» Vision and Mission

Vision

Mission

Programme Educational Objectives (PEOs)

Programme Outcomes (POs)

Programme Specific Outcomes (PSOs)

Mapping of PEOs with Mission

Course Outcomes

Vision

Mission

Programme Educational Objectives (PEOs)

Programme Outcomes (POs)

Programme Specific Outcomes (PSOs)

Mapping of PEOs with Mission

Course Outcomes

PO1	Engineering knowledge: An ability to apply the knowledge of mathematics, science, engineering fundamentals, and an engineering specialization to get the solution of the engineering problems.
PO2	Problem analysis: Ability to Identify, formulates, review research literature, and analyze complex engineering problems.
PO3	Design/development of solutions: Ability to design solutions for complex engineering problems by considering social, economical and environmental aspects.
PO4	Conduct investigations of complex problems: Use research-based knowledge to design, conduct analyse experiments to get valid conclusion.
PO5	Modern tool usage: ability to create, select, and apply appropriate techniques, and to model complex engineering activities with an understanding of the limitations.
PO6	The engineer and society: Ability to apply knowledge by considering social health, safety, legal and cultural issues.
PO7	Environment and sustainability: Understanding of the impact of the adopted engineering solutions in social and environmental contexts.
PO8	Ethics: Understanding of the ethical issues of the Mechanical engineering and applying ethical principles in engineering practices.
PO9	Individual and teamwork: Ability to work effectively as an individual or in team, as a member or as a leader.
PO10	Communication: An ability to communicate clearly and effectively through different modes of communication.
PO11	Project management and finance: Ability to handle project and to manage finance related issue
PO12	Life-long learning: Recognize the need for, and have the preparation and ability to engage in independent and life-long learning.

PSO1	Apply their understanding in the realm of Design, Production and thermal fluid sciences to solve engineering problems using latest technologies.
PSO2	Students will be well equipped with industrial management skills and interdisciplinary technologies
PSO3	Extend and implement innovative thinking on product design and development with the aid of modern tools.

PEO Statements	M1	M2	M3
PEO1: – Graduates will be able to pursue a successful professional career in Mechanical Engineering with sound technical and managerial capabilities to meet the needs of society.	3	2	3
PEO2: – Graduates will have the skills and knowledge to formulate, analyze, and solve problems in mechanical engineering to meet challenges globally.	2	3	3
PEO3: – Graduates will have the readiness for continuous learning by pursuing higher education and research in the allied areas of science and technology.	2	2	2

Semester No: 1^st
Course Title:	Engineering Graphics & Design	Course Code:	100102
Course Outcome No.	Course Outcome Statement
CO1	Explain the principles of engineering graphics, drawing instruments, lettering, scales, and the construction of conic sections and cycloidal curves.
CO2	Apply the principles of orthographic projection to draw projections of points, lines, and planes using standard conventions.
CO3	Analyse the projections and auxiliary views of regular solids inclined to one or both reference planes.
CO4	Construct sectional views and develop the surfaces of right regular solids and simple engineering objects.
CO5	Apply isometric projection principles and CAD tools to generate isometric and orthographic views of simple and compound solids.

Semester No: 1^st
Course Title:	Engineering Graphics & Design	Course Code:	100102P
Course Outcome No.	Course Outcome Statement
CO1	Explain the principles of engineering graphics, drawing instruments, lettering, scales, and construction of conic sections and cycloidal curves.
CO2	Apply the principles of orthographic projection to draw projections of points, lines, and planes using standard conventions.
CO3	Analyze the projections and auxiliary views of regular solids inclined to one or both reference planes.
CO4	Construct sectional views and develop the surfaces of right regular solids and simple engineering objects.
CO5	Apply isometric projection principles and CAD tools to generate isometric and orthographic views of simple and compound solids.

