FACULTY RESEARCH PUBLICATIONS (FRP) 

List of Publications Details for Academic Year 2020-21

2020-21 Publications

 

List of Publications Details for Academic Year 2019-20

2019-20 Publications List

 

List of Publications Details for Academic Year 2018-19

2018-19 Publications

 

List of Publications Details for Academic Year 2017-18

2017-18 Publications

 

ECE Grants category_14-2-2022_website-converted

 

 

 

Name of the faculty	ProjectTitle	Project TypeResearch/ Consultancy	Funding Agency	Amount(Rs)	Duration
Prof.CHVRS GopalaKrishna Dr.K.S.Nayanathara Dr. K.Lalithendra	Development of Multi band S/X/Ka band feed system	Research	NRSC(ISRO)	33 Lakhs	2 Years(Start Date: 31-08-2017)
Dr. T. Esther Rani	Design of self-sleep circuit to minimize standby power for VLSI and Embedded applications	Research	UGC	Rs 46.88 Lakhs	3Yrs (March 2015 to Feb 2018)
Dr. K. Yedukondalu	Study and implementation of self-organizedfemto Cells for Broadband services to indoor users in heterogeneous environment	Research	AICTE	RS 23.87 Lakhs	3 Years (Start Date: 02-08-2017)
Dr. T. Esther Rani	Implementation of DSP algorithms in FPGA and ARM controller card for nuclear pulse processing Applications	Consultancy	ECIL	6.6 Lakhs	9 Months (Start Date: 13-01-2016)
Dr. T. Esther Rani	PDK under SMDP _C2SD Project(under non disclosure agreement)	Consultancy	SCL	Tools worth 1 Crore	10 Years (Start Date: 10-07-2017)
Prof. CHVRS Gopala Krishna	Design of 13m Dual Reflector Receive Only Antenna	Consultancy	COMSAT Systems Pvt. Ltd.	3.32 Lakhs	6 Months (Start Date: 01-10-2018)
Dr. T. Esther Rani	Hands on Embedded System Design using Arduino	Seminar Grant	AICTE	1 Lakh	1 Year (Start Date: 08-06-2017)
Dr. KS Nayanathara	Recent Advances in Radar Systems for Special Applications	AICTE – ISTE Faculty/ Refresher Programme	AICTE – ISTE	3 Lakhs	6 Months (Start Date: 12-03-2017)
Prof. P. Subramanyam	Development of Robust and Low cost unmanned aerial vehicles	Research	Institutional funding CVR College of Engineering	15 Lakhs	2014-15 onwards
CVR College	New Gen Innovation Entrepreneurship Development Center	Product Development	DST	2.87 Crores	2018-19
Prof. S Sengupta	Data Acquisition System (DAS) Software	Research and Consultancy	DRDO	8.7 Lakhs	12 Months (Start Date:21-11-12)
Prof. S Sengupta	Development of orthogonal Frequency Division multiplexing (OFDM)	Research and Consultancy	DRDO	9 Lakhs	10 Months (Start Date:30-11-12)
Prof. S Sengupta	Data Acquisition System (DAS) Hardware	Research and Consultancy/td>	DRDO	8.8 Lakhs	12 Months (Start Date:14-12-12)
Prof. Nayanathara KS	MODROBS	Infrastructure Upgradation	AICTE	10.8 Lakhs	1 Year (Start Date:26-03-13)

Consultancy projects: This department has entered into prestigious contracts with ECIL and DRDO for developing high end products. DRDO, Hyderabad has sanctioned three projects worth ` 28 lakhs and all the three have been successfully completed

1. OFDM for DRDL

It is a new modulation technique for baseband modulation to increase the capacity of high speed radio channels. It was implemented on FPGA by using the state of the art tools and delivered to DRDL which they used with proper engineering works for radio communication between missile and control center. Value of the order Rs. 9, 00,000/-.The OFDM hardware configuration using FPG1.Data Acquisition Hardware for DRDL This is a system for connecting various types of analog and digital inputs through a universal interface to connect to the processing unit for data logging and the limit checks. It was delivered to DRDL and implemented on FPGA for integration for their flight trials feedback. Value of the order was Rs. 9, 00,000/-.The final DAS product deliverable at DRDL1.Data Acquisition EngineThis is a software running on CPU implemented on FPGA with universal interface as described in item 2 above for storing of data and display. This system was delivered to DRDL. Value of the order was Rs. 9,00,000/-.Development of Robust and Low Cost Unmanned Aerial Vehicles [ U A Vs ]for   Surveillance & Commercial ApplicationsR &D  workThe project is funded by the college management. The college management has already funded Rs 6.5 lakhs towards this project. The above area was chosen  for R & D work  because, in due course,  the work  becomes an inter- disciplinary  subject and can draw both  faculty and students of  different departments.  Presently,  the  faculty of   ECE department  has initiated this program  involving  seven  M.Tech.(ES)   students ,  naming it as “ UAV PROJECT”.1.A sensitive Thrust measuring Instrument has been developed to measure  the thrust produced by the Motors used in UAVs.     It plays a key role  in the design and fabrication of UAVs .  We used this instrument  to develop UAVs for Agricultural Applications mentioned above.1.A  UAV Test Jig (first stage )  has been designed and developed  to minimize  the imbalances   in  UAVs. UAV Test Jig is used to  fine tune UAVs   to fix its  performance.

• • Aerial survey of Agricultural land

Conducting Aerial Surveyplays a significant role in Agriculture. With  aGoPro camera  fitted on UAV,  our  UAV team  developed an application to conduct Aerial Survey of agricultural land.This idea  is useful – by taking videos  of the land periodically-  comparing and with previous records.     By this,  we can extract  valuable information like,  distribution of water to the plants in the agricultural  field  ,  pest infected zones  in the land ,  crop yield .  This is the cheapest method to conduct aerial survey of lands.

• Animal and Bird menace

Animal and Bird menace  is a common problem to  farmers.  While animals   like wild  pigs  spoil the crops,   birds eat away  most of the produce  ( grains, sunflower seeds  etc.).This menace can be minimized by scaring them with huge sounds  and/or by shining intense light into their eyes.   UAV Team developed a solution to this  problem  by  mounting  Air Horn and Powerful Light Source   on the UAV  and making it  hover in the sky randomly  in the farmer’s land,  to scare away  birds   and  animals.

• Building High Payload UAVS   (Application : Spraying pesticides  from UAVs
  Designing a UAV  to Spray pesticides in the agricultural requires addressing a number of  design metrics like payload Vs.  the power source,  capacity of the pesticide tank ,  time of flight per one time charge of batteries      Presently,  we could carry a payload of  nearly one Gallon of pesticide on UAV  and spray

SDR (Software Defined Radio): The lab has universal software radio peripherals (USRPs), each of which interfaces with a desktop computer via USB interface. Each radio has the capability to communicate in various frequency bands ranging from hundreds of megahertz to few giga Hertz.Consultancy Projects

• Multi-Channel Analyzer
  ECIL has contacted CVR college of Engineering for developing the Multi-Channel Analyzer (MCA). This is an R&D project of ECIL. MCAs are used in nuclear instruments for different applications like Isotope Identification, Alpha/Gamma spectroscopy, Liquid scintillators, , which demand wide resolution. Basically the analog inputs. Types of radiation detection are processed and then digitized by an ADC. The digital value of various channels are plotted on a histogram of the nuclear of counts various pulse height, i.e.,pulse height spectrum. The range of pulse heights will be analyzed by the MCA for various types of detection. An FPGA having micro controller &DSP is used for peak detection, counting and histogram calculation. martFusion2 FPGA SoCconsiting of flashbased FPGA fabric 166MHz ARM Cortex-M3 processor and communications interfaces on a single chip.It consists of the following modules.
• Signal Conditioning Module
• ADC
• LCD Interface/Driver
• Keyboard Interface
• JTAG
• TFT Module
• Digital Output/Inputs
• Digital Controller for Variable Speed drive
  The college is actively interacted with ECIL for the development of “Digital Controller for Variable Speed drive” for the applications of supplying coolant for Nuclear Reactors. The technicalities of the design and fabrication of HMI software and hardware is under development. HMI is practically an industrial PC with CPU integrated behind the monitor. It is mounted on the cabinet door of the Unit. HMI software is to be developed in visual basic or visual C. Screens consist of mimic diagrams, block diagrams, soft switches for ON, OFF, RESET operations etc., motor parameter list, energy consumption, control parameters like kp, ki, annunciator windows etc. HMI communicates with controller board, IO board on RS485 with MODBUS protocol and with control room by Ethernet.
• Intelligent Eye for the Blind and Visually impaired with a hearing aid
  The objective of this work is to help blind persons and the visually impaired, to read text label on product packages, bus routes, medicine bottles and handouts. For this purpose image to text conversion can be performed using image processing algorithms and several techniques to recognise character and conversion of this character to text and then to speech is required. The text regions must be localized automatically from which the character recognition must be done and then the text extraction. Each letter must be recognized by learning method. The extracted text then be converted into speech by using Speech Application Programming Interface(SAPI).

This Project has been applied to NASSCOM Social Innovation Forum and cleared two levels.

• Intrusion Detection System

A very powerful processor with high capacity GPU processing images for object detection and localization for perimeter protection of vital installations. This system has been demonstrated to ECIL and we are awaiting a commercial order from ECIL for this.

• Target Tracking by Thermal Imaging

A system has been developed for proof of concept for tracking of target by a missile for which a demonstration was given recently to BDL with thermal imaging. We are discussing with BDL about the scope of the work.

• IT in Agriculture

A system has been designed for studying health and need for input for plants in agricultural cultivation by multispectral analysis of the airborne images. Discussions are in progress with ECIL for marketing the product through agricultural universities.

Patents Granted/published

S.No	Author	Title	Publisher	Patent Number	Date
1	Dr. T. Esther Rani	Self-Sleep Device for VLSI and Embedded Application	The Official Journal of Patent Office	2376/CHE/2013 A	30-05-2014
2	Mr. Srinivas RaoPerumalla and Dr.YedukondaluKamatham	A Method for Two Dimensional Digital Image Skeletonization and its Implementation on FPGA	The Official Journal of Patent Office	201741028574A	15-09-2017
3	Dr. Peddi Subramanyam, MrKaaki Anil Kumar and MsBadam Vidya Reddy	Creating a Uni-Axial- Testing – Platform Environment( UATP Environment) for developing copters for applications	The Official Journal of Patent Office	201741041118 A	30-11-2017
4	Dr. Peddi Subramanyam, MrKaaki Anil Kumar and MsBadam Vidya Reddy	Custom Experiments with UAV s on Uni-Axial Testing – Platform in UATP Environment	The Official Journal of Patent Office	201741041119 A	30-11-2017
5	Dr. Peddi. Subramanyam and MsBadam Vidya Reddy	Using Uni- Axial- Testing – Platform to Design and build copters for applications in UATP Environment	The Official Journal of Patent Office	201741041120 A	30-11-2017
6	Dr. Peddi Subramanyam,MsBadam Vidya Reddy and Mr.Kaaki Anil Kumar	Crisis Management with State Space Controller for Predictive Flight in Professional UAVApplications	The Official Journal of Patent Office	201741028415 A	30-11-2017
7	Dr. Peddi. Subramanyam and MsBadam Vidya Reddy	UAV TEST JIG-An Effective Design and Testing Platform to Build Precision Copters for Professional Applications	The Official Journal of Patent Office	201741028416 A	30-11-2017
8	Dr. V. Arthi	A wheezing detecting device	The Official Journal of Patent Office	201841036882 A	12-10-2018
9	Dr. S. Praveen Chakkravarthy	A device for assisting a disabled person for converting commands given by fingers	The Official Journal of Patent Office	201841043110 A	23-11-2018
10	Dr.Selvendran S	Fiber Bragg Grating Based Non-Zero Dispersion Shifted Fiber for Novel Ultra High Negative Dispersion Compensator	The Official Journal of Patent Office	201841011221 A	17/05/2019

• The Department has the Institutional Life Membership of IETE. Ten faculty members have IEEE Membership
• The Department received three projects (Development of Orthogonal Frequency Division Multiplexing, Development of Data Acquisition System Hardware and Development of Data Acquisition System Software) from DRDO worth of Rs 27 lakhs and successfully completed. The Department received a project called Software Implementation of Multi Channel Analyzer (MCA) from ECIL worth of 6.6 Lakhs and successfully completed. The Department also received a project on Development of S/X/KA multiband feed from NRSC on 31-08-2017 of worth 33 Lakhs.
• The Department has received a grant of Rs. 10.8 lakhs from AICTE as part of MODROBS. The AICTE granted 12 lakhs as part of IIPC (Industry Institute Partnership Cell) to develop the systems for the industry usage in the areas of Video-Analytics System for security in vital installations and to conduct workshops/conference.
• The Department is actively involved in the development of Unmanned Aerial Vehicles (UAVs) with Dr. P. Subramanyam as the principal investigator. The project provides a centralized platform for providing a collaborative research and development environment with faculty and students. College has invested an amount of Rs 6.5 lakhs in this project. Dr. T Esther Rani and Dr. Humaira Nishat applied for AICTE start-up contest.
• The Department is conducting various Short Term Courses, Faculty Development Programs, Workshops and Guest lecturers for the benefit of External and Internal faculty members and students under IEEE Chapter, IETE and Department Students Association (Technolites). The Department encourages the faculty members to enhance their knowledge by attending the Faculty Development Programs and Short Term Courses conducted by other reputed institutions.
• Centre for VLSI design with Cadence tools was established in 2003 in the name of Prof. Magdy A. Bayoumi, Fellow IEEE ,University of  Lousiana , USA.

