technology.
CO6 Recognize CAD/CAM.CIM.FMS, Understand The Concepts Of Shop Floor Control
Automation in Production (BTME601P)
CO1 Recognize automation, corroborating this knowledge with case studies on automation

systems, study and analyze the material handling systems, robots and GT

CO2 Demonstrate NC programming (manual/apt)
CO3 Simulate program on CNC milling/ lathe
CO4 Work on CNC milling/ lathe
Energy Conversion-II (BEME602T)
CO1 Explain, classify &analyze the 1. C. Engine and explain the phenomenon of stages of combustion in S.I & C.I Engines, knocking, supercharging and fuel supply systems.
CO2 Evaluate the performance parameters of I.C. Engine and able to prepare heat balance

sheet for I.C. Engine.

CO3 Explain the working of Refrigeration systems and solve the problems related to single stage vapor compression refrigeration cycle.
CO4 Explain the working of Air conditioning systems and solve the simple problems based on psychometric properties and processes.
CO5 Explain, classify & compare the Air compressors and evaluate the performance parameters of reciprocating air compressor.
Energy Conversion-II Lab (BEME602P)
CO1 Understand and identify the different components of L.C. engine, air compressor and

Vapour Compression Refrigeration system (VCRS)

CO2 Demonstrate and determine the performance parameters of L.C. engine and preparation of

its Heat balance sheet

CO3 Determine B.E, IP, and F.P. by using Morse Test on Multi cylinder C.1. Engine or S.1. Engine
CO4 Demonstrate and determine the performance parameters of Vapour Compression
CO5 Refrigeration system. Analyze the performance parameters of Multistage reciprocating air compressor.
 Dynamics of Machines (BTME603T)
CO1 Comprehend the machine dynamics through basic principles to interpret their application

and examine near to life problems due gyroscopic effects and determine the conditions for stability of ships, airplanes and automobile.

CO2 Analyze dynamic force conditions in planer linkages and cams to determine required driving torque condition (graphically/analytically).
CO3 Estimate the unbalanced forces due to rotating and reciprocating masses in a mechanical system and calculate (graphically/ analytically) the balancing masses required for safe/smooth operation of these mechanical systems.
CO4 Identify the requirement of flywheel, brakes, and dynamometers in a mechanical system and calculate inertia of flywheel and braking condition to be incorporated in engines and machines.
CO5 Recognize and interpret the concept of vibration in various mechanical systems and distinguish vibration characteristics for 1 & 2 DOF systems to evaluate the conditions for its control use.
Dynamics of Machines (BTME603P)
CO1 Demonstrate the concept of gyroscopic effect through the working model.
CO2 Analyze the performance of mechanisms and Perform dynamic force analysis of linkages and cams.
CO3 Demonstrate record and interpret data of vibration characteristics of mechanical vibratory systems.
CO4 Perform analysis of brakes, dynamometers and flywheels.
CO5 Identify the importance of safety, learn work and effective communication for conduction of activity.
Elective I: Production Planning and Control (BTME604T)
CO1 Understand need of various functions in production planning and control for better management of manufacturing and/or service systems.
CO2 Use qualitative and quantitative forecasting techniques for short, medium, and long range forecasting.
CO3 Develop material requirements plans (MRP) as part of resource requirements planning systems.
CO4 Use heuristic decision rules to make lot-sizing decisions.
CO5 Develop capacity requirements plans as part of resource requirements planning

systems

CO6 Develop quantitative models to manage independent demand inventory systems.
Elective II: Advanced Manufacturing Techniques (BTME605T)
CO1 Understand and compare the different Non-Traditional machining process with their COI need, economics and application as well as historical development.
CO2 Understand the basics of High speed grinding. Hot and Cold machining.

Understand the basics of Abrasive Jet Machining (AJM), Ultrasonic Machining process

and Water Jet Machining.

CO3 Get un acquainted with the Electro-Chemical Machining, Electrochemical Grinding. Electric CO3 Discharge Machining.
CO4 Get acquainted with the Electron Beam, Laser Beam and Plasma Arc Machining. Know the basics of unconventional welding techniques and Solid Phase welding

techniques.