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Semester No: 1^st
Course Title:	Basic Electrical Engineering	Course Code:	100101
Course Outcome No.	Course Outcome Statement
CO1	Recall fundamental concepts of Electrical Engineering.
CO2	Illustrate the basic principles and behaviour of AC circuits.
CO3	Explain the operating principle of transformers with reference to magnetic circuits.
CO4	Classify and compare different types of electrical machines.
CO5	Classify various electrical measuring instruments and explain their operating principles.

Semester No: 1^st
Course Title:	Physics (Electromagnetism)	Course Code:	102101
Course Outcome No.	Course Outcome Statement
CO1	To Evaluate electric field and electrostatic potential for charge distribution in air/ vacuum and dielectric medium with the help of Laplace equation, Poisson equation, and by Apply the method of image.
CO2	To Remember and Apply Bio-Savart law, divergence and curl of static magnetic field; vector potential and evaluate it for a given magnetic field using stokes’ theorem; the equation for the vector potential and its solution for given current densities. To Analyze magnetization and associated bound currents; auxiliary magnetic field; To Apply boundary conditions on and To Evaluate magnetic field due to simple magnets like a bar magnet; magnetic susceptibility and ferromagnetic, paramagnetic and diamagnetic materials; Conceptual discussion of magnetic field in presence of magnetic materials.
CO3	To Analyze Faraday’s law in terms of emf produced by changing magnetic flux; To Evaluate equivalence of faraday’s law and motional emf; Lenz’s law; electromagnetic breaking and its applications; differential form of faraday’s law expressing curl of electric field in terms of time-derivative of magnetic field and calculating electric field due to changing magnetic fields in quasi-static approximation; energy stored in a magnetic field
CO4	To evaluate the continuity equation for current densities; Apply equation for the curl of magnetic field to satisfy continuity equation; displace current and magnetic field arising from the time-dependent electric field; To Analyze magnetic field due to changing electric fields in quasi-static approximation. To Remember Maxwell’s equation in vacuum and non-conducting medium; create energy in an electromagnetic field; To Analyze flow of energy and Poynting vector with examples. Qualitative discussion of momentum in electromagnetic fields.
CO5	To Evaluate the wave equation of an electromagnetic waves in vacuum, To Analyze their transverse nature and polarization; Conceptual relation between electric and magnetic fields of an electromagnetic wave To Analyze energy, momentum carried by electromagnetic waves and resultant pressure. To Evaluate Reflection and transmission of electromagnetic waves from a non-conducting medium-vacuum interface for normal incidence

Semester No: 1^st
Course Title:	Mathematics – I (Calculus and Linear Algebra)	Course Code:	102102
Course Outcome No.	Course Outcome Statement
CO1	To comprehend the differentiability and continuity of the function. To analyze the convergence of an infinite series. To evaluate the curvature of the given curve.
CO2	To comprehend beta and gamma functions. To apply the concept of definite integrals for the evaluation of arc length, surface and volume of the revolution of a given curve.
CO3	To comprehend Rolle’s theorem and Mean value theorems. To apply the idea of these theorems in variety of problems. To evaluate limits of a function having indeterminate forms.
CO4	To analyze Fourier series expansions of different functions in a given range.
CO5	To apply rank of a matrix in determining the consistency of a system of linear equations

Semester No: 2^nd
Course Title:	Chemistry	Course Code:	100203
Course Outcome No.	Course Outcome Statement
CO1	Apply the fundamental concepts of chemical bonding, molecular structure, and the properties of materials relevant to engineering applications.
CO2	Comprehend and apply the principles of various spectroscopic techniques, such as UV-Visible, IR, and NMR spectroscopy, to analyse the structure and properties of chemical compounds used in engineering materials and processes.
CO3	Demonstrate knowledge of intermolecular forces and properties of gases
CO4	Apply and analyse the principles of properties of thermodynamics and water chemistry, classifying elements and their properties.
CO5	Critical analysis of the fundamentals of organic reaction mechanisms and functional group transformations.

