Vision

To become a world class school and centre for excellence in Electrical and Electronics Engineering for higher level learning, research and consultancy.

Mission

• To provide high quality education that comprehends student aspiration and potential.
• To create passion for learning, foster innovation.
• To nurture the talents towards serving the society.
• Imparting strong fundamental concepts to students and motivate them to find innovative solutions to engineering problems independently.

Program Outcomes

Electrical and Electronics Engineering Graduates will be able to:

• Engineering talents: practice the expertise of mathematics, science, engineering fundamentals and an engineering specialization to the solution of complex engineering problems.
• Problem Analysis: Establish, formulate, assessment research literature, and analyze complicated engineering problems attaining substantiated conclusions utilizing first ideas of mathematics, natural sciences, and engineering sciences.
• Design/development of Solutions: Design solutions for complicated engineering issues and design procedure accessories or processes that meet the special desires with suitable consideration for the general public wellbeing and defense, and the cultural, societal, and environmental considerations.
• Conduct Investigations of Complex Problems: Use study-founded potential and study ways together with design of experiments, analysis and interpretation of information, and synthesis of the information to furnish valid conclusions.
• Modern Tool Usage: Create, decide on, and observe proper procedures, assets, and modern day engineering and IT tools including prediction and modeling to complex engineering pursuits with an understanding of the boundaries.
• The Engineer and Society: Practice reasoning advised by using the contextual capabilities to check societal, wellbeing, defense, authorized and cultural problems and the ensuing obligations primary to the official engineering observe.
• Atmosphere and Sustainability: fully grasp the have an effect on of the reliable engineering options in societal and environmental contexts, and demonstrate the skills of, and want for sustainable development.
• Ethics: observe ethical ideas and commit to reliable ethics and duties and norms of the engineering follow.
• Person and workforce Work: function effortlessly as a man or woman and as a member or leader in various groups and in multidisciplinary settings.
• Verbal exchange: communicate quite simply on elaborate engineering events with the engineering community and with society at giant, corresponding to being ready to appreciate and write robust stories and design documentation, make mighty displays and give and obtain clear recommendations.
• Project management and Finance: demonstrate potential and understanding of the engineering and administration standards and practice the set one’s own work, as a member and chief in a staff, to manage initiatives and in multi disciplinary environments.
• Life-long learning: respect the necessity for, and have the education and ability to interact in unbiased and lifestyles-long learning in the broadest context of technological trade.

Educational Objectives

The software academic pursuits of the Electrical and Electronics Engineering (EEE) represent major accomplishments that we anticipate our graduates to achieve after three to five years of commencement.

• The Graduates of Electrical and Electronics Engineering will possess an enough competencies in Electrical and Electronics Engineering to satisfy the wishes of stakeholders and excel of their chosen profession with just right communication and managerial advantage.
• The Graduates of Electrical and Electronics Engineering will adapt to emerging applied sciences and apply their occupation confirming to ethical and human values.
• The Graduates of Electrical and Electronics Engineering will always toughen the addiction of self-learn through legitimate development activities.

Programme Specific Outcomes

Graduates of Electrical and Electronics Engineering will be

• Ready to develop advantage to the expectations of the dynamic industrial practices in Electrical Engineering and allied areas.
• Ready to analyze, design and integrate quite a lot of renewable energy sources to meet the energy demand.

Student Achievements

S.NO	STUDENT NAME	NAME OF THE COLLEGE	NATURE OF THE EVENT	DATE (Academic Year)	PRIZE
1	PRATHAP RAJ S	TCE	PROJECT PRESENTATION	2022-23	FIRST PRIZE
2	PRATHAP RAJ S	KONGU ENGINEERING COLLEGE	PROJECT PRESENTATION	2022-23	FIRST PRIZE
3	A.MANISHA, M.PRIYADHARSHINI	SHREE SAKTHI ENGINEERING COLLEGE	PAPER PRESENTATION	2022-23	SECOND PRIZE

S.NO	STUDENT NAME	NAME OF THE COLLEGE	NATURE OF THE EVENT	DATE
1	Ms. PRIYANKA C	TCE	RANDEEP MEMORIAL AWARD BEST OUTGOING STUDENT OF EEE	2014-18
2	Ms. REVATHI S	TCE	RANDEEP MEMORIAL AWARD BEST OUTGOING STUDENT OF EEE	2012-16
3	Ms. HARISUDHA M	TCE	RANDEEP MEMORIAL AWARD BEST OUTGOING STUDENT OF EEE	2013-17

S.NO	NAME	COLLEGE	EVENT	DATE	PRIZE / PARTICIPATION
1	KARTHIK R	Sri Ramakrishna Engineering College	Project Presentation	23/09/2017	Participation
2	RANJITH A P	Dr.N G P Institute Of Technology	Project Presentation	23/09/2017	2nd Prize
3	SUBASH M	Dr.N G P Institute Of Technology	Project Presentation	23/09/2017	2nd Prize
4	RAJESH R	Dr.N G P Institute Of Technology	Project Presentation	26/09/2017	Participation
5	RANJITH A P	Jansons Institute Of Technology	Project Presentation	26/09/2017	Participation
6	KARTHIK R	Jansons Institute Of Technology	Project Presentation	26/09/2017	Participation
7	MANOJ A	Jansons Institute Of Technology	Project Presentation	26/09/2017	Participation
8	VIMAL S I	Jansons Institute Of Technology	Project Presentation	23/09/2017	2nd Prize
9	SELVAM G	Dr.N G P Institute Of Technology	Project Presentation	23/09/2017	2nd Prize

Sports Achievements

SL.NO	STUDENT NAME	EVENT & PROGRAM NAME	ORGANISER	DATE/ DURATION	PARTICIAPTION / PRIZE AWARD
1	Makesh M	Handball	Anna University	15.9.17 to 16.9.17	PARTICIPATION
2	Hariharan. S.V	Handball	Anna University	15.9.17 to 16.9.17	PARTICIPATION
3	Sabesh.S	Handball	Anna University	15.9.17 to 16.9.17	PARTICIPATION
4	Harikrishnan.R	Ball Badminton	KPR IET	4.8.17 to 5.8.17	PARTICIPATION
5	Keerthana L	Volley ball	RVS College	23.8.17 to 24.8.17	PARTICIPATION
6	Samundieswari.S	Ball Badminton	KPR IET	4.8.17 to 5.8.17	PARTICIPATION
7	Tamilselvi.M	Ball Badminton	KPR IET	4.8.17 to 5.8.17	PARTICIPATION
8	Shruthi.N	Ball Badminton	KPR IET	4.8.17 to 5.8.17	PARTICIPATION
9	Prakash.M	Kabadi	RVS College	26.9.17 to 27.9.17	PARTICIPATION
10	Vinoth.M	Kabadi	RVS College	26.9.17 to 27.9.17	PARTICIPATION
11	Ragu.K	Kabadi	RVS College	26.9.17 to 27.9.17	PARTICIPATION
12	Hariharan. S.V	Handball	KPR IET	4.8.17 to 5.8.17	PARTICIPATION
13	Makesh M	Handball	KPR IET	4.8.17 to 5.8.17	PARTICIPATION
14	Mahendran.P	Volley Ball	KIT	15.9.17 to 16.9.17	PARTICIPATION
15	Mugesh.M	Volley Ball	KIT	15.9.17 to 16.9.17	PARTICIPATION
16	Kabilathasan.B	Chess	Anna University	21.9.17	PARTICIPATION
17	Soundarya.G	Ball Badminton	CIT	4.8.17	PARTICIPATION
18	Priyanka.C	Ball Badminton	CIT	4.8.17	PARTICIPATION
19	Veeramani.P	Basket Ball	SRIT	20.8.17	PARTICIPATION