Labs

Electronic Circuits Lab – I

Basic Simulation lab

Electronic Circuits Lab – II

Digital Logic Design Lab

Linear IC Applications Lab

Analog Communications Lab

Digital Communications Lab

Digital Signal Processing Lab

Microcontrollers Lab

Microwave Engineering Lab

VLSI System Design lab,

Research Centre

Design lab

Project Lab

PG labs

RTL Simulation and Synthesis with PLDs Lab

VLSI Physical Design Lab

Analog and Digital CMOS VLSI Design Lab

VLSI Design Verification and Testing Lab

Embedded programming Lab

Operating systems Lab

Programmable SOC Lab

Advanced Microcontroller Lab

 

Other

 Department Library

Computer Centre

Seminar Hall

Conference Room

 

• •  No. of Class Rooms : 11
  • No. of Class/Tutorial Rooms : 03
  •  No. of Tutorial Rooms : 01
  •  No. of Faculty Rooms : 13
  •  No. of labs for UG Programme : 13
  •  No. of Labs for PG Programme : 03
  •  Research Center : 01
  •  Projects Lab : 01
  •  Design Lab:01
  •  Computer Center:01
  •  Department Library : 01
  •  No. of Seminar Halls : 01
  •  No. of Computers : 320
  •  No. of Printers : 16

B.Tech. Programme

The department started with an intake of 60 in 2001,  Intake increased to

• • 90 in 2002
  • 120 in 2004
  • 180 in 2011
  • 240 in 2012
  • Accredited  for 3 years by the NBA in 2007
  • Re accredited for another two years from January 2013
  • Third accreditation is under Tier 1 from July 2016 for a period of two years
  • College has been accredited by NAAC for period of 5 years with “A” grade from July 2016 onwards, ECE department is part of the accredited programme.
  • Accredited  for 3 years by the NBA in 2019
  • Accredited  for 6 years by the NBA in 2022

M.Tech. Programme

• M.Tech (VLSI Design) Started with intake of 18 in 2006
• M.Tech (ES) Started with intake of 18 in 2009
• M.Tech (VLSI Design)  Intake increased to  36 in 2011
• The college was granted autonomy for three years by JNTU-H in 2011
• UGC autonomy for a period of six years from 2014-15 onwards
• Department’s own course structure and syllabus initiated from the batch of 2011 onwards
• Choice Based Credit System (CBCS) based Course structure commenced from 2015-16 batch onwards

B.Tech Electronics and Communication Engineering

Programme Educational Objectives

Program educational objectives are broad statements that describe the career and professional accomplishments that the program is preparing graduates to achieve.

The B. Tech. students of Electronics and Communication Engineering program are prepared for a broad range of technical careers by achieving the following objectives:

PEO Number	Program Educational Objectives (PEO) of Electronics and Communication Engineering
PEO 1	The graduates of the programme should be successful in professional career and/or higher education by acquiring the knowledge in the fundamentals of Electronics and Communication Engineering encompassing contemporary technologies and professional skills
PEO 2	The  graduates of the programme should be able to provide solutions to real life problems which are economical and socially acceptable.
PEO 3	The graduates of the of the programme should exhibit good communication skills and lead a team with human values and professional ethics by engaging in lifelong learning.

Programme Outcomes (POs):

Program outcomes are statements that describe what students are expected to know and be able to do by the time of graduation.

On completion of the four year B.Tech  program  in the Electronics & Communication Engineering.

A student will be able to:

1. Engineering knowledge: Apply the knowledge of mathematics, science, engineering fundamentals and an engineering specialization to the solution of complex engineering problems.
2. Problem analysis: Identify, formulate, review research literature, and analyze complex engineering problems reaching substantiated conclusions using first principles of mathematics, natural sciences, and engineering sciences.
3.  Design/development of solutions: Design solutions for complex engineering problems and design system components or processes that meet the specified needs with appropriate consideration for the public health and safety, and the cultural, societal, and environmental considerations.
4. Conduct investigations of complex problems: Use research-based knowledge and research methods including design of experiments, analysis and interpretation of data, and synthesis of the information to provide valid conclusions.
5.  Modern tool usage: Create, select, and apply appropriate techniques, resources, and modern engineering and IT tools including prediction and modeling to complex engineering activities with an understanding of the limitations.
6. The engineer and society: Apply reasoning informed by the contextual knowledge to assess societal, health, safety, legal and cultural issues and the consequent responsibilities relevant to the professional engineering practice.
7. Environment and sustainability: Understand the impact of the professional engineering solutions in societal and environmental contexts, and demonstrate the knowledge of, and need for sustainable development.
8. Ethics: Apply ethical principles and commit to professional ethics and responsibilities and norms of the engineering practice.
9. Individual and team work: Function effectively as an individual, and as a member or leader in diverse teams, and in multidisciplinary settings.
10. Communication: Communicate effectively on complex engineering activities with the engineering community and with society at large, such as, being able to comprehend and write effective reports and design documentation, make effective presentations, and give and receive clear instructions.
11. Project management and finance: Demonstrate knowledge and understanding of the Engineering and management principles and apply these to one’s own work, as a member and leader in a team, to manage projects and in multidisciplinary environments.
12. Life-long learning: Recognize the need for, and have the preparation and ability to engage in independent and life-long learning in the broadest context of technological change.

Programme Specific Outcomes (PSOs):

1. Professional Skills: Apply the concepts of electronics and communication Engineering to solve problems in various areas like electronics, communication, signal processing, RF & microwave, VLSI, Embedded etc.
2. Problem Solving Skills: Solve complex electronics and communication engineering problems using hardware and software tools..
3. Skill Development: Apply verbal, reasoning, data interpretation, quantitative and communication skills to solve engineering problems.

R18 Course Outcomes (COs):

Code number	Name of the Course	Course Outcomes
I B.Tech- I semester
68101	English	At the end of the course a student will be able to: CO1. Write coherent, unified, and complete sentences. CO2.Identify word meaning and know the use of familiar lexical items.. CO3. Understand explicit and implicit information and draw inferences for the given task. CO4. Communicate according to place, relation and medium. CO5. Know, emphasize, conceptualize, comprehend, apply, synthesize, and evaluate the given text, and other authentic texts such as magazines/newspaper articles.
68102	Mathematics – I	At the end of the course a student will be able to: CO1. Find rank of a matrix and solve a linear system of equations. CO2. Evaluate eigen values, eigen vectors and find the Modal matrix under a linear transformation. CO3. Evaluate surface areas and volumes of solids of revolution, Apply Mean value theorems in relevant engineering domains. CO4. Determine the convergence/divergence of a given infinite series. CO5. Find the extremum of a multi-variate function with or without constraints.
68104	Applied Physics	At the end of the course a student will be able to: CO1. The concepts involving the physics of lasers, lasing action, construction and working of He-Ne laser, semiconductor laser and propagation of light through optical fibers. CO2. Schrodinger wave equation and its application, free electron models, formation of bands in solids and electron occupation in bands. CO3. Estimation of charge carrier concentration in semiconductors and understand the formation of pn junction, construction and characteristics of different diodes like rectifying, Zener & Tunnel diodes. CO4. Transistor current components, characteristics of CB, CE and CC configurations, also understand the construction, working and characteristics of JFET & MOSFET. CO5. The principles of nanotechnology, types of nanomaterials, synthesis: Top-down and bottom-up methods, characteri-zation: XRD, SEM & TEM.
65101	Problem Solving Through ‘C‘	At the end of the course a student will be able to: CO1. Ability to understand programming concepts and analyze a problem, design a solution and develop an algorithm to solve it. CO2. Ability to modularize a problem and implement the solution using basic programming concepts, control statements and functions. CO3. Ability to evaluate the use of macros and implement solutions to complex problems using recursion and homogeneous data types. CO4. Ability to implement pointers for problems of relevance and use different dynamic memory allocation methods. CO5. Design and implement appropriate user defined structures to a given problem definition and apply various functions for processing files.
63102	Engineering Drawing	At the end of the course a student will be able to: CO1. Know the Standard conventions, design scale for drawing engineering components and draw geometrical constructions. CO2. Apply fundamentals of theory of projections, and draw orthographic projections of points and lines in any position. CO3. Construct orthographic projections of simple planes and regular solids in any position. CO4. Draw sectional views and developments of various basic 3D objects. CO5. Construct isometric views and construct multi view drawings of simple and complex 3D objects.
68131	English Language and Communication Skills Lab – I	At the end of the course a student will be able to: CO1 . Emerge as good speakers and listeners CO2 . Develop critical and analytical thinking. CO3 . Write effectively. CO4 . Develop effective presentation skills using the multimedia tools. CO5 . Neutralize mother tongue.
68134	Applied Physics Lab	At the end of the course a student will be able to: CO1. Get an understanding of errors and their estimation in determination of Physical quantities. CO2. Get an understanding of the laws of physics associated with the experiments. CO3. Would develop skills in handling various kinds of laboratory instruments. CO4. Get awareness of the magnitudes of the different physical parameters and learn how to Present the observations and results at the end of an experiment. CO5. Get an understanding of the physical concepts involved in the experiments.
65131	Computer Programming Lab	At the end of the course a student will be able to: CO1. Familiarity of programming environment in Linux operating system and to translate given algorithms to a working and correct program. CO2. Ability to interpret syntax errors as reported by the compilers and to be able to identify and correct logical errors encountered at run time using debuggers like GDB. CO3. Ability to write iterative as well as recursive programs. CO4. Ability to represent data in arrays, pointers, strings and structures and manipulate them through a program and use them in defining self-referential structures or structures or designing a user defined data type. CO5. Ability to implement file processing functions and be able to store, retrieve and process data in text and binary formats.
63131	Engineering Workshop	At the end of the course a student will be able to: CO1. Acquire skills of basic engineering trades like Carpentry, Tin smithy etc. CO2. Demonstrate an understanding of and comply with workshop safety regulations. CO3. Identify and use marking out tools, hand tools, measuring equipment and to work to prescribed tolerances. CO4. Apply the knowledge of the above trades in their day –to – day activities. CO5. Select appropriate equipment and consumables for required applications.

Code number	Name of the Course	Course Outcomes
I B.Tech- II semester
68152	Mathematics – II	At the end of the course a student will be able to: CO1. Solve the first order O.D.E and appreciate their applications. CO2. Solve higher order O.D.E and appreciate their applications in engineering problems. CO3. Evaluate double and triple integrals and apply them in engineering problems. CO4. Evaluate the line, surface and volume integrals and converting them from one to another. CO5. Solve first order linear and non-linear P.D.E
68156	Environmental Science	At the end of the course a student will be able to: CO1. Define the concepts of ecosystem and emphasize the importance of biodiversity and its conservation. CO2. Gain knowledge on natural resources and advantages and disadvantages on renewable energy sources and technologies. CO3. Develop awareness on pollution control technologies and global atmospheric changes. CO4. Emphasize the importance of Environmental impact assessment and green technologies. CO5. Understand about Environmental legislation and the concept of Sustainable development.
68153	Computational Mathematics	At the end of the course a student will be able to: CO1. Find the real roots of Algebraic and Transcendental equations. CO2. Understand interpolation and obtain approximate solutions for evenly and unevenly spaced data. CO3. Fit a given data to a linear/non-linear curve and appreciate the concepts of numerical differentiation and integration. CO4. Develop the skill of finding approximate solutions to problems arising in first order initial value problems in differential equations. CO5. Find finite difference solutions of certain P.D.E.
68155	Engineering Chemistry	At the end of the course a student will be able to: CO1. Rationalise periodic properties such as ionization potential, electron affinity, oxidation states and electronegativity. CO2. Understanding the importance of EMF, corrosion and treatment of water. CO3. List major chemical reactions that are used in the synthesis of molecules. CO4. Analyze microscopic chemistry in terms of atomic and molecular orbitals and intermolecular forces. CO5. Would develop ability to handle situations involving problems associated with chemical substances in engineering situations.
65151	Data Structures Thtrough ‘C’	At the end of the course a student will be able to: CO1. Understand basic concepts, Design and implement linear data structures such as linked lists, stacks, queues by using C as the programming language using static or dynamic implementations. CO2. Able to understand and analyze, differentiate and implement elementary algorithms: sorting, searching and hashing and will also be able to compare and contrast algorithms with respect to time and space complexity. CO3. Able to implement nonlinear data structures like trees and graphs and apply appropriate data structures to designing solutions to real world complex problems. CO4. Demonstrate sound understanding of graph traversals and ability to implement various algorithms on graphs and interpret the results. CO5. Ability to implement hashing techniques for storing and searching efficiently.
68181	English Language and Communication Skills Lab – II	At the end of the course a student will be able to: CO1. Evolve as effective communicators and will develop narrative skills. CO2. Emerge as decision makers and autonomous learners. CO3. Develop critical and analytical skills. CO4. Gather ideas and information, and organize them coherently. CO5. Develop leadership and team building skills.
68183	Computational Mathematics Lab	At the end of the course a student will be able to: CO1. Write a program to find real roots of Algebraic and Transcendental equations. CO2. Write a program to determine functional value at any given intermediate point of the given data for an unknown function by interpolation. CO3. Write a program for a best fit curve by Least Squares method for a given set of data points. CO4. Write a program for numerical integration by Trapezoidal, Simpson‟s 1/3 and 3/8 rules. CO5. Write a program to find the value of the solution of a given first order initial value problem of O.D.E. CO6. Write a program to find the value of the solution One-dimensional Heat equation and two-dimensional Laplace equation.
68185	Engineering Chemistry Lab	At the end of the course a student will be able to: CO1. Estimate rate constants of reactions from concentration of reactants/products as a function of time. CO2. Measure molecular/system properties such as surface tension, viscosity, conductance of solutions, redox potentials, absorbance. CO3. Understand the concepts of distribution and adsorption phenomena. CO4. Synthesize a small drug molecule. CO5. Develop analytical skills and learn how to analyze and present results of an experiment.
65181	Data Structures Thtrough ‘C’ Lab	At the end of the course a student will be able to: CO1. Understand basic data structures such as arrays, linked lists, stacks and queues. CO2. Ability to interpret syntax errors as reported by the compilers and to be able to identify and correct logical errors encountered at run time using debuggers like GDB. CO3. Apply Algorithm for solving problems like sorting, searching, insertion and deletion of data. CO4. Solve problems involving graphs, trees and heaps. CO5. Apply Hashing techniques for efficient storage and retrieval of data.
67181	IT Workshop Lab	At the end of the course a student will be able to: CO1. Identify the peripherals of PC, assemble and disassemble PC components. CO2. Install the System software MS Windows, Linux and required device drivers. CO3. Work with productivity tools for Word Processing, Spread Sheet and Presentations along with Designing basic Web Pages. CO4. Understand the main features of the SCILAB program development environment to enable their usage in higher learning. CO5. Interpret and visualize simple mathematical functions and operations using plots or display.