Semester No: 2^nd
Course Title:	Programming For Problem Solving	Course Code:	100204
Course Outcome No.	Course Outcome Statement
CO1	TO FORMULATE THE ALGORITHMS FOR SIMPLE PROBLEMS
CO2	TO TRANSLATE GIVEN ALGORITHMS TO A WORKING AND CORRECT PROGRAM
CO3	TO BE ABLE TO IDENTIFY AND CORRECT SYNTAX, LOGICAL ERRORS ENCOUNTERED AT RUN TIME
CO4	TO BE ABLE TO WRITE ITERATIVE AS WELL AS RECURSIVE PROGRAMS
CO5	TO BE ABLE TO REPRESENT DATA IN ARRAYS, STRINGS AND STRUCTURES AND MANIPULATE THEM THROUGH A PROGRAM
CO6	TO BE ABLE TO DECLARE POINTERS OF DIFFERENT TYPES AND USE THEM IN DEFINING SELF-REFERENTIAL STRUCTURES.

Semester No: 2^nd
Course Title:	Workshop Manufacturing Practices	Course Code:	100205
Course Outcome No.	Course Outcome Statement
CO1	Explain various manufacturing methods such as casting, forming, machining, joining, and advanced manufacturing processes.
CO2	Demonstrate basic understanding and applications of CNC machining and additive manufacturing processes.
CO3	Perform fitting operations, use power tools safely, and carry out basic carpentry practices.
CO4	Execute basic plastic moulding, glass cutting, metal casting, welding, brazing, and soldering operations following safety norms.
CO5	Apply workshop practices, safety procedures, teamwork, and professional ethics in manufacturing activities.

Semester No: 2^nd
Course Title:	English	Course Code:	100206
Course Outcome No.	Course Outcome Statement
CO1	To analyze the fundamental of critical thinking to reading writing and editing
CO2	To identify problem areas in writing
CO3	To develop the speaking ability in English with clarity and precision
CO4	To produce & develop presentation skills and abilities in team work
CO5	To analyze the fundamental of critical thinking to reading writing and editing

Semester No: 2^nd
Course Title:	Mathematics – II (Ode & Complex Variables)	Course Code:	102202
Course Outcome No.	Course Outcome Statement
CO1	Able to evaluate multiple integrals and apply the concept to find areas, volumes and problems of Integrals and Vector calculus.
CO2	Able to comprehend the basic concept of an ordinary differential equation.
CO3	Able to Create Mathematical modeling of real-life problems in different engineering applications by using the concept of Ordinary Differential Equation.
CO4	To comprehend the fundamental concepts of function, Limit, and Analytic function of a complex variable and complex number system.
CO5	Able to analyse complex engineering problems of contour/Complex integration by using the Cauchy-integral formula and the Cauchy Residue Theorems.

Semester No: 3^rd
Course Title:	Biology For Engineers	Course Code:	100301
Course Outcome No.	Course Outcome Statement
CO1	Explain fundamental biological concepts such as cell structure, biomolecules, enzymes, and genetics relevant to engineering applications.
CO2	Illustrate biological processes and mechanisms and relate them to engineering systems and bio-inspired designs.
CO3	Apply principles of biology to solve basic engineering problems related to biomaterials, biomechanics, and bio-systems.
CO4	Analyze biological data and structure–function relationships to interpret behavior of living systems and engineered bio-systems.
CO5	Evaluate applications of biological principles in emerging engineering technologies such as biomedical devices, biosensors, and bio-engineering solutions.

Semester No: 3^rd
Course Title:	Basic Electronics Engineering	Course Code:	100303
Course Outcome No.	Course Outcome Statement
CO1	Understand the principles of semiconductor devices and their applications.
CO2	Design an application using an Operational amplifier
CO3	Understand the working of timing circuits and oscillators.
CO4	Apply flip flops and logic gates to build various digital systems.
CO5	Learn the basics of Electronic communication systems.