STUDENTS AWARDS

SL.NO	NAME OF THE STUDENT	YEAR & DEPT	ACADEMIC YEAR	NAME OF THE AWARD
1	Mr.K.SIVA	IV EEE	2022-23	RANDEEP MEMORIAL AWARD BEST OUTGOING STUDENT OF EEE
2	Mr.MOHAMMED RAFIQ.L	IV EEE	2021-22	RANDEEP MEMORIAL AWARD BEST OUTGOING STUDENT OF EEE
3	Mr.S.VISHWA	IV EEE	2020-21	RANDEEP MEMORIAL AWARD BEST OUTGOING STUDENT OF EEE
4	AJITHKUMAR K	IV EEE	2019-20	RANDEEP MEMORIAL AWARD BEST OUTGOING STUDENT OF EEE
5	Mr.MAKESH. M	IV EEE	2018-19	RANDEEP MEMORIAL AWARD BEST OUTGOING STUDENT OF EEE

MINI-PROJECT EXPO(2019-2020)

S.No	Roll_No	Name	Batch No	Project Title
1	17EE06	KIRUBA K	Batch 1	Mobile crowd sensing of parking space using geofnecing and activity recoginition
2	17EE12	NIRMAL RAJ M
3	17EE13	OVIYA C
4	17EE14	RAHUL P
5	17EE16	VASANTHKUMAR S
6	17EE10	MANIMEGALAI M	Batch 2	Brake Failure Indicator
7	17EE11	MONISHA S
8	17EE15	RAMPRIYA R
9	17EE201	JENIFERRAJ .L
10	17EE02	AJITHKUMAR B	Batch 3	GSM Based Home Automation using Aurdino
11	17EE04	JAYAPRAKASH G
12	17EE05	JEEVA R
13	17EE08	MAHESHWARAN M
14	17EE09	MANGESHWARAN V
15	17EE205	VISWANATH .A.P
16	17EE01	AARTHI K	Batch 4	SMART-Water monitoring system
17	17EE07	KRISHNAKUMAR A
18	17EE17	KALAIVANI C
19	17EE203	SREEJITH.S
20	17EE204	SUNDARA MOORTHY.R
21	17EE18	LAVANYA L

STAFF ACHIEVEMENT

SL.NO	STAFF NAME	EVENT & PROGRAM NAME	DATE/ DURATION	REMARKS
1	Dr. G. Saravana Kumar	Phd Guidance	12/1/2017	A research scholor had completed Phd under his Guidance ad have a Guidance experience of 10 years
2	Dr. G. Saravana Kumar	Reviewer	12/1/2017	Reviewer for four international journals
3	Dr. G. Saravana Kumar	Project Guidance	12/1/2017	Guided projects for International Association for the exchange of students for Technical experience, students from different countries
4	Dr. G. Saravana Kumar	membership	12/1/2017	Had a lifetime membership with Indian society of technical education, Instrumentation society of India , System society of India, International Association of Engineers , IEEE.
5	S M Devasugan	Enterpreneueship Awareness camp	08/08/2017-10/08/2017	Got funding from Entrepreneurship Development Institute, Ahmadabad for conducting “Entrepreneurship Awareness Camp” two years consequently.
6	S M Devasugan	National Conference on Recent Trends in Electrical Science	14/03/2018	organized conference for the last three years consequently

JOURNAL PUBLICATION

S.NO.	FACULTY NAME	TITLE OF THE PAPER	JOURNAL NAME	N/I	VOLUME
1	Dr.G.Saravanakumar	Design And Modeling Of Improved Controller Using Dc Source Fed Permanent Magnet Synchronous Motor Drive With Enhanced Dc-Dc Converter By Reducing Vibrations For Industrial Applications	Journal Of Vibroenginee Ring		February 2019, Volume 21, Issue 1
		Design And Implementation Of Solar Power Fed Permanent Magnet Synchronous Motor With Improved Dc-Dc Converter And Power Quality Improvement Using Shunt Active Filter For Reducing Vibration In Drive For Industrial Applications	Journal Of Vibroenginee Ring		March 2019, Volume 21, Issue 2
		Tuning of Two Degree of Freedom PID Controller for Integral process with longer delay Time Delay using auto tuning Hybrid Controller	International Journal of Automation and Control	I	ISSN: 17407524
		Power Quality Improvement for Grid Connected Renewable Energy System Using FLC	International Journal of Engineering Trends and Technology	I	Volume 53
		Harmonic Suppression System Using SRF and SIP Control Strategies	International Journal of Innovative Trends in Engineering	I	Volume 35
		Wireless Sensor Network Implemented in EB Board Using IOT	International Journal Of Innovative Science And Applied Engineering Research	I	Volume 13
		performance of a three phase power system employing shape using various control algorithms	International Journal of Printing, Packing and Allied Sciences	I	Vol. 4
		Modified Optimum Dominant Pole placement method(MODPP) for Integral process with large Dead time For Two Degree of Freedom Controllers	International Journal of Recent Trend in Engineering and Research	I	ISSN (Online) 2455-1457Volume 2
		Regenerative Braking in Electric Vehicle Using By-Wire Braking System	CIIT	I	Vol 11 No 3 Mar 2019
		Channel Modelling and Performance Characterization of Underwater Visible Light Communication	CIIT	I	Vol 11 No 3 Mar 2019
2	G.Ramya	Improved Energy Utilization within Smart Grid	CIIT Journal- Data Mining and Knowledge Engineering	N	Vol 10
		An Automatic Plant Irrigation and Fertile Control for Agricultural Farm	International Journal of Programmable Device Circuits and Systems	I	Vol 12, No 02, February 2020.
3	S.M.Devasugan	An Automatic Plant Irrigation and Fertile Control for Agricultural Farm	International Journal of Programmable Device Circuits and Systems	I	Vol 12, No 02, February 2020.
		Automatic Solar Panel Cleaning And Tracking System	CIIT	I	Vol 11 No 3 Mar 2019
4	M.Pradeep Kumar	Iot Based Smart Monitoring And Management System	CIIT		Vol 11 No 3 Mar 2019
4	S. Vivek	Implementation Of Optimised Power Sharing During Heavy Demands Energy Recording Cum Control System	Ciit Journal- Networking And Communication Engineering	N	Vol 10
		Transformer Less Grid Connected Inverter With Active And Reactive Power Control In Distributed Generation System	CIIT		Vol 11 No 3 Mar 2019
5	M.V.Ramya	Automated Map Generating And Ranging Robot	CIIT		Vol 11 No 3 Mar 2019