Code number	Name of the Course	Course Outcomes
II B.Tech- I semester
64201	Electronic Circuits-I	At the end of the course a student will be able to: CO1. Analyze different rectifier circuits with and without filters. CO2. Analyze clippers, clampers, RC circuits and comparator circuits. CO3. Analyze different biasing circuits for BJTs and FETs. CO4. Analyze different small signal BJT amplifiers at low frequencies. CO5. Analyze different small signal BJT amplifiers at high frequencies and analyze different single stage JFET amplifiers.
64202	Signals and Systems	At the end of the course a student will be able to: CO1. Characterize and analyze the properties of continuous and discrete time signals and systems. To apply the knowledge of linear algebra topics like vector space, basis, inner product, norm and orthogonal basis to signals. dimension, CO2. Represent continuous signals and systems in the Frequency domain using Fourier Series and Fourier transform. CO3. Understand the filter characteristics of LTI systems, correlation and the concept of sampling and reconstruction of analog signals. CO4. Apply the Laplace transforms to analyze continuous-time signals and systems. CO5. Apply Z- transforms to analyze discrete-time signals and systems.
64203	Digital Logic Design	At the end of the course a student will be able to: CO1. Perform number system conversions, binary arithmetic and simplify Boolean functions. CO2. Design various combinational logic circuits. CO3. Design and analyze various synchronous sequential logic circuits. CO4. Understand various digital logic families and semiconductor memories. CO5. Implement logic functions using PLDs, prepare ASM charts.
68202	Mathematics – III	At the end of the course a student will be able to: CO1. Develop the skill of evaluating Laplace and Inverse Laplace transform of functions which are required to solve linear systems under initial conditions. CO2. Develop the skill of evaluating Fourier transform offunctions which are required to solve Partial Differentialequations under given conditions. CO3. Understand the concepts of analyticity and integration of complex functions, construction of analytic functions if apart of it is known. CO4. Evaluate integrals using Cauchy’s Integral formulae arounda simple closed contour. CO5. Find the Taylor’s and Laurent’s series expansion of complexfunctions and to evaluate contour integrals using Residue theorem.
62205	Fundamentals of Electrical Engineering	At the end of the course a student will be able to: CO1. Apply knowledge of mathematics, science, and engineering to the analysis and design of electrical circuits. CO2. Solve the complex AC and DC electric circuits by applyingthe suitable principles. CO3. Understand the concept and applications of Resonance and able to solve the problems using various network theorems CO4. Apply the concepts of two port network parameters and transient response of electrical circuits in the real time applications. CO5. Acquire sufficient knowledge about the basic principles of various Electrical Machines.
64231	Electronic Circuits-I Lab	At the end of the course a student will be able to: CO1. Design and analyze different rectifier circuits with and without filters. CO2. Design and analyze clippers, clampers and RC circuits. CO3. Design biasing circuits for BJTs. CO4. Design and analyze different small signal BJT, JFET amplifiers at low frequencies CO5. Use diode and transistor for different applications.
64232	Basic Simulation Lab	At the end of the course a student will be able to: CO1. Simulate generation and operation of different types of signals and systems. CO2. Apply transform techniques for the analysis of signals. CO3. Simulate convolution, correlation and spectral densities of deterministic signals. CO4. Simulate response of LTI system for various input signals. CO5. Determine the stability of the systems using pole-zero plots in s-domain and z-domain using simulation.
64233	Digital Logic Design Lab	At the end of the course a student will be able to: CO1. Design and implement various combinational circuits using logic gates. CO2. Design and implement various sequential circuits.
68231	Reasoning and Data Interpretation Lab	At the end of the course a student will be able to: CO1. Understand the concepts of Statement-Argument, Assumption and Course of Action and use reasoning as a tool to match statements with arguments etc. CO2. Look at data and find links and patterns, link data with conclusions and study data logically. CO3. Study problem situations and use reasoning as a tool to find solutions. CO4. Nurture the ability to use reasoning as a skill in real time problems solving. CO5. Analyze and infer the data with respect to trend and case based.

Code number	Name of the Course	Course Outcomes
II B.Tech- II semester
64251	Linear Control Systems	At the end of the course a student will be able to: CO1. Understand concept of control systems and different methods to find transfer function of a system. CO2. Understand system transient and steady state response and their specifications. CO3. Analyze the system stability time domain and frequencydomain. CO4. Design controller units and compensators. CO5. Analyze system considering Initial conditions.
64252	Electromagnetic Theory and Transmission Lines	At the end of the course a student will be able to: CO1. Solve electrostatic problems. CO2. Solve magnetostic problems. CO3. Apply Maxwell’s equations to solve electromagnetic problems. CO4. Analyze the behaviour of uniform plane wave propagation in various media and at the boundaries of different media. CO5. Analyze and design transmission lines for variousapplications through calculations and Smith chart.
64253	Electronic Circuits – II	At the end of the course a student will be able to: CO1. Analyze multistage amplifiers using BJT and FET. CO2. Analyze feedback amplifiers using different feedback topologies. CO3. Analyze LC and RC oscillators. CO4. Analyze power amplifiers with different conduction angle. CO5. Analyze tuned amplifiers with different resonance circuits.
64254	Computer Organization and Architecture	At the end of the course a student will be able to: CO1. Understand the major components of computer system including CPU, memory and I/O. CO2. Familiar with data representation, addressing modes and instruction set of a computer. CO3. Perform computer arithmetic operations and under control unit operations. CO4. Understand the organization of memory and memory management hardware. CO5. Understand the concepts of pipelining and I/O organization. CO6. Design an interconnection networks and multiprocessors.
64255	Probability Theory and Stochastic Processes	At the end of the course a student will be able to: CO1. Perceive the various probability concepts, and theorems. CO2. Apply the concepts of various random variables to model random experiments. CO3. Evaluate the statistical operations performed on single and multiple random variables. CO4. Evaluate temporal and spectral characteristics of random process. CO5. Analyze the performance of communication systems with random inputs.
64281	Linear Control Systems Lab	At the end of the course a student will be able to: CO1. Measure resistance, capacitance and inductance. CO2. Analyze the characteristics of servo motors and synchros. CO3. Analyze the effect of feedback and compensation techniques in control systems.
64282	Electronic Circuits-II Lab	At the end of the course a student will be able to: CO1. Design and analyze multi stage amplifiers using BJTs and FETs. CO2. Design and analyze feedback amplifiers using different topologies. CO3. Design and analyze RC and LC oscillators. CO4. Design and analyze power amplifiers with different conduction angles. CO5. Design and analyze Tuned amplifiers.
62284	Electrical Engineering Lab	At the end of the course a student will be able to: CO1. Verify the network theorems practically and can apply wherever is necessary in the circuit analysis. CO2. Understand about phenomenon of resonance and study the response of series and parallel resonant circuits. CO3. Verify the two port network parameters practically. CO4. Determine the efficiency of a transformer. CO5. Analyze the magnetization characteristics of dc shunt generator.
68281	Verbal Ability Lab	At the end of the course a student will be able to: CO1. Students will be empowered in English language skills and meet the demands of the global work environment. CO2. A Students will have enriched vocabulary. CO3. Students will be proficient in answering reasoning based questions. CO4 : Students will develop the ability to write grammatically correct sentences. CO5 : Students will enhance their professional writing skills through business letters.
68282	Gender Sensitization	At the end of the course a student will be able to: CO1. Students will have developed a better understanding of important issues related to gender in contemporary India. CO2. Students will be sensitized to basic dimensions of the biological, sociological, psychological and legal aspects of gender. This will be achieved through discussion of materials derived from research, facts, everyday life, literature and film. CO3. Students will attain a finer grasp of how gender discrimination works in our society and how to counter it. CO4. Students will acquire insight into the gendered division of labour and its relation to politics and economics. CO5. Men and women students and professionals will be better equipped to work and live together as equals. CO6. Students will develop a sense of appreciation of women in all walks of life. CO 7 : Through providing accounts of studies and movements as well as the new laws that provide protection and relief to women, the textbook will empower students to understand and respond to gender violence.

Code number	Name of the Course	Course Outcomes
III B.Tech- I semester
64301	Analog Communications	At the end of the course a student will be able to: CO1. Understand the basic communication system fundamentals, various modulation and demodulation techniques. CO2. Describe various carrier suppression modulation and demodulation techniques. CO3. Classify the angle modulation techniques, explain their principles of generation and detection, properties and analyses of angle modulated waves. CO4. Analyze the effect of noise on different types of analog communication systems. CO5. Understand the concept of radio receivers. Also, explain the concept of thesampling process and various pulse modulation techniques.
64302	Antennas and Wave Propagation	At the end of the course a student will be able to: CO1. Understand the antenna parameters and design linear wire antenna. CO2. Design antenna arrays for desired antenna characteristics. CO3. Design helical, reflector, horn and microstrip antennas. CO4. Understand antenna measurement techniques. CO5. Understand different modes of wave propagation.
64303	Linear IC Applications	At the end of the course a student will be able to: CO1. Understand the basics of OP-AMP 741 IC and analyze op-amp circuits. CO2. Infer the DC and AC characteristics of operational amplifiers & its effect on the output. CO3. Design linear applications using the op-amp. CO4. Analyze and design oscillator and comparator circuits. CO5. Design multivibrators circuits using 555 Timer, Classify and comprehend the working principle of data converters.
64304	Microprocessors and Microcontrollers	At the end of the course a student will be able to: CO1. Understand the architecture and organization of 8086. CO2. Explore the internal architecture of 8051 and to create ready to run programs using 8051 assemblers. CO3. Understand basic embedded C programming and working of timers/counters to develop microcontroller-based systems. CO4. Describe the serial communication feature of 8051 and how to write interrupt handler programs. CO5. Interface real-world devices such as LCDs, Keyboards, ADC and DAC with 8051.
64305	Biomedical Electronics	At the end of the course a student will be able to: CO1. Know the electrical activity in the human body and different type of transducers. CO2. Analyze the bio-signal and different types of amplifiers. CO3. classify the different types of bio-signal recording systems. CO4. Understand the working principle of various specialized medical equipment. CO5. Understand the advanced techniques used in biomedical instrumentation.
64306	Digital Modeling Using HDL	At the end of the course a student will be able to: CO1. Understand the capabilities of HDLs and learn Verilog constructs. CO2. Differentiate and write circuit descriptions in gate level and data flow modelling styles. CO3. Describe circuits using behavioural modelling and write test benches for simulation. CO4. Describe circuits at transistor level using switch-level modelling and learn to use UDPs. CO5. Understand delay models in Verilog and learn synthesis aspects.
64307	Electronic Measurements and Instrumentation	At the end of the course a student will be able to: CO1. Know the usage of various measuring instruments, minimize errors associated and evaluate their performance characteristics. CO2. Design bridge circuits and evaluate resistance, inductance, capacitance, voltage, current, power factor and energy. CO3. Generate various types of signals and measure physical quantities of signal. CO4. Measure amplitude, frequency and phase of waveform with an oscilloscope. CO5. Select appropriate passive or active transducers for measurement of strain, displacement, velocity, angular velocity, temperature and pressure.
64331	Analog Communications Lab	At the end of the course a student will be able to: CO1. Implement and analyze different analog communication systems. CO2. Understand the significance of sampling theorem. CO3. Understand multiplexing concepts.
64332	Linear IC Applications Lab	At the end of the course a student will be able to: CO1. Analyze and design different circuits using OP-AMP 741 IC. CO2. Analyze and design different circuits using Timer 555 IC. CO3. Analyze and design PLL Applications and converters.
64333	Microcontrollers Lab	At the end of the course a student will be able to: CO1. Implement the Assembly Language Programs to perform various operations in 8051 Micro-Controller. CO2. Implement time delay between the events by programming the timers/interrupts in 8051 Micro-Controller. CO3. Transmit the message serially at different baud rates using UART operation in 8051 Micro-Controller. CO4. Interface various I/O Devices like DC Motor, LCD & LED to 8051 Micro-Controller. CO5. Interface various I/O Devices like Keyboard, LCD, 7-Segment Display and DC Motor, Stepper Motor and Servo Motor to development boards.
68332	Effective Technical Communication Lab	At the end of the course a student will be able to: CO1. Attain proficiency in features of Technical communication. CO2. Develop expertise in reading skills. CO3. Use English language appropriately to write effective reports, e-mails, notes and summaries. CO4. Become proficient in Analytical and Critical Thinking Skills. CO5. Be empowered to use English language effectively in Technical Communication.
68302	Universal Human Values	At the end of the course a student will be able to: CO1. Understand the significance of values, distinguish between values and skills. CO2. Apply the concept of happiness and prosperity to set the goals in life. CO3. Evaluate the current scenario in the society, in a right manner. CO4. Distinguish between the needs of the self and body through principles of co-existence. CO5. Understand the value of harmonious relationship based on trust, respect and other naturally acceptable feelings in human-human relationships. CO6. Understand the harmony in nature and existence, and work out their mutually fulfilling participation in the nature.