Semester No: 4^th
Course Title:	Strength Of Materials	Course Code:	102405
Course Outcome No.	Course Outcome Statement
CO1	To analyse the internal behaviour of solids by calculating stresses, strains, and elastic constants, and determine principal stresses using Mohr’s Circle and failure theories.
CO2	To construct Shear Force (SFD) and Bending Moment Diagrams (BMD) for various types of beams and evaluate the distribution of bending stress and shear stresses across sections.
CO3	To compute the slope and deflection of various types of beams under different loads using mathematical tools like double integration and Maxwell’s reciprocal theorem
CO4	To examine the effects of torque on circular and stepped shafts and analyze the stresses and deflections in helical springs under axial loading.
CO5	To evaluate the structural integrity of thin and thick pressure vessels by calculating axial, hoop, and radial stresses in cylinders and spherical shells.

Semester No: 5^th
Course Title:	Fluid Machinery	Course Code:	102501P
Course Outcome No.	Course Outcome Statement
CO1	Validate Euler’s energy transfer theory by conducting “Impact of Jet” experiments on various vane shapes.
CO2	Analyze the scaling laws and similitude by comparing performance data of model turbines at varying speeds.
CO3	Evaluate the main and operating characteristic curves of Pelton and Francis turbines to find the Best Efficiency Point (BEP).
CO4	Examine the performance of Rotodynamic and Positive Displacement pumps, including the study of cavitation and slip.
CO5	Synthesize experimental data to propose a turbine selection for a simulated site condition (Hydro-plant planning).

Semester No: 5^th
Course Title:	Heat Transfer	Course Code:	102502
Course Outcome No.	Course Outcome Statement
CO1	To explain the fundamental principles of heat and mass transfer, including conduction, convection, radiation, and the associated governing equations.
CO2	To apply analytical and approximate methods to solve steady and unsteady conduction heat transfer problems in Cartesian, cylindrical, and spherical geometries.
CO3	To analyse forced and natural convection heat transfer problems for internal and external flows using dimensionless parameters and empirical correlations.
CO4	To evaluate radiation heat exchange and heat exchanger performance using radiative properties, view factors, LMTD, and ε–NTU methods.
CO5	To apply boiling, condensation, and heat–mass transfer analogy concepts to analyse thermal and mass transfer systems.

Semester No: 5^th
Course Title:	Heat Transfer	Course Code:	102502P
Course Outcome No.	Course Outcome Statement
CO1	To Apply the principles of heat conduction to experimentally determine thermal conductivity of materials and the overall heat transfer coefficient of composite walls.
CO2	To Analyze the performance of extended surfaces (pin fins) under natural and forced convection by studying temperature distribution and fin effectiveness.
CO3	To Evaluate convective heat transfer coefficients for free and forced convection in internal and external flow systems using experimental observations.
CO4	To Determine radiative heat transfer parameters such as surface emissivity and the Stefan–Boltzmann constant through laboratory experiments.
CO5	To Assess the performance of parallel-flow and counter-flow heat exchangers using LMTD and effectiveness methods.

Semester No: 3^rd
Course Title:	Engineering Mechanics	Course Code:	100309
Course Outcome No.	Course Outcome Statement
CO1	Apply the principles of statics to analyze coplanar and non-coplanar force systems and equilibrium of particles and rigid bodies.
CO2	Analyze structures such as trusses, frames, and machines using equilibrium equations to determine internal forces and reactions.
CO3	Evaluate frictional forces and apply the concepts of dry friction to solve engineering problems involving wedges, ladders, and belt drives.
CO4	Apply the fundamentals of kinematics and kinetics to analyze motion, work–energy, and impulse–momentum problems.

Semester No: 3^rd
Course Title:	Mathematics-III (Pde, Probability and Statistics)	Course Code:	100312
Course Outcome No.	Course Outcome Statement
CO1	Able to comprehend the application of partial differential equations in engineering like heat equation, wave equation and Laplace equation.
CO2	Abel to create mathematical modelling of natural problems in the different Engineering applications by using special functions like Legendre’s and Bessel’s functions.
CO3	Abel to apply probability theory to analyze discrete and continuous random variables and Probablity distribution.
CO4	Able to apply the concept of correlation, moments, skewness, and kurtosis in stastistical data analysis.
CO5	Able to describe and analyse curve fitting and sampling theory in engineering applications.