FACULTIES PAPER PUBLICATIONS

Sl.No	NAME OF THE FACULTY	TITLE	YEAR	NAME OF THE JOURNAL	ISSN NO
1	G.Ramya and M.Pradeepkumar	The Design and Implementation of a Shunt Active Power Line Conditioner Using Some Innovative Control Strategies	2022-2023	Journal of Xidian University	2ISSN No:1001-2400
2	G.Ramya	Power Quality Concerns due to Power System Improvements with Renewable Energy Sources and its Remedies	2022-2023	Journal of Trends in Computer Science and Smart Technology	ISSN 2582-4104
3	G.Ramya and B.Christyjuliet	Design and Implementation of Continuous Inductive Wireless Power Transfer System for Electric Vehicle	2022-2023	CiiT International Journal of Wireless Communication	ISSN 0974-9756
4	M.Pradeep Kumar	Grid frequency regulation by hybrid system using energy storage system	2019-2020	INDIAN JOURNAL OF POWER AND RIVER VALLEY DEVELOPMENT	0019-5537

GRANTS RECEIVED

Sl.No	ACADEMIC YEAR	NAME OF THE PRINCIPAL INVESTIGATOR/CO-INVESTIGATOR	NAME OF THE FUNDING AGENCY	FUNDS PROVIDED (INR IN LAKHS)
3	2020 - 2021	Dr. G. Saravana Kumar	AICTE, New Delhi	4,23,333.0
		Dr.R.Siva Kumar	TNSCST, TAMILNADU	20,000.0
2	2019 - 2020	Dr. G. Saravana Kumar	ENTREPRENEURSHIP DEVELOPMENT INSTITUTE OF INDIA, AHMEDHABAD	20,000.0
		DR.K.KRISHNESHWARI	AICTE, New Delhi	1,27,333.0
1	2018 - 2019	Dr.R.Siva Kumar	AICTE, New Delhi	20,04,152.0
		Dr.R.Siva Kumar	AICTE, New Delhi	2,01,657.0
		Dr.G.Saravana Kumar	ENTREPRENEURSHIP DEVELOPMENT INSTITUTE OF INDIA, AHMEDHABAD	20,000.0
		Dr.G.Saravana Kumar	TNSCST, TAMILNADU	20,000.0
		Dr.G.Saravana Kumar	AICTE, New Delhi	3,26,666.0

Sl.No	Scheme Name	Principal Coordinator	Title	Status	Academic Year	Grant Amount
1	PRERANA – Scheme For Preparing SC/ST Students For Higher Education (AICTE)	Dr. G. Saravana Kumar	GATE Coaching for SC/ST students to Pursue Higher Education	GRANT RECEIVED	2019-20	10 Lakhs
2	DST-NIMAT	Dr. G. Saravana Kumar	Entrepreneurship Awareness Camp	GRANT RECEIVED	2019-20	40,000
3	DST-NIMAT	Dr. G. Saravana Kumar	Entrepreneurship Awareness Camp	GRANT RECEIVED	2018-19	20,000
4	DST-NIMAT	Dr. G. Saravana Kumar	Entrepreneurship Awareness Camp	GRANT RECEIVED	2017-18	20,000

CONTROL AND INSTRUMENTATION LABORATORY

Modern industries have complex control and instrumentation. This laboratory helps to know about the process control and instrumentation which is carried out in industries. Nowadays, industries are fully automated and controlled automatically. The machines are being analysed and recorded by using instrumentation and controlled.

TOTAL COST OF THE LAB:	1, 60,986 Rupees
TOTAL AREA OF THE LAB:	100 Sq.M
STUDENT DETAILS (YEAR/SEM):	III YEAR/ V SEM

ELECTRICAL MACHINES LABORATORY

This lab consists of experiments involving single and three phase transformers, induction machines, synchronous machines and DC machines. This laboratory helps the students by understanding the basic theory and operation of electrical machines, how electrical machines fit into the larger context of power systems. The students can understand using procedures and analysis techniques to perform and describe electromagnetic and electromechanical tests on electrical machines.

TOTAL COST OF THE LAB:	10,49,960 Rupees
TOTAL AREA OF THE LAB:	352 Sq.M
STUDENT DETAILS (YEAR/SEM):	II YEAR EEE / IV SEM, II YEAR ECE / IV SEM, II YEAR ICE / III SEM, III YEAR EEE / V SEM.

POWER SYSTEM SIMULATION LABORATORY

The Power Systems Simulation Laboratory (PSSL) research areas include modeling, simulation, and optimization of electric power systems (reliability); and planning, protection, automation, control and power quality. The lab is equipped with power system simulation software and hardware simulators such as power system micro-models fitted with protective relays, remote terminal units (RTUs), and supervisory control and data acquisition (SCADA).

TOTAL COST OF THE LAB:	1,39,587 Rupees
TOTAL AREA OF THE LAB:	100 Sq.M
STUDENT DETAILS (YEAR/SEM):	IV YEAR/ VII SEM

ELECTRICAL CIRCUITS LABORATORY

In the Electrical Circuit Lab students can create their own electrical circuits and do measurements on it. In the circuits the students can use resistors, light bulbs, switches, capacitors and coils. The circuits can be powered by a AC/DC power supply or batteries. There is an ammeter, voltmeter, wattmeter and an ohmmeter. There is also a version of the Electrical Circuit Lab in which data can be collected. Students can analyze the collected data by creating graphs of the data and use the graphs in the conclusion tool.

TOTAL COST OF THE LAB:	4, 63,520Rupees
TOTAL AREA OF THE LAB:	68 Sq.M
STUDENT DETAILS (YEAR/SEM):	I YEAR/ II SEM

ELECTRONICS LABORATORY

This is the laboratory for Electronic Devices and Circuits. Equipment sets are available for the students to perform basic experiments in electronics area. The lab also is where the senior projects in the Electronics area are built and tested. Several PC’s are also available in the lab, for students and Faculty use, particularly in the circuit analysis, device modelling and VLSI areas.

TOTAL COST OF THE LAB:	1, 56,180Rupees
TOTAL AREA OF THE LAB:	71.2 Sq.M
STUDENT DETAILS (YEAR/SEM):	II YEAR/ III SEM

POWER ELECTRONICS LABORATORY

The laboratory course provides instruction in general lab practices, measurement methods, and with the design and operation of several common circuits relevant to the field of power electronics. It also provides experience with common components such as motors, batteries, magnetic devices, and power semiconductors.

TOTAL COST OF THE LAB:	6, 64,740Rupees
TOTAL AREA OF THE LAB:	68 Sq.M
STUDENT DETAILS (YEAR/SEM):	III YEAR/ VI SEM

ELECTRICAL ENGINEERING PRACTICES LABORATORY

Engineering Practices Lab Manual covers all the basic engineering lab practices in the Civil, Mechanical, Electrical and Electronics areas. This lab is so helpful for the students by understanding the basic knowledge on other engineering departments.