Code number	Name of the Course	Course Outcomes
III B.Tech- II semester
64351	Digital Communications	At the end of the course a student will be able to: CO1. Understand the baseband data transmission techniques. Describe the quantization process, completing the transition from analog to digital and multiplexing techniques. CO2. Describe the concepts of band-pass digital modulation techniques and understandthe signal space diagrams of various digital modulation techniques. CO3. Calculate the bit error performance of various digital modulation techniques. Also, able to describe optimum detection of the digital signals of different modulation techniques in the presence of noise and skilful in the design of equalizers. CO4. Explain the information theory and able to do source and entropy coding. Differentiate and explain various discrete channels. CO5. Understand the concept of channel coding. Also, skilful in carrying out the error detection and correction techniques in channel coding.
64352	Digital Signal Processing	At the end of the course a student will be able to: CO1. Understand the various operations on discrete-time signals & systems. CO2. Apply DFT and FFT on discrete-time signals. CO3. Realize the various Structures for Digital Filters. CO4. Analyze and design an IIR digital filter. CO5. Analyze and design an FIR digital filter.
64353	VLSI System Design	At the end of the course a student will be able to: CO1. Familiarize with the basics of MOSFET and different IC fabrication technologies. CO2. Understand the electrical properties of MOS and CMOS circuits. CO3. Develop layouts for NMOS, CMOS logic circuits and learn the design flow. CO4. Analyze and design various CMOS combinational and sequential circuits. CO5. Understand the concept of memory implementation and the need for testing.
68352	Managerial Economics and Financial Analysis	At the end of the course a student will be able to: CO1. Familiarize with the fundamentals of Economics such as Demand function, Law of demand, Elasticity of demand and Demand Forecasting methods etc. CO2. Evaluate Economies of Scale and the Break-Even Point of the business activity. CO3. Understand the different Market Structures and Macro Economic concepts. CO4. Able to understand the accounting system and preparation of Final Accounts. CO5. Analyze Accounting Statements like Income Statement and Balance Sheet to understand financial performance of the business.
64354	Advanced Microcontrollers	At the end of the course a student will be able to: CO1. Examine the architecture and registers of AVR microcontroller. CO2. Familiarize instruction set of AVR microcontroller and write programs in assembly language. CO3. Explore the On-chip peripherals of AVR microcontroller. CO4. Explore the internal architecture of PIC microcontroller and create ready to run programs using assembly language. CO5. Explore the On-chip peripherals of PIC microcontroller.
64355	FPGA Architectures and Applications	At the end of the course a student will be able to: CO1. Understand the FPGA architectures. CO2. Understand types of FPGA interconnecting technologies. CO3. Know different FPGA vendors architecture and their applications. CO4. Develop the capability of logic expression using anti-fuse FPGA such as ACTEL FPGAs. CO5. Understand the design applications using FPGA.
64356	Wireless Communications	At the end of the course a student will be able to: CO1. Understand the fundamentals of mobile and cellular communications, system design and cell capacity. CO2. Understand the large-scale path loss in mobile radio propagation. CO3. Model the fading effects in multipath environment. CO4. Understand different types of equalizers and diversity techniques. CO5. Acquire knowledge on multiple access techniques.
64381	Digital Communications Lab	At the end of the course a student will be able to: CO1. Implement and analyze basic digital modulation techniques. CO2. Calculate the bit error rate for different digital modulation schemes. CO3. Verify and simulate the coding technique in digital modulation schemes.
64382	Digital Signal Processing Lab	At the end of the course a student will be able to: CO1. Carry out a simulation of DSP systems. CO2. Implement the FFT for various DSP applications. CO3. Design IIR and FIR digital filters. CO4. Implement multi-rate signal processing systems. CO5. Implement DSP systems using DSP processor.
68382	Advanced English Communication & Soft Skills Lab	At the end of the course a student will be able to: CO1. Evolve as effective communicators. CO2. Emerge as decision makers, time managers and good negotiators. CO3. Gain proficiency in resume writing and requisite interview skills. CO4. Collate ideas and information and organize them relevantly and coherently. CO5. Be empowered to use soft skills in the global context.
68381	Quantitative Ability Lab	At the end of the course a student will be able to: CO1. Solve the problems using Number Systems, Percentages and Profit & Loss CO2. Solve the problems using Interest, Speed Time and Distance CO3. Solve the problems using Ratio and Proportion, Progressions and Inequality CO4. Solve the problems using Menstruation, Geometric, Clocks & Calendars questions CO5. Practice general problems in Placement, CAT and GRE etc. tests
68351	Essence of Indian Knowledge Tradition	At the end of the course a student will be able to: CO1. To gain a general idea of the vast Vedic literature and their content and to grasp the relevant concepts of the Vedas and appreciate its relevance in the modern world. CO2. Understand, connect up and explain basics of Indian Traditional Knowledge in Modern Scientific Perspective. CO3. Understand Yoga psychology as both a positive and a normative science and its contribution for a holistic health. CO4. Understand the views of our great philosophers to correlate their efforts toachieve unity in diversity.

Code number	Name of the Course	Course Outcomes
IV B.Tech- I semester
64401	Microwave Engineering	At the end of the course a student will be able to: CO1. Analyze the characteristics of rectangular waveguides and its coupling mechanisms. CO2. Design waveguide components and analyze using S matrix. CO3. Analyze different types of microwave tubes. CO4. Analyze different types of microwave solid state devices. CO5. Measure various waveguide parameters using microwave bench set up.
64402	Satellite Communications	At the end of the course a student will be able to: CO1. Analyze the basic concepts of satellite communication, orbital mechanics and launching. CO2. Analyze the satellite subsystems and satellite antennas. CO3. Analyze different multiple access schemes and satellite link design. CO4. Understand satellite TV and digital broadcasting. CO5. Understand the principle of GPS.
64403	ASIC Design	At the end of the course a student will be able to: CO1. Be familiar with ASIC designs. CO2. Learn about library cell design, library architecture. CO3. Understand different types of simulation, models and verification. CO4. Learn about physical design, different CAD tools, their methods and algorithms. CO5. Understand Floor Planning, Placement and Routing.
64404	Digital Image Processing	At the end of the course a student will be able to: CO1. Understand the basic concepts of a 2-D Image Processing system, Sampling and Quantization and gain the concepts regarding the use of different 2D Image transforms. CO2. Understand the spatial domain and frequency domain filtering techniques, including point operations, masking, histogram modification, smoothing and sharpening filters. CO3. Acquire the knowledge of the image degradation in the presence of noise, different noise models and different approaches to restore the image. Also analyzing colour image processing techniques. CO4. Understand the need for image segmentation using local and global processing methods and analyze the use of morphological operations like opening, closing for preprocessing applications. CO5. Understand the need for compression and evaluate the basic compression algorithms.
64405	Internet of Things Architectures and Programming	At the end of the course a student will be able to: CO1. Understand the concepts of IoT and its present developments. CO2. Describe different IOT technologies and generic design methods. CO3. Acquire knowledge about different software platforms and Infrastructure for IoT. CO4. Know different IoT Devices for smart applications and control. CO5. Know the use of cloud platforms and frameworks of IoT.
64406	Embedded Real-Time Operating Systems	At the end of the course a student will be able to: CO1. Understand multitasking and different task level operations of RTOS. CO2. Understand objects of the kernel in embedded systems applications. CO3. Program for interrupts and exceptions in RTOS. CO4. Differentiate architectures of different RTOS. CO5. Design an embedded system using RTOS.
64407	Communication Networks	At the end of the course a student will be able to: CO1. Understand basic switching and multiple access techniques used in communication networks. CO2. Analyze communication network protocols and standards. CO3. Understand the working of Intranet, LAN, WAN, MAN, LPWAN setup and different topologies (fundamental knowledge). CO4. Analyze the local and global impact of networks and gain familiarity with common networking protocols, algorithms and security issues in networks. CO5. Use the knowledge of network protocols and their performance in modelling communication networks
64408	System On Chip Architecture	At the end of the course a student will be able to: CO1. Understand the basic level of a system on chip processor and architectures. CO2. Design various processors by using parallel techniques. CO3. Explore different types of memory architectures and their internal structures. CO4. Design bus architectures by using peripheral specifications. CO5. Design various encryption algorithms for DSP processors.
64431	Microwave Engineering Lab	At the end of the course a student will be able to: CO1. Measure attenuation, VSWR, scattering parameters of microwave components. CO2. Perform antenna measurements. CO3. Understand the characteristics of the Reflex Klystron and Gunn diode.
64432	VLSI System Design Lab	At the end of the course a student will be able to: CO1. Gain knowledge about design styles of various gates. CO2. Understand the simulation and synthesis procedure of combinational circuits. CO3. Develop the sequential circuit applications using Flip-Flops. CO4. Draw layouts using various steps of the layout design process. CO5. Design and implement digital and analog circuits under a full-custom design environment.
64433	Technical Seminar – I	At the end of the course a student will be able to: CO1. Face any type of interviews, viva-voce, and aptitude tests. CO2. Perform well in competitive exams and group discussions. CO3. Apply knowledge in building their career in particular fields. CO4. Enhance their communication skills and interactivity.
64434	Industry Oriented Mini Project	At the end of the course a student will be able to: C01. To offer students a glimpse into real world problems and Industrial challenges that need Electronics based solutions. C02. To introduce students to the vast array of literature available of the various research challenges in the field of ECE. C03. To create awareness among the students of the characteristics of several domain areas where ECE concepts can be effectively used. C04. To enable students enhance the testing and debugging skills in a particular platform and create a solution for a problem. C05. To improve the team building, communication and management skills of the students.

Code number	Name of the Course	Course Outcomes
IV B.Tech- II semester
64451	Radar Engineering	At the end of the course a student will be able to: CO1. Understand the basic principles of how a Radar system works. CO2. Identify the various Radar systems in existence, specify their applications and limitations and explain the principles of how they work. CO3. Describe the most commonly used techniques in processing Radar signals. CO4. Understanding the concepts of different Radar receivers. CO5. Study of different filter characteristics used in Radar.
64452	Adhoc Wireless Sensor Networks	At the end of the course a student will be able to: CO1. Understand the principles of Mobile Adhoc Networks (MANETs) and distinguish them from infrastructure-based networks. CO2. Understand various MAC and routing protocols functioning and their implications. CO3. Classify various protocols for providing quality of service. CO4. Understand the principles and characteristics of wireless sensor networks (WSNs). CO5. Understand the principles of MAC protocols.
64453	Multirate Signal Processing	At the end of the course a student will be able to: CO1. Understand the concepts of sample rate conversion techniques and its applications. CO2. Learn the principles of polyphase filtering CO3. Design and implement the multi-channel perfect reconstruction filter bank systems. CO4. Learn the design procedures for cosine modulated filter banks. CO5. Apply Transmultiplexer filter banks in Communication applications.
64454	Optical Fiber Communications	At the end of the course a student will be able to: CO1. Define basic optical laws and fundamentals. Also, understand the fiber structures, associated design parameters, fiber materials, and Fiber manufacturing techniques. CO2. Describe channel impairment like fiber losses and dispersion. Also, remember the fiber standards to utilize in-network design. CO3. Classify the optical sources, explain their principles, properties and analyses power launching and coupling techniques for optical fibers. CO4. Differentiate and explain the working of photodetectors. Also, able to calculate the system bandwidth, noise, probability of error and bitrate of a digital fiber system. CO5. Explain the concept and component of wavelength division multiplexing. Also, skilful in the design of Passive Optical Networks (PON) along with SONET.
64481	Technical Seminar – II	At the end of the course a student will be able to: CO1. Face any type of interviews, viva-voce, and aptitude tests. CO2. Perform well in competitive exams and group discussions. CO3. Apply knowledge in building their career in particular fields. CO4. Enhance their communication skills and interactivity.
64482	Project Work	At the end of the course a student will be able to: CO1. To apply knowledge of Electronics and Communication Engineering in designing solutions for real time problems. CO2. To perform data collection and review research literature. CO3. To use modern tools and research knowledge for developing products. CO4. To learn the ethical principles that leads to innovation and teamwork that is inline with Lifelong learning, Project management and cost-effective system design CO5. To develop presentation and communication skills.