Semester No: 3^rd
Course Title:	Thermodynamics	Course Code:	102304
Course Outcome No.	Course Outcome Statement
CO1	Explain basic thermodynamic concepts such as system, properties, processes, work, and energy.
CO2	Apply the First Law of Thermodynamics to analyse closed systems and control volumes.
CO3	Determine thermodynamic properties of pure substances, gases, and gas mixtures.
CO4	Analyse the performance of basic engineering devices using energy and entropy principles.
CO5	Analyse thermodynamic cycles, irreversibility, and psychrometric processes to evaluate the system.

Semester No: 3^rd
Course Title:	Internship	Course Code:	100399P
Course Outcome No.	Course Outcome Statement
CO1	To apply theoretical knowledge and technical skills acquired in the classroom to solve real-world problems and execute assigned tasks.
CO2	To develop and refine oral and written communication skills through communicate complex ideas effectively through trainer/faculty member, internship report and attending interview and viva voce.
CO3	To get exposure to team-work, leadership quality and the ability to work productively within a multidisciplinary team.
CO4	To identify and adhere to the ethical standards, legal regulations, and professional codes of conduct specific to the industry/Institute.

Semester No: 3^rd
Course Title:	Machine drawing	Course Code:	102302P
Course Outcome No.	Course Outcome Statement
CO1	Interpret engineering drawings and apply BIS standards, symbols, and dimensioning practices for machine components.
CO2	Construct orthographic projections and sectional views of machine parts from given pictorial views using conventional drawing methods.
CO3	Prepare detailed and assembly drawings of machine elements such as fasteners, couplings, bearings, and valves following standard drawing practices.
CO4	Develop working drawings of mechanical components and assemblies with appropriate tolerances, fits, and surface finish specifications.
CO5	Create two-dimensional and three-dimensional models of machine components and assemblies using SolidWorks to visualize design intent and improve drafting accuracy.

Semester No: 4^th
Course Title:	Applied Thermodynamics	Course Code:	102401
Course Outcome No.	Course Outcome Statement
CO1	Explain the properties of fuels and the basics of combustion and exhaust gas analysis.
CO2	Apply thermodynamic and chemical equilibrium principles to analyze combustion processes.
CO3	Apply thermodynamic principles to evaluate gas power cycles, vapor power cycles, and refrigeration cycles.
CO4	Analyze compressible flow in nozzles and diffusers, including choking and shock phenomena.
CO5	Analyze the performance of steam turbines and reciprocating compressors.

Semester No: 4^th
Course Title:	Engineering Materials	Course Code:	102402
Course Outcome No.	Course Outcome Statement
CO1	To Analyze engineering materials on the basis of structure and properties for engineering applications.
CO2	To Analyze the binary phase diagrams of alloys.
CO3	Perform and evaluate mechanical property tests (tensile, hardness, NDT) and differentiate between engineering and true stress-strain behavior in materials.
CO4	To Apply the heat treatment processes that will produce a specified microstructure using isothermal transformation diagram for iron-carbon alloy.
CO5	To Select specific ferrous and non-ferrous alloys (Stainless steel, Aluminum, Titanium, and Superalloys) for engineering applications based on their composition and properties.

Semester No: 4^th
Course Title:	Fluid Mechanics	Course Code:	102403
Course Outcome No.	Course Outcome Statement
CO1	Explain the fundamental properties of fluids and the concepts of fluid statics, including pressure measurement and hydrostatic forces on submerged surfaces.
CO2	Apply the principles of fluid kinematics and dynamics to analyze fluid motion using continuity and energy equations.
CO3	Analyze internal and external flows through pipes and around submerged bodies, considering losses, flow regimes, and dimensional analysis.
CO4	Evaluate the performance of hydraulic machines and flow measurement devices using governing equations and experimental data.