TOTAL COST OF THE LAB:	17,535 Rupees
TOTAL AREA OF THE LAB:	352 Sq.M
STUDENT DETAILS (YEAR/SEM):	I YEAR/ I SEM

DEPARTMENT LIBRARY

In addition to the Central Library, a well-equipped departmental library is functioning in the department catering to the needs of the faculty and students with a total book capacity of 215. To quench the thirst for knowledge of the pupils, the college have three storied a spacious and well – stocked library. The department library has good collection of books journals of national and international. All modern resources such as cd-rom, online database, journals, audio- visual for NPTEL video and web courses are also available. It uses the state-of-the-art technology in its function and services.

Association

NEWSLETTER

Value Added Courses

S.NO	NAME OF THE PROGRM	YEAR	DATE	DURATION (HOURS)	RESOURSE PERSON
1	VACEE01 & ELECTRIC VEHICLE AND BATTERY MANAGEMENT SYSTEM	II, III, IV YEAR	09.01.2023 to 18.02.2023	45 hours	Mr.M.PRADEEP KUMAR
2	VACEE01 & INDUSTRIAL PLANT AUTOMATION	II, III, IV YEAR	05.05.2022 to 07.06.2022	45 hours	Mrs. G.RAMYA
3	VACEE01 & MOBILE APP DEVELOPMENT	II, III, IV YEAR	24/11/2020 to 28/12/2020	30 hours	MP.SAKTHIVEL
4	VACEE01 & MOBILE APP DEVELOPMENT	II YEAR	30/01/2020 to 27/02/2020	30 hours	P.SAKTHIVEL
5	VACEE02 & MOBILE APP DEVELOPMENT	IV YEAR	21/01/2019 to 21/02/2019	30 hours	Mr. S.M.DEVASUGAN
6	VACEE01 & INDUSTRIAL PLANT AUTOMATION	IV YEAR	21/01/2019 to 21/02/2019	48 hours	Mrs.G.RAMYA

Course Outcomes(CO)