R15 Course Outcomes (COs):

Code number	Name of the Course	Course Outcomes
I B.Tech- I semester
38101	English	At the end of the course a student will be able to: CO1. Write coherent, unified, and complete sentences. CO2.Draw inferences from given tasks. CO3. Deduce meaning and know the use of familiar lexical items. CO4. Understand explicit and implicit information. CO5. Read and comprehend a given text.
38102	Mathematics – I	At the end of the course a student will be able to: CO1. Understand, model and solve linear differential equations. CO2. Solve problems on function optimization with and without constraints. CO3. Apply the knowledge of multiple integrals in solving problems in vector fields.
38104	Applied Physics	At the end of the course a student will be able to: CO1. Get familiarized with crystallographic terminology, crystal structures and understand the fundamentals of statistical mechanics. CO2. Learn basic concepts of quantum mechanics leading to an understanding of band theory of solids. CO3. Would develop an understanding of physics of semiconductors, working and characteristics of different types of diodes. CO4. Gain knowledge of behavior of magnetic and dielectric materials. Also learn basics of nanotechnology involving synthesis and characterization. CO5. Would learn concepts involving physics of lasers and propagation of light through optical fibers.
35101	Problem Solving Through ‘C‘	At the end of the course a student will be able to: CO1. Demonstrate the data representation and data manipulation through well defined operators. CO2. Discern the significance of operator precedence and associative properties. CO3. Incorporate the preprocessor directives, conditional compilation statements and define macros in the program. CO4. Appreciate the type system implanted in the C programming language. CO5. Choose an appropriate control structure to represent the iterations based on initial conditions. CO6. Represent a collection of homogenous data items through arrays. CO7. Solve the memory access problems through pointers. CO8.  Realize the dynamic memory allocation using pointers which is essential in effective utilization of memory.CO9. Demonstrate the logical view of memory using pointers to access arrays, strings and functions and exercise user-defined functions. CO 10. Implement the code reusability with the help of user defined functions and pointers. CO 11.  Appreciate the advantages of modular programming through functions and possible recursions.
33101	Engineering Drawing	At the end of the course a student will be able to: CO1. Understand the theory of projection. CO2. Know and understand the conventions and the methods of Engineering drawing. CO3. Improve their visualization skills so that they can apply these skills in understanding industrial drawings. CO4. Prepare simple drawings.
38131	English Language and Communication Skills Lab – I	At the end of the course a student will be able to: CO1 . Emerge as good speakers and listeners CO2 . Develop critical and analytical thinking. CO3 . Write effectively. CO4 . Develop effective presentation skills using the multimedia tools.
38133	Physics Lab	At the end of the course a student will be able to: CO1. Get an understanding of errors and their estimation in determination of Physical quantities. CO 2: Would develop skills in handling various kinds of  laboratory instruments. CO 3: Get awareness of magnitudes of the physical quantities involved. CO 4: Get an understanding of the physical concepts involved and learn how to present the observations and results at the end of an experiment.
35131	Computer Programming Lab	At the end of the course a student will be able to: CO1. Discern the internal data representation (byte ordering) followed in Intel processors and effectively utilizes the bitwise operators and format specification feature of C. CO2. Appreciate the type system implanted in the C programming language. CO3.Demonstrate the logical view of memory using pointers to access arrays, strings. CO4. Select appropriate control structure to represent the repetitive actions, based on initial conditions. CO5. Effectively implement store-reuse principle in programming models. CO6. Effectively resolve the scope and life time of variables in modularized programs and selects an appropriate storage class in order to realize a design principle. CO7. Demonstrate the parameter passing aspects to user defined functions. CO8. Develop programs using command line arguments. CO9. Develop robust and resilient code through proper error handling mechanisms. CO10. Fix the run time errors present in the code, using well behaved testing tools like gdb and developing of proper test stubs.
33131	Engineering Workshop	At the end of the course a student will be able to: CO1. Acquire skills of basic engineering trades like Carpentry, Tin smithy etc. CO2. Demonstrate an understanding of and comply with workshop safety regulations. CO3. Identify and use marking out tools, hand tools, measuring equipment and to work to prescribed tolerances. CO4. Apply the knowledge of the above trades in their day –to – day activities.

Code number	Name of the Course	Course Outcomes
I B.Tech- II semester
38151	Mathematics – II	At the end of the course a student will be able to: CO1. Apply the concepts of matrix rank to analyze linear systems CO2. Compute Eigen values and Eigen vectors for engineering applications. CO3. Develop the skill of evaluating Laplace and inverse Laplace transform to solve linear systems under initial and boundary conditions.
38152	Computational Mathematics	At the end of the course a student will be able to: CO1. Develop the skill of determining approximate solutions to problems having no analytical solutions in different contexts CO2. Solve problems related to cubic spline fitting and approximation of functions using least squares. CO3. Develop the skill of finding approximate solutions to problems arising in linear differential Equations.
38155	Engineering Chemistry	At the end of the course a student will be able to: CO1. would get an understanding of the importance of different types of portable energy sources, their limitations and  to control the corrosion of metals and alloys. CO2. would attain the knowledge of water and its treatment in industries and for domestic purpose. CO3. would be able to handle real time situations related to fuel energy sources. CO4. acquires knowledge of principles involved in heterogeneous equilibria, adsorption and colloids and  their industrial applications. CO5. would develop ability to utilize applications of engineering materials.
35151	Data Structures Thtrough ‘C’	At the end of the course a student will be able to: CO1. Represent the real world data objects through arrays and structures. CO2. Handle self referential structures. CO3. Give persistence to data either in a record form or in a text form and be able to manipulate the same. CO4. Handle mechanisms that are essential for understanding the concepts in database management systems. CO5. Represent Abstract data types in array and linked forms and implement various data structures like stacks, queues. CO6. Culture the generic representation of data types using void pointer feature of C and developing the ADTs. CO7. Understand, implement and profile different sorting techniques.
32152	Electric Circuits	At the end of the course a student will be able to: CO1. Understand the basic concepts of electrical parameters, responses of various electrical elements for non-sinusoidal signals and use analytical techniques to solve resistive circuits energized by direct current voltage and current sources. CO2. Understand the concept of magnetic circuits and able to solve problems related to coupled circuits. CO3. Define various terms related to alternating circuits which are used for all household appliances and understand the concept of impedance, power in ac circuits and understand the concept of resonance and able to plot locus diagrams. CO4. Understand the concept of network topology and can solve the complex circuits using graph theory. CO5. Solve complex circuits by applying different theorems with DC & AC excitation
38181	English Language and Communication Skills Lab – II	At the end of the course a student will be able to: CO1. Evolve as effective and autonomous communicators. CO2. Emerge as decision makers. CO3. Develop critical and analytical skills. CO4. Gather ideas and information, and organize them coherently. CO5. Develop leadership and team building skills.
38182	Computational Mathematics Lab	At the end of the course a student will be able to: CO1. Represent real-world data in a program. CO2. Implement various Numerical Methods related to solving the real world problems. CO3. Analyze the complexity of various algorithms based on the convergence criterion.
38184	Engineering Chemistry Lab	At the end of the course a student will be able to: CO1. Students get enabled to deepen and strengthen the level of understanding of various principles involved in experimental techniques involved in engineering chemistry. CO2. Students get hands-on experience with the different instruments and develop experimental skills. CO3. Students develop analytical skills and learn how to analyze and present results of an experiment.
35181	Data Structures Thtrough ‘C’ Lab	At the end of the course a student will be able to: CO1. Exercise upon derived data types including structures and unions to represent the real world data items. CO2. Represent Abstract data types in array and linked forms and implement various data structures like stacks, queues. CO3. Culture the generic representation of data types using void pointer feature of C and developing the ADTs. CO4. Understand, implement and profile different sorting techniques like bubble, insertion, quick and merge sort. CO5. Incorporate the preprocessor directives, conditional compilation statements and defining macros in the program. CO6. Realize the static linking aspects and develops static libraries using gnu based tools. CO7.Effectively resolve the scope and life time variables in modularized programs and selects an appropriate storage class for in order to realize a design principle.
37181	IT Workshop Lab	At the end of the course a student will be able to: CO1. Identify the peripherals of PC, assemble and disassemble PC components. CO2. Install the System software MS Windows, Linux and required device drivers. CO3. Work with productivity tools for Word Processing, Spread Sheet and Presentations. CO4. able to design basic Web Pages.

Code number	Name of the Course	Course Outcomes
II B.Tech- I semester
34201	Electronic Devices & Circuits	At the end of the course a student will be able to: CO1. To analyze diode parameters. CO2. To analyze and design different rectifier circuits. CO3. To comprehend different transistor configurations and biasing techniques. CO4. To analyze different small signal amplifiers at low frequency. CO5. To gain familiarity of the devices FET, MOSFET, UJT, SCR and their characteristics.
34203	Probability Theory & Stochastic Processes	At the end of the course a student will be able to: CO1.To perceive the various probability concepts, principles of random variables and random processes CO2. To apply the concepts of random processes to communication systems. CO3. To evaluate the temporal and spectral characteristics of random processes. CO4. To characterize power spectrum densities and their relationship with other properties of random processes. CO5. To analyze the performance of communication systems with random inputs.
34202	Signals & Systems	At the end of the course a student will be able to: CO1. To characterize and analyze the properties of continuous time and discrete-time signals and systems. CO2. To apply the knowledge of linear algebra topics like vector space, basis, dimension, inner product, norm and orthogonal basis to signals. CO3. To represent continuous signals and systems in the frequency domain using Fourier series and Fourier Transform. CO4. To compute convolution, correlation functions and spectral densities of deterministic signals. CO5. To apply the Laplace Transform and Z- Transform for analyzing continuous-time and discrete-time signals and systems. CO6: To understand the concept of sampling and reconstruction of analog signals.
38202	Mathematics-III	At the end of the course a student will be able to: CO1: Understand the concepts of analyticity and integration of complex functions, construction of analytic functions if a part of it is known. CO2: Evaluate line integrals using Cauchy’s Integral formulae. CO3: Find the Taylor’s and Laurent’s series expansion of complex functions. CO4: Evaluate contour integrals of different types using Residue theorem. CO5: Appreciate the concepts of Conformalmappings and Bilinear transformations of complex functions. CO6: Apply the Frobenius method to obtain a series solution for the given linear 2nd order ODE. CO7: Identify Legendre equation and Bessel equation and solve them under special conditions with the help of series solution method. Derive recurrence relations and orthogonality properties of Bessel and Legendre polynomials.
32204	Principles of Electrical Engineering	At the end of the course a student will be able to: CO1. To solve real time electrical and electronic problems. CO2. To design and analyze electrical circuits and interpret data related to electrical systems. CO3. To implement the concepts in electrical applications. CO4. To analyze the constructional features, principle of operation and the significance of DC motors and generators and their characteristics. CO5. To test transformer on no-load and loading conditions and calculate of efficiency and regulation of transformer. CO6. To implement applications of single phase induction motors.
38203	Environmental Studies	At the end of the course a student will be able to: CO1. To develop awareness about the hazards to environment. CO2. To develop awareness about optimum utilization of natural resources. CO3. To learn about GREEN TECHNOLOGIES to maintain sustainable development. CO4. To get awareness about rules and regulations applicable for pollution control.
34231/34283	Electronic Devices & Circuits lab	At the end of the course a student will be able to: CO1. To analyze diode, transistor and FET parameters. CO2. To design different rectifier circuits. CO3. To analyze small signal amplifiers at low frequencies.
34232	Basic Simulation lab	At the end of the course a student will be able to: CO1. To simulate generation and operation of different types of signals and systems. CO2.To apply transform techniques for analysis of signals. CO3. To simulate convolution, correlation and spectral densities of deterministic signals CO4. To simulate response of LTI system for various input signals. CO5. To determine the stability of the systems using pole-zero plots in s-domain and z-domain using simulation
38231	Reasoning & Data Interpretation Lab	At the end of the course a student will be able to: CO1. Understand the concepts of Statement-Argument, Assumption and Course of Action and use reasoning as a tool to match statements with arguments etc. CO2. look at data and find links and patterns, link data with conclusions and study data logically. CO3. Study problem situations and use reasoning as a tool to find solutions. CO4. Nurture the ability to use reasoning as a skill in real time problems solving CO5. Analyze and infer the data with respect to trend and case based.

Code number	Name of the Course	Course Outcomes
II B.Tech- II semester
34252	Analog Communication	At the end of the course a student will be able to CO1. To perceive various analog modulation and demodulation techniques. CO2. To design different methods for generating AM and FM signals. CO3. To analyze the effect of noise on different types of analog communication systems. CO4.To design radio communication systems. CO5. To acquire knowledge about multiplexing and pulse modulation.
34253	Electromagnetic Theory And Transmission Lines	At the end of the course a student will be able to: CO1.To solve electrostatic problems. CO2.To solve magnetostatic problems. CO3. To apply Maxwell’s equations to solve electromagnetic problems. CO4. To analyze the behavior of uniform plane wave propagation in various media and at the boundaries of different media. CO5. To analyze and design transmission lines for various applications through calculations and Smith chart.
34251	Electronic Circuit Analysis	At the end of the course a student will be able to: CO1. To analyze single stage and multistage amplifiers using BJT and FET. CO2. To design amplifiers using feedback techniques CO3. To design and analyze oscillators. CO4. To design and analyze power amplifiers. CO5. To design and analyze tuned amplifiers.
38254	Logic & Switching Theory	At the end of the course a student will be able to: CO1. To convert one number system into another, detect and correct errors CO2. To optimize Boolean functions and design various combinational logic circuits. CO3. To analyze and design various synchronous sequential logic circuits. CO4.To synthesize asynchronous circuits. CO5.To implement logic functions using PLDs.
34255	Pulse & Digital Circuits	At the end of the course a student will be able to: CO 1. To design linear wave shaping circuits like high pass and low pass RC circuits for various input signals. CO 2. To design non linear wave shaping circuits like clippers and clampers. CO 3. To construct various logic gates using different logic families and compare their performances. CO4. To generate various non sinusoidal signals using different multivibrators for various electronic applications. CO5. To design time base generator circuits which are used in applications such as CRO and TV. CO 6. To understand the principles of synchronization and frequency division in systems operating at different frequencies.
34281	Electronic Circuits Analysis lab	At the end of the course a student will be able to: CO1. To use simulation software and hardware effectively in designing single stage and multistage amplifiers. CO2. To use simulation software and hardware effectively in designing oscillators and feedback amplifiers. CO3. To use simulation software and hardware effectively in designing tuned and power amplifiers.
34282	Pulse & Digital Circuits lab	At the end of the course a student will be able to: CO1. To design different RC Circuits. CO2.To design different clipping and clamping circuits. CO3.To model different logic gates and flip-flops CO4.To develop different types of multivibrators circuits. CO5.To realize relaxation oscillator using UJT. CO6.To analyze bootstrap sweep circuits and Sampling gates.
32283	Electrical Engineering lab	At the end of the course a student will be able to: CO1. Do simplification and Verification of theorems like superposition, thevenin’s and maximum power transfer etc. CO2. Understand practical verification of two port network parameters. CO3. Understand concept of series and parallel resonance circuits. CO4. Analyze Magnetization characteristics of DC shunt generator. CO5. Conduct experiments like Swinburne’s test and Break test on DC shunt motor and also analyze performance characteristics CO6. Do experiments on transformer under OC and SC conditions and calculate equivalent circuit parameters, efficiency and regulation. CO7. Understand operation of 3- phase induction motor under loading conditions.
38281	Verbal Ability Lab	At the end of the course a student will be able to: CO1.Students will develop familiarity with Corporate English. CO2. Students will have enriched vocabulary. CO3. Students will develop the ability to write grammatically correct sentences and enhance their professional writing skills. CO4. Students will be proficient in answering reasoning based questions.