CO5 Get acquainted with the basics of advance casting processes.
SEVENTH SEMESTER (CBCS)
Elective – III: Advancements in Automobile Engineering (BTME701T)
CO1 Classify and identify the main components of automobile. Explain the construction and working of L. C. Engine, fuel supply systems, cooling systems and lubrication systems used in automobile
CO2 Illustrate the functions of different types of automobile clutches and gear boxes and their applications explain the working of transmission system, its components such as propeller shaft, drives, differential and axles
CO3 Describe the working of different steering systems, steering gear boxes and suspension systems. Identify the different components of steering, suspension and brake systems with their comparisons and applications
CO4 Demonstrate the importance of safety considerations in automobiles and outline the recent technological development in automotive safety. Describe the automobile maintenance, Trouble shooting, service procedures, Overhauling and Engine tune up
CO5 Explain the working of Electric Car, Hybrid Electric vehicles and Fuel cell vehicles. Describe the importance of Alternative energy sources, Vehicle Pollution norms and different methods of pollution control
Elective – III: Advancements in Automobile Engineering (BTME701P)
CO1 Make students understand the basic concepts, requirement and working of various components of automobile.
CO2 Make students understand the assembling and disassembling procedure of Engine clutch, brakes and the process of wheel alignment, balancing and battery testing
CO3 Enable students to understand and identify components of transmission system, brakes, steering and suspension systems.
CO4 Aware students about automotive electronics and recent technologies used in automobiles.
CO5 Aware students about the importance of safety considerations in automobiles, automobile maintenance and overhauling
Energy Conversion III (BTME702T)
CO1 Students will be able to analyze the gas turbine and jet propulsion system on varied operating conditions.
CO2 Students will be able to recognize the hydraulic pumps and valves and can able to logically design the hydraulic circuit.
CO3 Students will be able to recognize the air compressors and pneumatic control valves and can able to logically design the pneumatic circuit
CO4 Students will be able to understand solar power and future opportunities in solar power systems
CO5 Students will learn the basics of various non-conventional energy sources and their applications
Open Elective II:  Power Plant Engineering (BTME703T)
CO1 Students can understand

Electrical energy, economic and environmental issues.

CO2 Students can understand Operation of Thermal power Plant.
CO3 Students can understand  Subsystems of thermal power plants and cogeneration systems
CO4 Students can understand  Operation of Hydroelectric Power Plants
CO5 Students can understand  Operation of Nuclear Energy Conversion
Design of Transmission Systems (BTME704T)
CO1 Apply Design journal and thrust bearings and selection of standard rolling contact bearings.
CO2 Design flexible transmission drives like belts, chains and rope.
CO3 Design the positive transmission drives like gears as spur and Helical Gear.
CO4 Design the positive transmission drives like gears as worm and Bevel Gears
CO5 Design the energy storing components like Flywheels for various applications.
Project Phase-I (BTME706P)
CO1 Convert their conceptual ideas into working projects.
CO2 Explore the possibility of publishing papers in journal.
CO3 Enhance their knowledge through an on-line collection of evidence, work and other information.
CO4 Ultimately promotes for inter-personal communication, punctuality, demonstration of appropriate written and oral communication skills with overall Work-Integrated-Learning.
CO5 Develop an understanding of social, cultural, professional, ethical, global and environmental responsibilities of the professional Engineer.
EIGHTH SEMESTER (CBCS)
Industrial Engineering (BTME801T)
CO1 Understanding the concept of productivity and method study
CO2 Ability to measure work time and design ergonomic system.
CO3 To understand the concept of forecasting and breakeven analysis.
CO4 To analysis maintenance and reliability of equipment’s.
CO5 To understand various quality control tools and techniques.
Elective-IV: Computer Integrated Manufacturing (BTME802T)
CO1 To understand integration of business function with manufacturing planning and control.
CO2 To apply fundamentals of robotics or industrial applications
CO3 To develop CNC programs for manufacturing applications.
CO4 To understand the process of Group technology for Flexible manufacturing system.
CO5 Get Acquainted With Automated Inspection (CAPP, CAQC, CMM) And Group Technology
Elective-IV: Computer Integrated Manufacturing Lab (BTME802P)
CO1 Ability to Recognize automation and CIM, CIM wheel, hardware, software, components of CIM
CO2 The student will have ability to apply fundamentals of GT and FMS
CO3 The student will have ability to apply fundamentals of CAPP and CAQC
CO4 The student will have ability to develop CNC programs for manufacturing applications
Elective-V: Total Quality Management (BTME803T)
CO1 To develop understanding of Quality concepts.
CO2 Practically implement the Total Quality Principles to employees and supplier partnership.
CO3 Understanding of Statistical Process Control and Process Capability for enhancement of quality.
CO4 Practically implement the tools for Total Quality Principles
CO5 Develop Understanding of Quality System, Quality Audits, Leadership & quality council

& overview of software used for TQM.

Elective-VI: Energy Conservation & Management (BTME804T)
CO1 Identify and classify areas of energy conservation in industries.
CO2 Know the duties and responsibilities of an energy manager and energy auditor.
CO3 Analyze and modify existing working of the energy utilizing and generating machines
CO4 Know how to use instruments in energy audit process.
CO5 Implement proper energy saving techniques in boiler, furnaces etc.
Project Phase-II (BTM805P)
CO1 Convert their conceptual ideas into working projects.
CO2 Explore the possibility of publishing papers in journal.
CO3 Enhance their knowledge through an on-line collection of evidence, work and other information.
CO4 Ultimately promotes for inter-personal communication, punctuality, demonstration of appropriate written and oral communication skills with overall Work-Integrated-Learning.
CO5 Develop an understanding of social, cultural, professional, ethical, global and environmental responsibilities of the professional Engineer.