ACADEMIC YEAR 2022-2023
REGULATION 2021 & 2017
SEM	Course Code	Course Name	Course Outcome
SEM1	HS3151	Professional English - I	CO1	Understand and produce simple sentences related to everyday situations.
			CO2	Apply appropriate transitions in the oral and written presentation.
			CO3	Analyze grammatical and lexical elements in relation to sentence function and meaning.
			CO4	Evaluate independent learning strategies and study skills.
			CO5	Develop and create own ideas to enrich the communication skills.
SEM1	MA3151	Matrices and Calculus	CO1	Understanding the concept of limit, continuity and detrivatives of a function, Jacobian, Taylor’s series, Lagrange’s multipliers Definite and Indefinite integrals, Improper integrals, multiple integrals and System of simultaneous linear differential equations with constant coefficients
			CO2	Apply the rules to Solving the problems in differentiation ,finding Maxima and Minima of functions of one and two variables, calculate partial differentiation of implicit functions and applying integration techniques to evaluate the ordinary and multiple integrals and integration of irrational functions
			CO3	To Acquires skills to analyse Euler’s theorem, solving integrals using various techniques of integration, Determining convergence/divergence of improper integrals differential equations by method of variation of parameter, obtaining the solution to the undetermined coefficients
			CO4	Evaluation of simultaneous differential equations, Taylor’s series, maxima and minima, Ordinary and multiple integrals using polar co-ordinates
			CO5	To create and combining different techniques to obtain the solutions to the real life problems involved in differentiation, partial differential equations, integration, Taylor’s series
SEM1	PH3151	Engineering Physics	CO1	To understand the Stress-strain ,Oscillatory motion forced and damped oscillations thermal conduction, convection and radiation Black body radiation  Compton effect
			CO2	To apply the thermal insulation like heat exchangers, refrigerators, ovens and solar water heaters.
			CO3	To analyze the coordination number and packing factor for SC, BCC, FCC, HCP and diamond structures
			CO4	To evaluate the numerical aperture and acceptance angle
			CO5	To demonstrate the torsion pendulum cantilever uniform and non-uniform bending
SEM1	CY3151	Engineering Chemistry	CO1	Applying the advanced modern scientific and engineering techniques as well as tools to assess the removal of hardness, zeolite process, applications of adsorption on pollution abatement, minimize the utilization of catalysts, formation of steel, urban problems related to energy and role of secondary & fuel batteries for our future.
			CO2	Analyze of the structure and function of EDTA methods, ion exchange resin, Langmuir‘s adsorption isotherm in contact theory & kinetics of surface unimolecular reactions, enzyme catalysis, - thermal analysis and cooling curves of phase rules, manufacture of metallurgical coke, flue gas analysis of exhaust gases, controlled nuclear fission & nuclear fusion reactions.
			CO3	Evaluation of internal and external treatment process, adsorption of solute from solutions, catalytic poisoning and promoters in synthesis process, Pattinson process, synthetic petrol by Bergius process and controlled breeder reactor.
			CO4	Describing real life application of modern scientific tools for solving problems related to desalination of brackish water, catalytic convertor, Nichrome & stainless steel manufacturing, petroleum refining, solar energy conversion and future renewable energy sectors.
SEM1	GE3151	Problem Solving and Python Programming	CO1	Examine python syntax and semantics and be fluent in the use of python flow control and functions
			CO2	Demonstrate proficiency in handling Threads, File and Exceptions
			CO3	Analyze python program using core data structure like Lists, dictionaries and use regular Expressions.
			CO4	Interpret the concepts of GUI and WEB programming as used in Python.
			CO5	Implement exemplary application related to Database Programming with ORM in python.
SEM1	GE3171	Problem Solving and Python Programming Laboratory	CO1	Student should be able to understand the basic concepts scripting and the contributions of scripting language
			CO2	Examine the core data structures like lists, dictionaries, tuples and sets in Python to store, process and sort the data.
			CO3	Identify the external modules and import specific methods form them
			CO4	Demonstrate proficiency in handling Strings and File Systems.
			CO5	Ability to explore python especially the object oriented concepts, and the built in objects of Python
SEM1	BS3171	`Physics and Chemistry Laboratory	CO1	To understand and also remember the basic concepts of wastewater generation, collection system, wastewater quality and standards. Also demonstrate the experimental skills.
			CO2	To apply the basic principles for wastewater, conductometric, pH and potentiometric methods for the determination of the concentration as well as amount of the compounds present in the sample.
			CO3	To analyses and interpret the data for quantitative estimation of the materials present in the given samples.
			CO4	Design and Interpret field data in case of actual field problems related to wastewater & contaminations sources and also prepare the suitable models of real life applications using RO, zeolite & removal of materials by adsorbent.
SEM2	HS3251	Professional English - II	CO1	Able to understand the listening exercises to enhance practical knowledge in communicative English
			CO2	To apply and enrich knowledge in the literacy skills.
			CO3	Analyzing to communicate and write appropriately in varied formal and informal contexts.
			CO4	Ability to evaluate the issues and find the rudiments of the problem individually and as a group
			CO5	To design their abilities as creative thinkers, readers and writers
SEM2	MA3251	Statistics and Numerical Methods	CO1	Remembering the concept of Eigen values and Eigen vectors, Scalar potential, gradient, divergence, directional derivatives, curl , analytic functions Understanding the concept of Cayley-Hamilton Theorem, Angle between two surfaces, work done by force and independent of the path of the curve, Necessary and sufficient condition for analyticity and Cauchy’s integral theorem and formula and Transform of elementary, unit step and unit impulse function Laplace Transform and inverse transform of simple functions,
			CO2	Applying Cayley-Hamilton Theorem, transformations to diagonalize similar and symmetric matrices properties of Eigen values and Eigen vectors, canonical form for Quadratic form by orthogonal reduction, line, surface and volume integra,Solenoidal and irrottational vectors, Harmonic conjugates, bilinear transformations ,conformal mapping, and complex integration, real integral using residue theorem, transform of periodic function
			CO3	Analyze Orthogonal vectors, Nature of the Quadratic form, Green, Stokes and Gauss divergence theorems, Properties of analytic functions, Taylor and Laurent series, Singularities, residue theorem and contour integration, Inverse Laplace transform, solution of linear second order differential equations with constant coefficients Shifting, initial and final value and convolution theorem
			CO4	Evaluation of circuit using atrices, curve length, Area and volume of irregular shapes using line, surface and volume integral , time average power flow density using Vectors graphical image of approximation with Taylor series, application of Laplace transform in cryptography , solution of linear second order differential equations with constant coefficients using real time applications
			CO5	Describing real life application of Eigen values and vectors in image processing, and cryptography vector concepts, image processing using bilinear transformations , distinguishing singularities and poles, Laplace transform and convolution theorem
SEM2	PH3202	Physics for electronics engineering	CO1	To make the students to understand the basics of dielectric materials and insulation.
			CO2	To understand the electrical properties of materials including free electron theory, applications of quantum mechanics and magnetic materials
			CO3	To instil knowledge on physics of semiconductors, determination of charge carriers and device applications
			CO4	To establish a sound grasp of knowledge on different optical properties of materials, optical displays and application
			CO5	To inculcate an idea of significance of nano structures, quantum confinement and ensuing nano device applications.
SEM2	BE3255	BASIC CIVIL AND MECHANICAL ENGINEERING	CO1	Understanding profession of Civil and Mechanical engineering.
			CO2	CO2: Summarise the planning of building, infrastructure and working of Machineries.
			CO3	CO3: Apply the knowledge gained in respective discipline
			CO4	CO4: Illustrate the ideas of Civil and Mechanical Engineering applications.
			CO5	CO5: Appraise the material, Structures, machines and energy.
SEM2	GE3251	Engineering Graphics	CO1	Ability to understand the basics Projection of Points , Planes, Solids, Section of Solids , Isometric Projection and Development surfaces for simple solids.