Code number	Name of the Course	Course Outcomes
III B.Tech- I semester
34301	IC Applications	At the end of the course a student will be able to: CO1. Design the linear and non-linear applications of an op-amp. CO2. Design filters, oscillators, timer circuits. CO3. Classify and comprehend the working principle of data converters. CO4. Design combinational circuits using digital ICs. CO5. Design sequential circuits using digital ICs.
34302	Antennas & Wave Propagation	At the end of the course a student will be able to: CO1. Understand the principles of radiation and the antenna parameters. CO2. Design and analyze thin linear wire antennas. CO3. Design antenna arrays for desired antenna characteristics. CO4. Design VHF, UHF and microwave antennas such as helical, reflector, lens and microstrip antennas. CO5. Understand the antenna measurement techniques. CO6. Understand different modes of wave propagation.
34303	Digital Communications	At the end of the course a student will be able to: CO1. Learn the elements of digital communications system and different types of quantization techniques CO2. Understand the different types of digital modulation and demodulation techniques CO3. Calculate the probability error for various digital modulation techniques in the presence of noise CO4. Estimate the channel capacity and improve the performance using error correcting codes CO5. Study the different types of spread spectrum techniques
34306	Computer Architecture And Organization	At the end of the course a student will be able to: CO1. Understand the major components of computer system including CPU, memory and I/O. CO2. Familiar with data representation, addressing modes and instruction set of a computer. CO3. Perform computer arithmetic operations and understand the control unit operations. CO4. Understand the organization of memory and memory management hardware. CO5. Understand the concepts of pipelining and I/O organization. CO6. Design an interconnection networks and multiprocessors.
34331	IC Applications lab	At the end of the course a student will be able to: CO1.Design different operations using IC 741 OP-AMP. CO2. Design different circuits using IC 555 Timer. CO3. Verify the truth tables of IC 74LS73 and IC 74LS74 and to design sequential circuits. CO4. Verify the truth tables of 4-bit comparator IC 74LS85 and to design higher bit comparator. CO5. Verify the truth tables of 3 to 8 decoder IC 74LS138, 74LS151 multiplexer and 155 de-multiplexer etc. and design different combinational circuits.
34332	Analog Communications lab	At the end of the course a student will be able to: CO1. Implement and analyze different analog communication systems. CO2. Understand the significance of sampling theorem. CO3. Understand the multiplexing concepts.
34333	Digital Communications lab	At the end of the course a student will be able to: CO1. Implement and analyze basic digital communication systems. CO2. Calculate the bit error rate for different digital modulation schemes. CO3. Verify and simulate the coding technique in digital modulation schemes.
38332	Effective Technical Communication Lab	At the end of the course a student will be able to: CO1. Attain proficiency in technical writing. CO2. Use english language appropriately to write effective reports, notes and summaries. CO3. Write emails suitable for professional communication. CO4. Develop analytical and critical thinking skills.

Code number	Name of the Course	Course Outcomes
III B.Tech- II semester
34304/34360	Digital Signal Processing	At the end of the course a student will be able to: CO1. Understand the various operations on discrete time signals & systems. CO2. Apply DFT and FFT on discrete time signals. CO3. Analyze and design an IIR digital filters. CO4. Analyze and design FIR digital filters. CO5. Understand the concept of multirate signal processing and its applications.
34352	Microprocessors& Microcontrollers	At the end of the course a student will be able to: CO1. Write assembly language programs for different application using assembler. CO2. Interface the processor with different peripheral devices. CO3. Understand the architectural difference between the processor and controller. CO4. Describe the instruction set and addressing modes of 8086 and 8051. CO5. Understand the real time applications of timers and serial communication of 8051.
34354	Linear Control Systems	At the end of the course a student will be able to: CO1. Understand concept of control systems and different methods to find transfer function of a system. CO2. Understand system transient, steady state response and their specifications. CO3. Analyze the system stability time domain and frequency domain. CO4. Design controller units and compensators. CO5. Analyze system considering initial conditions.
34355	Digital Modeling Using Verilog	At the end of the course a student will be able to: CO1: Understand the capabilities of HDLs and learn Verilog constructs. CO2: Differentiate and write circuit descriptions in switch level, gate level and data flow modeling styles. CO3: Describe algorithms using behavioral modeling with various constructs. CO4: Use compiler directives and to describe sequential circuits using different types of models. CO5: Verify the functionality of combinational and sequential circuits.
34356	Telecommunication Switching Systems & Networks	At the end of the course a student will be able to: CO1. Understand the working principle of switching systems involved in telecommunication switching and design multi stage switching structures involving time and space switching stages. CO2. Analyze different signaling techniques and networks, charging and routing plans. CO3. Understand effectively the communication principles to design, develop and implement data communication networks. CO4. Enumerate the layers of the OSI and TCP/IP model and identify the different types of network devices and their functions. CO5. Identify the requirements for high data rate communication systems and understand the techniques and protocols implemented.
34358	Wireless Communication	At the end of the course a student will be able to: CO1.  Understand the fundamentals of mobile and cellular communications, system design and cell capacity CO2. Understand the large scale path loss & small scale path fading in mobile radio propagation CO3. Acquire knowledge on multiple access techniques CO4. Understand different types of equalizers and diversity techniques CO5. Acquire knowledge on GSM, Wireless LAN and PAN concepts
34352	Microprocessors & Microcontrollers lab	At the end of the course a student will be able to: CO1. Write assembly language programs for different application using assembler CO2. Interface the processor with different peripheral devices CO3. Understand the architectural difference between the processor and controller CO4. Describe the instruction set and addressing modes of 8086 and 8051 CO5. Understand the real time applications of timers and serial communication of 8051
34382	Digital Signal Processing  lab	At the end of the course a student will be able to: CO1.  Carry out simulation of DSP systems. CO2. Demonstrate the applications of FFT to DSP. CO3. Design IIR and FIR digital filters. CO4. Implement multi-rate signal processing systems. CO5. Implement DSP systems using DSP processor.
38381	Advanced English Communication & soft skills lab	At the end of the course a student will be able to: CO1. Evolve as effective communicators. CO2. Emerge as decision makers, time managers and good negotiators CO3. Develop holistic soft skills. CO4. Develop critical and analytical skills. CO5. Present their skills confidently in the job market. CO6. Gather ideas and information, and organize them relevantly and coherently CO7. Develop leadership and team building skills
34382	Quantitative ability lab	At the end of the course a student will be able to: CO1. Solve the problems using arithmetic, mensuration, geometry, averages & clocks & calendars questions. CO2. Practice general problems in Placement, CAT and GRE etc. tests.

IV B.Tech- I semester
34401	Microwave Engineering	At the end of the course a student will be able to: CO1. Analyze the characteristics of a rectangular waveguides and its coupling mechanisms CO2. Design waveguide components and analyze using S matrix CO3. Analyze different types of microwave tubes and solid state devices CO4. Design and analyze horn antennas CO5. Understand the microwave measurement techniques using microwave bench set up
38401	MANAGERIAL ECONOMICS AND FINANCIAL ANALYSIS	At the end of the course a student will be able to: CO1. Capable of analyzing fundamentals of economics such as demand, production, price, supply concepts etc., which helps in effective business administration CO2. Analyze economies of scale and the Break-Even Point CO3. Able to determine the Price-Output Relationship in different market Structures CO4. Analyze how to invest adequate amount of capital in order to get maximum return from selected business activity CO5. Analyze accounting statements like income & expenditure statement, balance sheet to understand financial performance of the business and to initiate the appropriate decisions to run the business profitably
34402	VLSI Design	At the end of the course a student will be able to: CO1. Familiarize with the basics of MOSFET and different IC fabrication technologies CO2. Analyze and design various CMOS combinational and sequential circuits CO3. Develop layouts for NMOS, CMOS logic circuits CO4. Design different technologies and programmable logic devices CO5. Understand the need for testing and design for testability
34403 (Professional Elective – II)	CPLD AND FPGA ARCHITECTURE AND APPLICATIONS	At the end of the course a student will be able to: CO1.  Understand the difference between FPGA and CPLD architectures CO2. Understand all types of FPGA interconnecting technologies CO3. Know different FPGA vendors architecture and their applications CO4. Develop the capability of logic expression using anti fuse FPGA such as ACTEL FPGAs CO5. Develop digital design applications using CPLD & FPGA
34404 (Professional Elective – II)	EMBEDDED C	At the end of the course a student will be able to: CO1. Select a processor or microcontrollers based on its architecture for different applications CO2. Program rabbit core embedded systems CO3. Compute the delays using timers and counters internally or externally in embedded real time operating system CO4. Program for different embedded projects CO5. Develop the software development tools for embedded systems
34405 (Professional Elective – II)	COMMUNICATION NETWORKS	At the end of the course a student will be able to: CO1. Distinguish among the different types and uses of communication networks in various fields CO2. Learn integration of different networks in telecommunication CO3. Implement security measures for electronic mail, web browsing, and instant messaging CO4. Understand the working principle of switching systems involved in telecommunication switching
34406 (Professional Elective – II)	RADAR SYSTEMS	At the end of the course a student will be able to: CO1. Understand the basic principles of how a Radar system works CO2. Identify the various Radar systems in existence, specify their applications and limitations and explain the principles of how they work CO3.  Describe the most commonly used techniques in processing Radar signals CO4. Understanding the concepts of different Radar receivers CO5. Study of different filter characteristics used in Radar
34407 (Professional Elective – III)	DIGITAL SYSTEM DESIGN AND TESTING	At the end of the course a student will be able to: CO1.  Design data path circuits CO2.  Develop controller logic CO3.  Represent control circuits in-terms of state graphs CO4.  Distinguish different fault models CO5.  Diagnose faults in combinational and sequential circuits
34408 (Professional Elective – III)	EMBEDDED SYSTEMS DESIGN	At the end of the course a student will be able to: CO1.  Understand an embedded system and to know its applications CO2.  Learn the processing elements used in embedded systems CO3. Understand different embedded application and domain specific systems CO4. Learn hardware software development to design embedded systems CO5. Familiarize with embedded system examples
34409 (Professional Elective – III)	SATELLITE COMMUNICATIONS	At the end of the course a student will be able to: CO1.  Analyze the basic concepts of satellite communication, orbital mechanics and launching CO2. Analyze the satellite subsystems and satellite link design CO3.  Analyze different multiple access schemes CO4.  Design the earth station and different satellite systems CO5. Understand the principle of GPS
34410 (Professional Elective – III)	DIGITAL IMAGE PROCESSING	At the end of the course a student will be able to: CO1. Understand the basic concepts of two-dimensional signal acquisition, sampling, and quantization CO2. Understand the spatial filtering techniques, including linear and nonlinear methods CO3. Gain the concepts of 2D Fourier transform, including the 2D DFT and FFT, and their use in frequency domain filtering CO4. Acquire the knowledge of the fundamental image enhancement algorithms such as histogram modification, contrast manipulation, and edge detection CO5. Demonstrate programming skills in digital image processing related problems
34411 (Professional Elective – III)	SYSTEM ON CHIP ARCHITECTURE	At the end of the course a student will be able to: CO1. Understand the basic level of system on chip processor and architectures CO2. Design various processors by using parallel techniques CO3. Explore different types of memory architectures and their internal structures CO4 . Design bus architectures by using peripheral specifications CO5. Design various encryption algorithms for DSP processors
34412 (Professional Elective – IV)	EMBEDDED REAL TIME OPERATING SYSTEMS	At the end of the course a student will be able to: CO1. Understand noble identities in multirate system CO2. Realize structures for decimation and interpolation filters in polyphase representation CO3. Design perfect reconstruction filter bank systems CO4.  Learn the design procedures for cosine modulated filter banks CO5. Familarize applications of multirate systems
34413 (Professional Elective – IV)	ADHOC AND WIRELESS SENSOR NETWORKS	At the end of the course a student will be able to: CO1. Understand the principles of mobile adhoc networks (MANETs) and distinguish them from infrastructure-based networks CO2. Understand various MAC and routing protocols functioning and their implications CO3. Classify various protocols for providing quality of service CO4. Understand the principles and characteristics of wireless sensor networks (WSNs)
34414 (Professional Elective – IV)	MULTIRATE SIGNAL PROCESSING	At the end of the course a student will be able to: CO1. Understand noble identities in multirate system CO2. Realize structures for decimation and interpolation filters in polyphase representation CO3. Design perfect reconstruction filter bank systems CO4. Learn the design procedures for cosine modulated filter banks CO5. Familarize applications of multirate systems
34431	VLSI DESIGN LAB	At the end of the course a student will be able to: CO1. Design digital circuits in different styles using Verilog HDL CO2. Verify the digital designs using test benches CO3. Impart the designs on FPGA CO4. Design and analyze analog and digital circuits CO5. Develop layouts for integrated circuits and analyze the performance
34432	MICROWAVE ENGINEERING LAB	At the end of the course a student will be able to: CO1.Measure attenuation,VSWR,scattering parameters of microwave components. CO2.Fabricate microstrip elements and test using VNA. CO3. Perform antenna measurements. CO4. Understand the characteristics of the Reflex Klystron and Gunn diode.
IV B.Tech- II semester
38451	MANAGEMENT SCIENCE	At the end of the course a student will be able to: CO1. Make business decisions for effective business administration CO2. Identify Business strategies for effective and efficient utilization of resources CO3. To explore new business opportunities in the dynamic business environment CO4. To perform SWOT analysis of the internal and external environment CO5. To implement contemporary best practices in an organization
34451 (Professional Elective – V)	ELECTRONIC DESIGN AUTOMATION TOOLS	At the end of the course a student will be able to: Course Outcomes: At the end of the course, the student should be able to CO1. Design and verify the digital circuits using EDA tools CO2. Learn the working principles of simulation and synthesis tools CO3. Evaluate the digital design circuits, analog circuits using HDL and PSPICE netlist formats CO4. Use the EDA tools for the design of simple and complex IC design circuits CO5. Analyze the performance of digital circuits, analog circuits and mixed signal Circuits
34452 (Professional Elective – V)	OPTICAL COMMUNICATIONS	At the end of the course a student will be able to: Course Outcomes: At the end of the course, the student should be able to CO1. Understand and classify the structure of optical fiber and types CO2. Calculate various key parameters such as link power budget, group delay, distortion CO3. Compare various optical detectors and choose suitable one for different applications CO4. Estimate the losses due to attenuation, absorption, scattering and bending CO5. Design an optical communication system
34453 (Professional Elective – V)	INFORMATION THEORY AND CODING	At the end of the course a student will be able to: Course Outcomes: At the end of the course, the student should be able to CO1. To understand the basic notions of information and channel capacity CO2 . To construct efficient codes for data on imperfect communication channels CO3. To learn the error detection and correction abilities of channel coding techniques CO4. To understand the effect of channel coding in the communication system design CO5. To understand mathematical foundation required for various cryptographic Algorithms
34454 (Professional Elective – V)	MICROWAVE INTEGRATED CIRCUITS	At the end of the course a student will be able to: Course Outcomes: At the end of the course, the student should be able to CO1. Understand the transmission line concepts and network analysis CO2. Familiarize with MIC technologies CO3. Design different planar transmission lines and passive elements at microwave frequencies CO4. Use smith chart for impedance matching CO5. Design planar microwave components such as dividers, couplers and filters