Semester No: 4^th
Course Title:	Instrumentation & Control	Course Code:	102404
Course Outcome No.	Course Outcome Statement
CO1
CO2
CO3
CO4
CO5

Semester No: 5^th
Course Title:	Kinematics of Machine	Course Code:	102503
Course Outcome No.	Course Outcome Statement
CO1	To explain fundamental kinematic concepts, classification of mechanisms, degrees of freedom, mobility, Grashof’s law, and kinematic inversions.
CO2	To apply kinematic principles to determine displacement, velocity, and acceleration of plane mechanisms using graphical and analytical methods.
CO3	To apply friction and dynamics principles to analyze belt drives, clutches, and braking systems.
CO4	To analyze spur gears and gear trains to determine velocity ratios, contact ratio, interference, and undercutting.
CO5	To analyze balancing of rotating masses and the performance characteristics of governors with respect to stability, sensitivity, and isochronism.

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Semester No: 5^th
Course Title:	Manufacturing Processes	Course Code:	102504
Course Outcome No.	Course Outcome Statement
CO1	Explain the principles, equipment, and defects associated with conventional manufacturing processes such as metal casting and moulding, including heat transfer, solidification, shrinkage, riser design, and residual stresses.
CO2	Apply concepts of plastic deformation, yield criteria, and hot and cold working to analyse bulk and sheet metal forming processes and estimate forming loads.
CO3	Analyse metal cutting mechanisms and machining processes by evaluating cutting forces, chip formation, tool wear, surface finish, machinability, and CNC machining principles.
CO4	Describe and compare joining and additive manufacturing processes, including welding, brazing, soldering, adhesive bonding, rapid prototyping, and rapid tooling.
CO5	Explain the working principles and applications of machine tools and finishing processes such as turning, milling, drilling, grinding, and super-finishing operations.

Semester No: 5^th
Course Title:	Summer Entrepreneurship – II	Course Code:	100510P
Course Outcome No.	Course Outcome Statement
CO1	To provide industrial exposure to student to apply theoretical knowledge and technical skills acquired in the classroom to solve real-world problems and execute tasks within a professional environment.
CO2	To develop and refine oral and written communication skills through communicate complex ideas effectively through professional channels, oral presentations, technical documentation, internship report and attending interview and viva voce.
CO3	To get exposure to team-work, leadership quality and the ability to work productively within a multidisciplinary team.
CO4	To identify and adhere to the ethical standards, legal regulations, and professional codes of conduct specific to the industry.

Semester No: 6^th
Course Title:	Design Of Machine Elements	Course Code:	102601
Course Outcome No.	Course Outcome Statement
CO1	Learn and implement the fundamental steps, factors, and economical and practical considerations in the mechanical design process, including material selection and failure criteria.
CO2	Investigate and design shafts under various loading conditions, considering strength, deflection, and critical speed effects.
CO3	Determine stresses and design riveted, bolted, and welded joints for central and eccentric loads in mechanical assemblies.
CO4	Design friction elements such as clutches and brakes using appropriate assumptions and performance criteria.
CO5	Analyze and design key transmission and spring elements, including gears and various types of springs for strength and fatigue resistance.

Semester No: 6^th
Course Title:	Dynamics Of Machinery	Course Code:	102602
Course Outcome No.	Course Outcome Statement
CO1	To apply principles of dynamics to perform force analysis of mechanisms and evaluate correction torque and dynamic forces in machines.
CO2	To apply turning moment concepts to analyze fluctuation of energy and speed in engines and determine flywheel parameters.
CO3	To kinematic and dynamic principles to design and analyze cam–follower systems using graphical methods.
CO4	To analyze gyroscopic effects and inertia forces in rotating and reciprocating systems to assess their influence on machine stability.
CO5	To analyze mechanical vibration problems involving single and multi-degree-of-freedom systems, damping, balancing, and vibration control techniques.