			CO2	Ability to Apply the basics Projection of Points , Planes, Solids, Section of Solids , Isometric Projection and Development surfaces for simple solids.
			CO3	Able to analyze the basics Projection of Points , Planes, Solids, Section of Solids , Isometric Projection and Development surfaces for simple solids.
			CO4	Able to Explore Simple Solids generated by one modeling tool.
			CO5	Ability to design simple Solids generated by one modeling tool.
SEM2	GE3271	Engineering Practices Laboratory	CO1	Ability to apply basic machining operations, welding, plumbing, sheet metal operations in order to produce the desired work output.
			CO2	Ability to analyse outputs of machining operations like turning, facing, milling and plumbing works, sheet metal operations, soldering and home electrical works.
			CO3	Ability to conduct the experiments as individual or team by using CNC and CAD/CAM.
			CO4	Ability to make an effective report based on experiments
SEM2	EE3271	Electric circuit laboratory	CO1	Use simulation and experimental methods to verify the fundamental electrical laws for the given DC/AC circuit (Ex 1)
			CO2	Use simulation and experimental methods to verify the various electrical theorems (Superposition, Thevenin , Norton and maximum power transfer) for the given DC/AC circuit (Ex 2-5)
			CO3	Analyze transient behavior of the given RL/RC/RLC circuit using simulation and experimental methods (Ex 6)
			CO4	Analyze frequency response of the given series and parallel RLC circuit using simulation and experimentation methods (Ex 7-8)
SEM2	EE3251	ELECTRIC CIRCUIT ANALYSIS	CO1	Explain circuit’s behavior using circuit laws.
			CO2	CO2: Apply mesh analysis/ nodal analysis / network theorems to determine behavior of the given DC and AC circuit
			CO3	CO3: Compute the transient response of first order and second order systems to step and sinusoidal INPUT
			CO4	Compute power, line/ phase voltage and currents of the given three phase circuit
			CO5	Explain the frequency response of series and parallel RLC circuits AND magnetically coupled circuits
SEM2	GE3272	COMMUNICATION LABORATORY	CO1	Speak effectively in group discussions held in a formal/semi formal contexts
			CO2	:Discuss, analyse and present concepts and problems from various perspectives to arrive at suitable solutions
			CO3	Write emails, letters and effective job applications
			CO4	Write critical reports to convey data and information with clarity and precision
			CO5	:Give appropriate instructions and recommendations for safe execution of tasks
SEM2	GE3252	Tamils technology	CO1	To know about the technologies during the sangam age
			CO2	To know about the design and construction technology during he sangam age To know about the develpoment of at Tamilnadu during the British period
			CO3	To understand about the uses of the metals of Gold ,Copper,Gems during the sangam age To know the evidance described in silappathigaram
			CO4	To know about the Agriculture amd irrigation technology during the sangam age
			CO5	To know about th development of scientific Tamil &Tamil Computing
SEM 3	MA3303	PROBABILITY AND COMPLEX FUNCTIONS	CO1	Understand the fundamental knowledge of the concepts of probability and have knowledge of standard distributions which can describe real life phenomenon
			CO2	Understand the basic concepts of one and two dimensional random variables and apply in engineering applications.
			CO3	To develop an understanding of the standard techniques of complex variable theory in particular analytic function and its mapping property
			CO4	To familiarize the students with complex integration techniques and contour integration techniques which can be used in real integrals
			CO5	To acquaint the students with Differential Equations which are significantly used in engineering problems.
SEM 3	EE3301	ELECTROMAGNETIC FIELDS	CO1	Visualize and explain Gradient, Divergence, and Curl operations on electromagnetic vector fieldsand identify the electromagnetic sources and their effects.
			CO2	Compute and analyse electrostatic fields, electric potential, energy density along with their applications
			CO3	Compute and analyse magneto static fields, magnetic flux density, vector potential along with their applications
			CO4	Explain different methods of emf generation and Maxwell’s equations
			CO5	Explain the concept of electromagnetic waves and characterizing parameters
SEM 3	EE3302	DIGITAL LOGIC CIRCUITS	CO1	Explain various number systems and characteristics of digital logic families
			CO2	Apply K-maps and Quine McCluskey methods to simplify the given Boolean expressions
			CO3	Explain the implementation of combinational circuit such as multiplexers and de multiplexers - code converters, adders, subtractors, Encoders and Decoders
			CO4	Design various synchronous and asynchronous circuits using Flip Flops
			CO5	Explain asynchronous sequential circuits and programmable logic devices, Use VHDL for simulating and testing RTL, combinatorial and sequential circuits
SEM 3	EC3301	ELECTRON DEVICES AND CIRCUITS	CO1	Explain the structure and operation of PN junction devices (diode, Zener diode, LED and Laser diode)
			CO2	Design clipper, clamper, half wave and full wave rectifier, regulator circuits using PN junction diodes
			CO3	Analyze the structure and characteristics BJT, FET, MOSFET, UJT, Thyristor and IGBT
			CO4	Analyze the performance of various configurations of BJT and MOSFET based amplifier
			CO5	Explain the characteristics of MOS based cascade and differential amplifier,. Explain the operation of various feedback amplifiers and oscillators
SEM 3	EE3303	ELECTRICAL MACHINES - I	CO1	Apply the laws governing the electromechanical energy conversion for singly and multiple excited systems.
			CO2	Explain the construction and working principle of DC machines.
			CO3	Interpret various characteristics of DC machines
			CO4	Compute various performance parameters of the machine, by conducting suitable tests
			CO5	Draw the equivalent circuit of transformer and predetermine the efficiency and regulation
			CO6	Describe the working principle of auto transformer, three phase transformer with different types of connections
SEM 3	CS3353	C PROGRAMMING AND DATA STRUCTURES	CO1	Develop C programs for any real world/technical application
			CO2	Apply advanced features of C in solving problems.
			CO3	Write functions to implement linear and non–linear data structure operations
			CO4	Suggest and use appropriate linear/non–linear data structure operations for solving a given problem.
			CO5	Appropriately use sort and search algorithms for a given application.
			CO6	Apply appropriate hash functions that result in a collision free scenario for data storage and retrieval.
SEM 3	EC3311	ELECTRONIC DEVICES AND CIRCUITS LABORATORY	CO1	Analyze the characteristics of PN, Zener diode and BJT in CE,CC,CB configurations experimentally
			CO2	Analyze the characteristics of JFET and UJT experimentally
			CO3	Analyze frequency response characteristics of a Common Emitter amplifier experimentally
			CO4	Analyze the characteristics of RC phase shift and LC oscillators experimentally
			CO5	Analyze the characteristics of half-wave and full-wave rectifier with and without filters experimentally
			CO6	Analyze the characteristics of FET based differential amplifier experimentally
			CO7	Calculate the frequency and phase angle using CRO experimentally
			CO8	Analyze the frequency response characteristics of passive filters experimentally
SEM 3	EE3311	ELECTRICAL MACHINES LABORATORY - I	CO1	Construct the circuit with appropriate connections for the given DC machine/transformer
			CO2	Experimentally determine the characteristics of different types of DC machines
			CO3	Demonstrate the speed control techniques for a DC motor for industrial applications.
			CO4	Identify suitable methods for testing of transformer and DC machines.
			CO5	Predetermine the performance parameters of transformers and DC motor.
			CO6	Understand DC motor starters and 3-phase transformer connections
SEM 3	CS3362	C PROGRAMMING AND DATA STRUCTURES LABORATORY	CO1	Use different constructs of C and develop applications
			CO2	Write functions to implement linear and non-linear data structure operations
			CO3	Suggest and use the appropriate linear / non-linear data structure operations for a given problem
			CO4	Apply appropriate hash functions that result in a collision free scenario for data storage and Retrieval
			CO5	Implement Sorting and searching algorithms for a given application
SEM 4	GE3451	ENVIRONMENTAL SCIENCES AND SUSTAINABILITY	CO1	To recognize and understand the functions of environment, ecosystems and biodiversity and their conservation
			CO2	To identify the causes, effects of environmental pollution and natural disasters and contribute to the preventive measures in the society
			CO3	To identify and apply the understanding of renewable and non-renewable resources and contribute to the sustainable measures to preserve them for future generations.
			CO4	To recognize the different goals of sustainable development and apply them for suitable technological advancement and societal development.
			CO5	To demonstrate the knowledge of sustainability practices and identify green materials, energy cycles and the role of sustainable urbanization.