M.Tech :- VLSI System Design

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R15 and R18 POs

R15 and R18 POs
R15-M.Tech-I-I-VLSI-COs
R15-M.Tech-I-II-VLSI-COs
R15-M.Tech-II-Year-VLSI-COs

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Regulation : R15 and R18 POs

 

R15 and R18 Regulation -List of Program Outcomes (POs)
R15 and R18 M.Tech-VLSI ALL POS	PO1	An ability to independently carry out research/investigation and development work to solve practical problems.
	PO2	An ability to write and present a substantial technical report/documentation.
	PO3	Students should be able to demonstrate a degree of mastery over the area as per the specialization of the program. The mastery should be at a level higher than the requirements in the appropriate bachelor program.
	PO4	An ability to understand, analyze and plan the design methodologies to propose real time solution.
	PO5	The student should be able to design and implement various applications using EDA tools for solving complex problems of the society.
	PO6	The student should be competent to handle current multi-domain industry designs with competing technologies.

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Regulation : R15-M.Tech-I-I-VLSI-COs

 

Subject Code		Course Title	Course Outcomes	Course Outcome Description
		At the end of the each course, student will be able to
		I M.Tech-I Semester
44101	Core Course I	CMOS Analog Integrated Circuit Design	CO1	To understand the operation of MOS devices using Computer simulation SPICE Netlist models
			CO2	To design and understand the concepts of CMOS Analog IC Design using basic analog building blocks
			CO3	To study different amplifiers and architectures for non functional performance improvements
			CO4	To design and analyze the OP-AMP specifications for compensation techniques
			CO5	To design and study different types of comparators
43105	Core Course II	CPLD and FPGA Architectures and Applications	CO1	To understand the difference between FPGA and CPLD architectures
			CO2	To understand all types of FPGA interconnecting technologies
			CO3	To know different FPGA vendors architecture and their applications
			CO4	To develop the capability of logic expression using Anti fuse FPGA such as ACTEL FPGAs
			CO5	To design counters accumulators and other applications using FPGA technology
44102	Core Course III	CMOS Digital Integrated Circuit Design	CO1	To understand pseudo-n MOS logic and the electrical properties of MOS transistor circuits
			CO2	To realize various combinational circuits and Boolean functions
			CO3	To implement sequential circuits for modeling synchronous and asynchronous operations
			CO4	To learn and design dynamic logic circuits for high dense circuit fabrication
			CO5	To choose and design memory type that suits the given design specifications
43107	Core Elective I	VLSI Technology and Design	CO1	To know the basic concepts liking sizing threshold voltages in different MOS circuits
			CO2	To design, draw the layouts of all logic gates & various MOSFET’s by using scalable design rules
			CO3	To know the methods to find delays, power utilized by using different methods of testing
			CO4	To design different memory cells & arrays, finding different faults by conducting different testing methods
			CO5	To analyze and find the procedure of back end process in FPGA & ASIC field
44103	Core Elective I	Hardware/Software Co-Design	CO1	To understand co-design models to design different architectures by using co-design languages
			CO2	To be aware of various prototyping devices and target architectures
			CO3	To understand the design of modern embedded compilation tools
			CO4	To differentiate the co-design verification at different stages of co-design methodology
			CO5	To develop co-design systems using multi-language system level specifications
45103	Core Elective I	Advance Operating Systems	CO1	To evaluate the necessary modules for an operating system and implement in the program
			CO2	To understand file system and customize the blocks desired for an embedded system
			CO3	Inter-process communication problems will be solved and various algorithms will be developed for synchronization, scheduling and memory management issues
			CO4	Requirement of high-end systems which are multicore will be deployed to enhance the features and evaluate
			CO5	Protocols and Techniques are used to communicate between multiple workstations
44104	Core Elective I	Device Modeling	CO1	To understand the different semiconductor physics concepts
			CO2	To understand the SPICE models, small signal, large signal and dynamic models
			CO3	To learn MOS device equations and MOS spice models
			CO4	To learn the different fabrication techniques
			CO5	To understand the concept of modeling of heterojunction diodes
44105	Core Elective II	Digital System Design	CO1	To minimize and design of the Finite state machines
			CO2	To understand data path, control unit, micro-operation and building block of digital system
			CO3	To understand the design of digital circuits using RAM, ROM and PLD
			CO4	To apply test pattern for the detection of logical fault
			CO5	To know the concepts of test generation for combinational and sequential circuits
43103	Core Elective II	Micro Controllers for Embedded System design	CO1	To acquire the knowledge of ARM processor architecture and various ARM Processor Families
			CO2	To become competent in ARM Addressing Modes and Instruction set
			CO3	To acquire skill in THUMB state and its instruction set
			CO4	To write efficient code in high level language and Assembly language for ARM Processor core
			CO5	To examine various cache memory technologies that surrounds ARM cores
			CO6	To acknowledge various memory management units
45111	Core Elective II	Advanced Computer Architecture	CO1	To understand the design blocks in a computer system and memory modules
			CO2	To analyze the performance of the RISC processors by pipelining approach
			CO3	To execute the instructions in parallel by customizing and scheduling
			CO4	To understand multi-processor architecture and its memory modules
			CO5	To understand the interconnectivity between processors in a network
44106	Core Elective II	Hardware Description Language	CO1	To understand various abstraction levels of Verilog HDL in modeling digital hardware
			CO2	To design and verify complex digital design systems using behavioral modeling
			CO3	To study the concepts of transistor level design using HDL
			CO4	To learn the features of system Verilog for design and verification
			CO5	To study the concepts of assertion verification to find code/functional coverage
48101	Open Elective I	Innovation and Entrepreneurship	CO1	Apply innovative tools for entrepreneurship
			CO2	Apply models and theories of entrepreneurship and innovation to real life examples at the individual, organizational and institutional levels
			CO3	Assess and evaluate new venture opportunities, conceptually and through the preparation of an opportunity assessment.
			CO4	Develop a comprehensive and well structured business plan for a new venture
			CO5	Demonstrate the documentation process for starting an enterprise
48102	Open Elective I	Project Management	CO1	Students gain the knowledge in project management tools and techniques for successful planning and execution of Projects.
			CO2	Equipped with the ability to explore the new project proposals and assessing the potential risks and profitability associated with the proposals
48103	Open Elective I	Fundamentals of Marketing	CO1	Demonstrate a broad understanding of the major conceptual and theoretical principles upon which the practice of marketing is based.
			CO2	Demonstrate a general understanding of marketing management tasks and of how marketing fits into the organisational environment and interacts with diverse environments
			CO3	Identify and evaluate secondary research from a variety of sources. As a reflective and critical thinker, use this research information to apply marketing concepts and principles to propose ethical, creative solutions to a range of marketing related problems that arise in business contexts
			CO4	Appropriately communicate marketing ideas in written and oral form. This includes presentations, case studies, and reports using reference materials
44131	Laboratory I	VLSI Laboratory – I	CO1	To Design and verify adders, decoder, multiplexers and other combinational designs using HDL
			CO2	To Design and implement flip flops, counters, shift registers and other sequential designs for FPGA/ASIC
			CO3	To understand the concepts of Mealy and Moore FSMs with respect to digital design
44132	Seminar-I	Seminar	CO1	Collection and review of research material from literature
			CO2	Analysis of concepts in multi-disciplinary research areas
			CO3	Preparation and presentation of technical topics with decent communication skills

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Regulation : R15-M.Tech-I-II-VLSI-COs

 

Subject Code		Course Title	Course Outcomes	Course Outcome Description
		At the end of the each course, student will be able to
		I M.Tech-II Semester
44201	Core Course IV	Low Power VLSI Design	CO1	To develop the knowledge on fundamentals of low power VLSI circuit design.
			CO2	To be aware of various low powers VLSI design approaches.
			CO3	To analyze and design low power CMOS adders.
			CO4	To understand the different types of Multipliers and their algorithms.
			CO5	To design CMOS memories for a VLSI system.
44202	Core Course V	CMOS Mixed Signal Circuit Design	CO1	To analyze CMOS based Switched Capacitor circuits
			CO2	To design Phase Locked Loop (PLL) circuit to meet different application areas
			CO3	To design Data converter circuits like DAC, ADC for a specific application
			CO4	To design different converters
			CO5	To study different modulators and filters
44203	Core Course VI	Design for Testability	CO1	To identify the role of testing and understand different types of testing
			CO2	To differentiate between logic simulation and fault simulation, choose the algorithm that suits the given design for design verification and test evaluation
			CO3	To understand the testability measures and estimate the difficulty in testing a given design
			CO4	To learn and use various techniques for chip level Built-In Self Test design
			CO5	To understand the use of JTAG boundary scan
44204	Core Elective III	CAD for VLSI Circuits	CO1	To understand the general design process of modern VLSI chips
			CO2	To understand various algorithms (Partitioning, Placement, Floor planning) used in VLSI
			CO3	To build capability to route in VLSI chips with the help of algorithms
			CO4	To understand MCM, FPGA physical design based algorithms
			CO5	To get the knowledge of ESD protection, clock distribution in VLSI chips
45212	Core Elective III	Scripting Languages	CO1	To understand the chrematistics and uses of scripting languages
			CO2	To learn the different features of Advanced Perl
			CO3	To learn TCL philosophy and different features
			CO4	To learn about advanced TCL
			CO5	To learn object oriented programming concepts
43203	Core Elective III	Digital Signal Processors and Architectures	CO1	To demonstrate sufficient understanding of theory of digital signal processing and architectures
			CO2	To deliver different basic blocks of DSP architectures
			CO3	To Present the architectural features of TMS320C54xx series DSP system
			CO4	To know the DSP architectures from different vendors including 2100, 2181, blackfin processors
			CO5	To understand the interfacing techniques to memory, I/Os, ADCs, DACs
43205	Core Elective IV	System On Chip Architecture	CO1	To understand the basic level of system on chip processor architectures
			CO2	To design various processors by using parallel techniques
			CO3	To explore different types of memory architectures and their internal structures
			CO4	To design Bus architectures by using peripheral specifications
			CO5	To design various Encryption Algorithms for DSP processors
44205	Core Elective IV	VLSI Signal Processing	CO1	To implement DSP Algorithms, filters and techniques
			CO2	To learn the properties and applications of folding and unfolding algorithms
			CO3	To understand different Systolic Array Design Methodology like FIR Systolic Arrays and 2D Systolic Array Design
			CO4	To Design Fast Convolution algorithm by Inspection
			CO5	To understand Power Reduction techniques and different programmable DSP applications
44206	Core Elective IV	Semiconductor Memory Design and Testing	CO1	To understand different SRAM and DRAM technologies and their applications
			CO2	To understand different type of ROMs and flash memories
			CO3	To learn different testing techniques and fault modeling
			CO4	To learn different memory characteristics, reliability constraints
			CO5	To learn about memory stacks and MCMs
48201	Open Elective II	Fundamentals of Technology Management	CO1	Have firm understanding of the importance of managing technology in addition to working with or working on technology.
			CO2	Know future avenues of business management and the role of technology management in enterprises.
			CO3	Equip themselves with rudiments of tools for technology management in Industry and Organizations
42204	Open Elective II	Energy Audit and Management	CO1	Students will be able to know about auditing of various energy sources.
			CO2	Students will able to apply the acquired knowledge in real life
			CO3	Students will be able to perform various managerial functions in their organizations.
			CO4	Students will able to use various auditing instruments in their energy audit management
			CO5	Students will able to know and implement various energy saving procedures.
45211	Open Elective II	Big Data Analytics	CO1	Define and examine Big data and its evolution, Various kinds of data and systems for handling the data.
			CO2	Explain Big data management using the systems such as Hadoop
			CO3	Demonstrate application of MapReduce paradigm for solving big data problems such as word count.
			CO4	Articulate NoSQL databases and their underlying structures with suitable examples
			CO5	Describe social media and mobile analytics and state tools for such analysis
44231	Laboratory II	VLSI Laboratory – II	CO1	To get acquainted with the Cadence / Mentor Graphics / Synopsys / Equivalent CAD tools
			CO2	To Design and simulate the transistor level, gate level and system level CMOS circuits
			CO3	To Learn Spice and analog circuit simulation with the concepts of layouts
44232	Seminar II	Seminar	CO1	Collection and review of research material from literature
			CO2	Analysis of concepts in multi-disciplinary research areas
			CO3	Preparation and presentation of technical topics with decent communication skills