Semester No: 6^th
Course Title:	Manufacturing Technology	Course Code:	102603
Course Outcome No.	Course Outcome Statement
CO1	Design specialized tooling including jigs, fixtures, press tools, and forging dies for conventional manufacturing.
CO2	Apply principles of limits, fits, tolerances, and gauge design to ensure precision in manufacturing and assembly.
CO3	Analyze surface integrity, tool wear, and alignment using advanced metrological techniques and interferometry.
CO4	Develop efficient process plans for assembly practices and selective assembly using appropriate material handling devices.
CO5	Evaluate the process parameters, material removal rates (MRR), and surface finish of thermal and chemical unconventional machining processes.

Semester No: 6^th
Course Title:	Automation In Manufacturing	Course Code:	102605
Course Outcome No.	Course Outcome Statement
CO1	Explain the need, principles, and current trends of automation in machine tool–based manufacturing systems, including rigid and flexible automation.
CO2	Apply CAD and CAM concepts for geometric modelling, downstream applications, and integration with manufacturing systems.
CO3	Demonstrate the working and application of CNC systems, PLCs, sensors, pneumatics, and hydraulics in automated manufacturing environments.
CO4	Analyze and design low-cost automation solutions using mechanical, electro-mechanical, pneumatic, and hydraulic systems for industrial case studies.
CO5	Develop and evaluate models and simulations for product design and manufacturing processes, incorporating optimisation techniques for industrial applications.

Semester No: 6^th
Course Title:	Composite Materials	Course Code:	102609
Course Outcome No.	Course Outcome Statement
CO1	Explain the classification, properties, and applications of composite materials and their constituent fibers and matrices.
CO2	Apply micromechanics and anisotropic elasticity concepts to evaluate stiffness and elastic behavior of composite lamina.
CO3	Describe manufacturing processes of composite materials and select appropriate techniques for specific applications.
CO4	Analyze stress–strain behavior and predict failure of laminated composites using suitable failure criteria.
CO5	Analyze bending, buckling, and vibration behavior of laminated composite plates.

Semester No: 6^th
Course Title:	Power Plant Engineering	Course Code:	102610
Course Outcome No.	Course Outcome Statement
CO1	Explain the working, components, and subsystems of coal-based thermal power plants.
CO2	Analyze gas turbine and combined cycle power plants using the Brayton cycle.
CO3	Describe nuclear power plants, reactor types, and safety systems.
CO4	Explain the working and performance of hydroelectric and renewable energy power plants.
CO5	Analyze energy economics, environmental impacts, and sustainability aspects of power generation systems.

Semester No: 6^th
Course Title:	Renewable Energy Systems	Course Code:	102611
Course Outcome No.	Course Outcome Statement
CO1	Explain the concepts of renewable energy resources, sustainability, and relate their role to meet in global energy demands.
CO2	Analyze solar radiation characteristics and assess the performance of solar thermal systems.
CO3	Apply photovoltaic principles to analyze the construction, working, and performance improvement methods of solar PV systems.
CO4	Analyse the hydropower generation as well as wind energy resources for the power extraction its performance characteristics.
CO5	Explain biomass and biofuel energy conversion processes and analyze their suitability for sustainable energy generation.

Semester No: 7^th
Course Title:	Internal Combustion Engines	Course Code:	102701
Course Outcome No.	Course Outcome Statement
CO1	Explain the terminology, components, classification, working principles, valve timing diagrams, and ideal cycles of internal combustion engines.
CO2	Apply engine performance testing methods to determine power, efficiencies, and performance parameters of IC engines.
CO3	Analyse combustion processes in SI and CI engines, including knocking, detonation, and factors affecting combustion.
CO4	Apply knowledge of fuel supply, ignition, lubrication, and cooling systems for appropriate IC engine applications.
CO5	Analyse IC engine testing data to evaluate efficiencies, emissions, heat balance, and advanced IC engine concepts.