SEM 4	EE3401	TRANSMISSION AND DISTRIBUTION	CO1	Understand the structure of power system, computation of transmission line parameters for different configurations.
			CO2	Model the transmission lines to determine the line performance and to understand the impact of Ferranti effect and corona on line performance.
			CO3	Do Mechanical design of transmission lines, grounding and to understand about the insulators in transmission system.
			CO4	Design the underground cables and understand the performance analysis of underground cable.
			CO5	Understand the modelling, performance analysis and modern trends in distribution system.
SEM 4	EE3402	LINEAR INTEGRATED CIRCUITS AND APPLICATIONS	CO1	Explain monolithic IC fabrication process
			CO2	Explain the fabrication of diodes, capacitance, resistance, FETs and PV Cell.
			CO3	Analyze the characteristics and basic applications (inverting/non-inverting amplifier, summer, differentiator, integrator, V/I and I/V converter) of Op-Amp
			CO4	Explain circuit and applications of op-amp based instrumentation amplifier, log/antilog amplifier, analog multiplier /divider, active filters, comparators, waveform generators, A/D and D/A converters
			CO5	Explain Functional blocks, characteristics and applications of Timer, PLL, analog multiplier ICs
			CO6	Explain the applications of ICs in Instrumentation amplifier, fixed and variable voltage regulator,SMPS and function generator SMPS and function generator
SEM 4	EE3403	MEASUREMENTS AND INSTRUMENTATION	CO1	Ability to understand the fundamental art of measurement in engineering
			CO2	Ability to understand the structural elements of various instruments.
			CO3	Ability to understand the importance of bridge circuits
			CO4	Ability to understand about various transducers and their characteristics by experiments.
			CO5	Ability to understand the concept of digital instrumentation and virtual instrumentation by experiments.
SEM 4	EE3404	MICROPROCESSOR AND MICROCONTROLLER	CO1	Ability to write assembly language program for microprocessor and microcontroller
			CO2	Ability to design and implement interfacing of peripheral with microprocessor and microcontroller
			CO3	Ability to analyze, comprehend, design and simulate microprocessor based systems used for control and monitoring
			CO4	Ability to analyze, comprehend, design and simulate microcontroller based systems used for control and monitoring
			CO5	Ability to understand and appreciate advanced architecture evolving microprocessor field
SEM 4	EE3405	ELECTRICAL MACHINES - II	CO1	Ability to understand the construction and working principle of Synchronous generator
			CO2	Ability to understand the construction and working principle of Synchronous Motor
			CO3	Ability to understand the construction and working principle of Three Phase Induction Motor
			CO4	Acquire knowledge about the starting and speed control of induction motors.
			CO5	To gain knowledge about the basic principles and working of Single phase induction motors and Special Electrical Machines.
SEM 4	EE3411	ELECTRICAL MACHINES LABORATORY - II	CO1	Ability to understand and analyze EMF and MMF methods
			CO2	Ability to analyze the characteristics of V and Inverted V curves
			CO3	Acquire hands on experience of conducting various tests on alternators and obtaining their performance indices using standard analytical as well as graphical methods. to understand the importance of Synchronous machines
			CO4	Acquire hands on experience of conducting various tests on induction motors and obtaining their performance indices using standard analytical as well as graphical methods. to understand the importance of single and three phase Induction motors
			CO5	Ability to acquire knowledge on separation of losses
SEM 4	EE3412	LINEAR AND DIGITAL INTEGRATED CIRCUITS LABORATORY	CO1	Ability to understand and implement Boolean Functions
			CO2	Ability to understand the importance of code conversion
			CO3	Ability to Design and implement circuits with digital ICs like decoders, multiplexers, register.
			CO4	Ability to acquire knowledge on Application of Op-Amp
			CO5	Ability to Design and implement counters using analog ICs like timers, VCOs and digital ICs like Flip-flops and counters
SEM 4	EE3413	MICROPROCESSORS AND MICROCONTROLLERS LABORATORY	CO1	Ability to write assembly language program for microprocessor.
			CO2	Ability to write assembly language program for microcontroller
			CO3	Ability to design and implement interfacing of peripheral with microprocessor and microcontroller
			CO4	Ability to analyze, comprehend, design and simulate microprocessor based systems used for control and monitoring..
			CO5	Ability to analyze, comprehend, design and simulate microcontroller based systems used for control and monitoring.
SEM 5	EE8501	POWER SYSTEM ANALYSIS	CO1	Develop network matrices and model the power system under steady state operating condition
			CO2	Analyze power flow problems using Gauss-Seidel and Newton Raphson methods
			CO3	Analyze short circuit characteristics of power system network under symmetrical fault conditions
			CO4	Analyze short circuit characteristics of power system network under unsymmetrical fault conditions
			CO5	Analyze stability behaviour of power system using numerical methods
SEM 5	EE8551	MICROPROCESSORS AND MICROCONTROLLERS	CO1	Explain the architecture of 8085 microprocessor and 8051 microcontroller
			CO2	Describe the assembly language instruction format, addressing modes and instruction groups
			CO3	Develop and simulate examples of simple assembly language programmes
			CO4	Describe interfacing and configuration of peripheral devices
			CO5	Explain the functioning of LED 7-segment multiplexed display, servo- motor controller, stepper motor controller and washing machine controller
SEM 5	EE8552	POWER ELECTRONICS	CO1	Explain the static and switching characteristics of power semiconductor devices such as power diode, transistor, MOSFET, IGBT, SCR, TRIAC and IGCT.
			CO2	Describe the PWM switching characteristics of single-phase and three-phase rectifiers, inverters, AC voltage regulators, and DC choppers such as Buck, Boost, Buck-Boost, Cuk and Resonant converters.
			CO3	Develop a mathematical model of single-phase and three-phase, half/ semi, and fully controlled rectifiers, inverters, and Buck, Boost, Buck-Boost Cuk and Resonant converter.
			CO4	Determine the performance parameters such as efficiency, ripple factor, distortion factor, power factor and transformer utilization factor of a single and three-phase rectifier circuit.
			CO5	Calculate the parameters such as inductance, capacitance and resistance etc. for the given specifications for Buck, Boost, Buck-Boost, Cuk and Resonant converter circuits.
SEM 5	EE 8591	DIGITAL SIGNAL PROCESSING	CO1	Apply mathematical tools to classify systems and signals, sampling techniques, quantization and quantization error
			CO2	Analyze the discrete time systems using Z transforms and Inverse Z transforms
			CO3	Apply the Radix-2 Decimation In Time (DIT) and Decimation In Frequency (DIF) Fast Fourier Transform (FFT) algorithms to Compute the Discrete Fourier Transform
			CO4	Design Finite Impulse Response (FIR) filters using windowing techniques and Infinite Impulse Response (IIR) filters using impulse invariant and bilinear transformation
			CO5	Explain the various architectures of Digital Signal Processors and their addressing modes
SEM 5	CS8392	OBJECT ORIENTED PROGRAMMING	CO1	Explain the principles of Object Oriented Programming
			CO2	Demonstrate the Java programs with the concepts of inheritance and interfaces
			CO3	Build Java applications using exceptions and I/O streams
			CO4	Develop Java applications with threads and generics classes
			CO5	Develop interactive Java programs using swings
SEM 5	OMD551	BASICS OF BIOMEDICAL INSTRUMENTATION	CO1	Understand the origin of bio potentials and electrodes for its measurement.
			CO2	Describe the biosignal characteristics and the electrode placement for various physiological recording
			CO3	Design bio amplifier for various physiological recording.
			CO4	Perform various techniques for measuring non-electrical parameters.
			CO5	Apply different techniques for biochemical measurements
SEM 5	EE8511	CONTROL AND INSTRUMENTATION LABORATORY	CO1	Develop the mathematical model of machines, sensors and transducers
			CO2	Implement and demonstrate the working of P,PI and PID controllers for a linear second order system
			CO3	Demonstrate the working of transducers , measure power and energy using energy meter and measure unknown resistance, inductance and capacitance using bridges
			CO4	Analyse the stability of given system by root locus and Bode plot methods using MATLAB simulation.
			CO5	Design and analyse Compensators, ADC, DAC and Instrumentation amplifier for given specification and demonstrate its operation
SEM 5	HS8581	PROFESSIONAL COMMUNICATION	CO1	Inculcate soft skills required by the industry
			CO2	Use rhetorical strategies to excel in formal discussions and presentations
			CO3	Enhance their employability skills to become workforce ready
			CO4	Fine tune interview etiquette to succeed in interviews
SEM 5	CS8383	OBJECT ORIENTED PROGRAMMING LABORATORY	CO1	Develop, implement and validate java programs for various practical applications.
			CO2	Develop an applications using event handling.
SEM 6	EE8601	SOLID STATE DRIVES	CO1	Explain the transient dynamics and steady state operation of the given motor load system
			CO2	Compute the firing angle/duty cycle, speed, and torque for rectifier and chopper fed DC drives, given the motor and load specifications
			CO3	Select an efficient control technique for Induction motor fed AC drives for the specified load system
			CO4	Calculate performance parameters for synchronous motor fed AC drives, for the specified load system
			CO5	Develop the electrical equivalent model of closed loop control system of DC motor, with current and speed controllers
SEM 6	EE8602	PROTECTION AND SWITCHGEAR	CO1	Analyse the effects of various abnormalities in power system, grounding methods and their protection schemes
			CO2	Understand the operating principle and characteristics of different electromagnetic relays
			CO3	Analyse the protection schemes for transformer, generator, motor, bus bar and transmission line protection
			CO4	Select suitable schemes for protection of transformer and transmission line using static and numerical relays
			CO5	Analyse the arcing and arc interruption phenomenon and the operating principle of different types of circuit breakers
SEM 6	EE8691	EMBEDDED SYSTEMS	C01	Discuss the differences between general computing and embedded systems, and the methodologies used in developing embedded systems
			C02	Describe the various communication protocols used in embedded systems
			C03	Describe the basic concepts of real-time operating systems
			C04	Explain development of embedded systems, using washing machine, ATM machine, Digital camera and smart card reader as examples
			C05	Compare the performance of RMA, EDF, DMA, SJF, FCFS, LCFS algorithms for the given task set
SEM 6	EE8005	SPECIAL ELECTRICAL MACHINES	C01	Ability to model and analyze power electronic systems and equipment using computational software.
			C02	Ability to optimally design magnetics required in special machines based drive systems using FEM based software tools.
			C03	Ability to analyse the dynamic performance of special electrical machines
			C04	Ability to understand the operation and characteristics of other special electrical machines.
			C05	Ability to design and conduct experiments towards research
SEM 6	EE8661	POWER ELECTRONICS AND DRIVES LABORATORY	CO1	Draw the VI characteristics of SCR and generate the Gate Pulse using R, RC and UJT.
			CO2	Plot the characteristics of MOSFET, GTO, IGBT and IGCT
			CO3	Simulate the single phase AC to DC half and fully controlled converter.
			CO4	Draw the output response of step up and step down MOSFET based chopper and simulate a single phase IGBT based PWM inverter.
			CO5	Plot the output response of AC voltage controller and simulate the Power Electronic Circuits.
			CO6	Plot the characteristics of PMBLDC motor
SEM 6	EE8681	MICROPROCESSORS AND MICROCONTROLLERS LABORATORY	CO1	Develop ALP for arithmetic operations, sorting, and number system conversions with 8085 Microprocessor and 8051 Microcontroller.
			CO2	Make use of different I/O interfacing with 8085
			CO3	Model serial interfacing and generate various waveform using DAC with 8085 processor
			CO4	Develop assembly level program for various application using 8051 Microcontroller
SEM 6	EE8611	MINI PROJECT	CO1	Identify the real time issues through extensive literature survey
			CO2	Identify an appropriate techniques / tools / resources for implementing the project and solve the problem
			CO3	Work as a member or leader in a team to manage the project, apply ethical principles and commit to individual responsibilities
			CO4	Design and develop their own innovative prototype for the ideas through modern engineering tools
			CO5	Demonstrate the project ideas and solutions by technical reports
SEM 7	EE8701	HIGH VOLTAGE ENGINEERING	CO1	Understand various types of over voltages in power system and apply the suitable protection methods
			CO2	Analyze the nature of Breakdown mechanism in solid, liquid and gaseous dielectrics
			CO3	Develop the modules for generating and measuring high voltages and currents
			CO4	Develop high voltage testing setup for the electrical power apparatus as per International and Indian standards
SEM 7	EE8702	POWER SYSTEM OPERATION AND CONTROL	CO1	Describe various reactive power and voltage control methods used in power systems
			CO2	Explain the various load characteristics with the help of load curve and load duration curve
			CO3	Determine the steady state frequency deviation and the change in tie-line power flow for a given sudden change in load
			CO4	Compute optimal unit commitment and economic dispatch solution for a system consisting of ‘n’ generating units, with specified constraints
			CO5	Explain various operating states of a power system and the control actions required to obtain secured operation
SEM 7	EE8703	RENEWABLE ENERGY SYSTEMS	CO1	Examine some of the benefits and drawbacks to using renewable energy sources instead of coal.
			CO2	Understand the working of wind power plants and integration of grid connected wind power plants
			CO3	Understand the working of solar photovoltaic systems with maximum power point tracking systems.
			CO4	Understand the working of bio-mass energy and hydro power systems.
			CO5	Understand the basics of tidal energy, wave energy, ocean-thermal energy, hydrogen energy and its energy storage systems.
SEM 7	OBT751	ANALYTICAL METHODS & INSTRUMENTATION	CO1	To impart knowledge on the concepts spectrometry
			CO2	To impart knowledge on the concepts molecular spectrometry
			CO3	Understand NMR and Mass spectrometry
			CO4	To impart knowledge on the separatio methods
			CO5	Understand Electro analysis and surface microscopy
SEM 7	GE8071	DISASTER MANAGEMENT	CO1	To impart knowledge on the concepts of Disaster, Vulnerability and Disaster Risk reduction (DRR
			CO2	To enhance understanding on Hazards, Vulnerability and Disaster Risk Assessment prevention and risk reduction
			CO3	To develop disaster response skills by adopting relevant tools and technology
			CO4	Enhance awareness of institutional processes for Disaster response in the country
			CO5	Develop rudimentary ability to respond to their surroundings with potential Disaster response in areas where they live, with due sensitivity
SEM 7	GE8077	TOTAL QUALITY MANAGEMENT	CO1	Ability to apply TQM concepts in a selected enterprise
			CO2	Ability to apply TQM principles in a selected enterprise
			CO3	Ability to understand Six Sigma and apply Traditional tools, New tools, Benchmarking andFMEA
			CO4	Ability to understand Taguchi's Quality Loss Function, Performance Measures and applyQFD, TPM, COQ and BPR
			CO5	Ability to apply QMS and EMS in any organization
SEM 7	EE8711	POWER SYSTEM SIMULATION LABORATORY	CO1	Compute the transmission lines and model the network using MATLAB
			CO2	Compute the network matrices and perform power flow problems using Gauss-Seidel and Newton Raphson methods
			CO3	Perform short circuit studies under symmetrical / unsymmetrical fault conditions and analyze the stability of the system
			CO4	Compute optimal dispatch solution of the power system and analyze the dynamic behavior of single are and multi area system using MATLAB
			CO5	Apply the state estimation technique and also analyze the electromagnetic transient behavior of the power system network
SEM 7	EE8712	RENEWABLE ENERFGY SYSTEMS LABORATORY	CO1	Explain the V-I characteristics and efficiency of 1 kW solar PV system with stand-alone and grid connection by using experiment setup and MATLAB simulation study.
			CO2	Describe the performance and assessment of micro wind energy generator usingMATLAB simulation.
			CO3	Explain the performance and assessment of Fuel cell by conducting experiment and MATLAB simulation study
			CO4	Analyze the performance and assessment of solar-wind hybrid system by conducting experiment and MATLAB simulation study.
			CO5	Analyze the various types of intelligent controller for hybrid system using MATLAB Simulink.
SEM 8	GE8076	PROFESSIONAL ETHICS IN ENGINEERING	CO1	To Understand the human values
			CO2	Ability to apply Engineering ethics
			CO3	Ability to apply Engineering As Social Experimentation
			CO4	To Understand the Safety, Responsibilities And Rights
			CO5	Ability to apply Engineering ethics
SEM 8	EE8017	HIGH VOLTAGE DC TRANSMISSION	CO1	To Understand the Global Issues
			CO2	Generation of over voltages in Laboratories
			CO3	Measurement of over voltage
			CO4	Nature of breakdown mechanism in solid ,liquid and gaseous dielectrics
			CO5	Testing of power apparatus and insulation coordination
SEM 8	EE8811	PROJECT WORK	CO1	Apply the fundamental knowledge of engineering to solve real-time problems.
			CO2	Apply the modern tools in engineering for validating the results of the proposed system
			CO3	Function as an individual and as a member or leader in teams of multidisciplinary settings, make effective presentation and communicate effectively.
			CO4	Apply ethics and management principles in the field of engineering
			CO5	To engage in lifelong learning in the broadest context of technological change.