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Regulation : R15-M.Tech-II-Year-VLSI-COs

 

Subject Code		Course Title	Course Outcomes	Course Outcome Description
		At the end of the each course, student will be able to
		II M.Tech
44301		Comprehensive Viva-Voce	CO1	Understand subject knowledge in the field of Analog VLSI Design along with the applications
			CO2	Understand subject knowledge in the field of Digital VLSI Design along with the applications
			CO3	Understand subject knowledge in the field of Mixed Signal VLSI Design along with the applications
44302		Project work Review-1	CO1	Apply knowledge to propose solutions to the multi domain and real time systems
			CO2	Perform data collection, review research literature and project management
			CO3	Use modern EDA tools and research knowledge for developing cost effective systems
			CO4	Develop presentation and communication skills
44401		Project work Review-2	CO1	Apply knowledge to propose solutions to the multi domain and real time systems
			CO2	Perform data collection, review research literature and project management
			CO3	Use modern EDA tools and research knowledge for developing cost effective systems
			CO4	Develop presentation and communication skills
44402		Project Evaluation (Viva-Voce)	CO1	Apply knowledge to propose solutions to the multi domain and real time systems
			CO2	Perform data collection, review research literature and project management
			CO3	Use modern EDA tools and research knowledge for developing cost effective systems
			CO4	Develop presentation and communication skills

 

 

 

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R18 POs

 R18 POs
R18-M.Tech-I-I-VLSI-COs
R18-M.Tech-I-II-VLSI-COs
R18-M.Tech-II-IYear-VLSI-CO (2)
R18-M.Tech-II-II Year-VLSI-COs

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Regulation : R18 POs

R15 and R18 Regulation -List of Program Outcomes (POs)
R15 and R18 M.Tech-VLSI ALL POS	PO1	An ability to independently carry out research/investigation and development work to solve practical problems.
	PO2	An ability to write and present a substantial technical report/documentation.
	PO3	Students should be able to demonstrate a degree of mastery over the area as per the specialization of the program. The mastery should be at a level higher than the requirements in the appropriate bachelor program.
	PO4	An ability to understand, analyze and plan the design methodologies to propose real time solution.
	PO5	The student should be able to design and implement various applications using EDA tools for solving complex problems of the society.
	PO6	The student should be competent to handle current multi-domain industry designs with competing technologies.

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Regulation : R18-M.Tech-I-I-VLSI-COs

 

Subject Code		Course Title	Course Outcomes	Course Outcome Description
		At the end of the each course, student will be able to
		I M.Tech-I Semester
44101	74101	RTL LEVEL SYSTEM DESIGN	CO1	Learn Verilog HDL and learn to use EDA tools like Cadence, Mentor Graphics and Xilinx
			CO2	Gain familiarity of Finite state machines, RTL design using reconfigurable logic
			CO3	Learn about programmable logic devices like CPLDs
			CO4	Learn about FPGAs and their physical design
			CO5	Implement different applications with the tool
43105	74102	VLSI TECHNOLOGY AND DESIGN	CO1:	Review FET fundamentals for VLSI design
			CO2:	Design, draw the layouts of all logic gates & various MOSFET’s by using scalable design rules
			CO3:	Know the methods to find delays, power utilized by using different methods of testing
			CO4:	Design different memory cells & arrays, finding different faults by conducting different testing methods
			CO5:	Design the subsystems based on VLSI concepts
44102	74103	ANALOG AND DIGITAL CMOS VLSI DESIGN	CO1:	Learn about MOS transistor, Stick diagram and Layout
			CO2:	Learn about Physical design flow and combinational logic
			CO3:	Understand Sequential logic, Fin FET, TFET
			CO4:	Acquire knowledge of different types of Amplifiers and Differential amplifier
			CO5:	Understand different stages of OP Amp and its compensation techniques
43107	74109	SEMICONDUCTOR MEMORIES TECHNOLOGY	CO1:	Select architecture and design semiconductor SRAMs and subsystems
			CO2:	Learn about Advanced DRAM Design ,Architecture, controllers
			CO3:	Know the state of the art memory chip design of non-volatile memories
			CO4:	Learn General Reliability Issues, radiation hardening techniques
			CO5:	Learn about Advanced Memory Technologies and High-density Memory Packing Technologies
44103	74104	DEVICE MODELING (Professional Elective – I)	CO1:	Understand the different semiconductor physics concepts
			CO2:	Understand the SPICE models, small signal, large signal and dynamic models
			CO3:	Learn MOS device equations and MOS spice models
			CO4:	Learn the different fabrication techniques
			CO5:	Understand the concept of modeling of hetero junction diodes
45103	74105	EMBEDDED SYSTEM DESIGN (Professional Elective – I)	CO1:	Understand an embedded system and to know its applications
			CO2:	Learn the processing elements used in embedded systems
			CO3:	Understand embedded firmware
			CO4:	Knows the use of RTOS in embedded systems
			CO5:	Learn different task communication techniques in RTOS
44104	74106	DESIGN OF FAULT TOLERANCE SYSTEMS(Professional Elective – II)	CO1:	Learn the fundamental concepts in fault tolerant design
			CO2:	Acquire the knowledge of design requirements for self check in circuits
			CO3:	Learn about design for testability rules and techniques for combinational circuits
			CO4:	Design and Implement built in self test.
			CO5:	Acquire the knowledge of Boundary scan architectures
44105	74107	IMAGE AND VIDEO PROCESSING(Professional Elective – II)	CO1:	Learn image representation, filtering, compression
			CO2:	Learn the basics of video processing, representation, motion estimation
			CO3:	Understand the representation of video
			CO4:	Understand the principles and methods of motion estimation
			CO5:	Understand the principles of 2-D Motion estimation in image processing
	74108	ALGORITHAMS FOR VLSI DESIGN AUTOMATION (Professional Elective – II)	CO1:	Understand the general design process of modern VLSI chips
43103			CO2:	Understand various algorithms (Partitioning, Placement, Floor planning) used in VLSI
			CO3:	Build capability to route in VLSI chips with the help of algorithms
			CO4:	Understand MCM, FPGA physical design based algorithms
			CO5:	Get the knowledge of ESD protection, clock distribution in VLSI chips
	78101	RESEARCH METHODOLOGY AND IPR	CO1:	Understand research problem formulation and analyze research related information.
			CO2:	Follow research ethics
45111			CO3:	Understand that today’s world is controlled by Computer, Information Technology, but tomorrow world will be ruled by ideas, concept, and creativity.
			CO4:	Understanding importance of intellectual property rights.
			CO5:	Understand the importance of patent rights and developments in IPR.
	74131	RTL SIMULATION AND SYNTHESIS WITH PLDs LAB (Lab I)	CO1	Identify, formulate, solve and implement problems in signal processing, communication systems etc. using RTL design tools
			CO2	Use EDA tools like Cadence, Mentor Graphics and Xilinx
	74132	VLSI PHYSICAL DESIGN LAB (Lab II)	CO1	Identify, formulate, solve and implement different digital circuits
			CO2	Implement digital circuits using Cadence/ Synopsys/ Equivalent CAD tools

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Regulation : R18-M.Tech-I-II-VLSI-COs

Subject Code		Course Title	Course Outcomes	Course Outcome Description
		At the end of the each course, student will be able to
		I M.Tech-II Semester
44201	74201	LOW POWER VLSI DESIGN	CO1:	Identify the sources of power dissipation in digital IC systems & understand the impact of power on system performance and reliability
			CO2:	Learn about different low power circuit techniques
			CO3:	Understand low power clock distribution networks
			CO4:	Learn about different power minimization techniques and circuit design styles
			CO5:	Learn about low power memories, their implementation
44202	74202	VLSI DESIGN VERIFICATION AND TESTING	CO1:	Familiarity of Front end design and verification techniques
			CO2:	Learn about different data types, arrays, Queues and Lists
			CO3:	Understand tasks, functions, void functions and statements
			CO4:	Understand about basic OOP, its classes and objects
			CO5:	Learn about randomization in System Verilog, its blocks and functions
44203	74203	SYSTEM ON CHIP ARCHITECTURES	CO1:	Design System on Chip different processors.
			CO2:	Acquire knowledge of different internal bus architectures
			CO3:	Understand AES algorithm and JPEG compression implementation in SoC
			CO4:	know how the system forms with the lot of component and has majority about system level interconnections
			CO5:	Introduce hardware and software programmability verses performance
44204	74204	CMOS MIXED SIGNAL DESIGN (Professional Elective – III)	CO1:	Analyze CMOS based Switched Capacitor circuits
			CO2:	Design Phase Locked Loop (PLL) circuit to meet different application areas
			CO3:	Design Data converter circuits like DAC, ADC for a specific application
			CO4:	Design different converters
			CO5:	Study different modulators and filters
45212	74205	VLSI SIGNAL PROCESSING (Professional Elective – III)	CO1:	Implement DSP algorithms, DFG representation, pipelining and parallel processing approaches
			CO2:	Understand retiming techniques, folding and can solve register minimization path problems
			CO3:	Understand different Systolic Array Design Methodology like FIR Systolic Arrays, 2D Systolic Array Design
			CO4:	Design Pipelined, parallel recursive and adaptive filters, Digital Lattice Filters
			CO5:	Understand Numerical strength reduction
43203	74206	DIGITAL SIGNAL PROCESSORS AND ARCHITECTURES (Professional Elective – III)	CO1:	Design, using Matlab-based filter design techniques, FIR and IIR digital filters
			CO2:	Program and debug real-time signal processing algorithms in assembly language on a digital signal processor.
			CO3:	Multidisciplinary teams, identify an useful DSP application, and then plan, design, implement and verify for a digital signal processor.
			CO4:	Give an over view of entire digital signal processing techniques i.e. convolution, DFT, FFT, IIRFIR filters. The fixed and floating-point representation, different types of errors introduced during A-D and D-A converter stage.
			CO5:	Introduce the DSP computational building blocks and special types of addressing modes compared to normal microprocessor.
43205	74207	ASIC DESIGN (Professional Elective – IV)	CO1:	Be familiar with ASIC designs
			CO2:	Learn about library cell design, library architecture
			CO3:	Understand different types of simulation, models and verification
			CO4:	Learn about physical design, different CAD tools, their methods and algorithms
			CO5:	Understand routing, planning and placement
44205	74208	SCRIPTING LANGUAGES (Professional Elective – IV)	CO1:	Understand the characteristics and uses of scripting languages
			CO2:	Learn the different features of Advanced Perl
			CO3:	Acquire knowledge of TCL philosophy and different features
			CO4:	Learn about advanced TCL
			CO5:	Get knowledge of object-oriented programming concepts
44206	74209	HARDWARE SOFTWARE CO-DESIGN (Professional Elective – IV)	CO1:	Study the need of different target architectures and co-design to solve engineering, communication and other problems.
			CO2:	Analysis and extension of existing compilers and languages to system level co-design models for creation and using of modern tools
			CO3:	Design mixed hardware-software systems and the design of hardware-software interfaces
			CO4:	Focus on common underlying modeling concepts and the trade-offs between hardware and software components
			CO5:	Learn about System –level specification, design representation for system level synthesis, system level specification languages
44231	74231	ANALOG AND DIGITAL CMOS VLSI DESIGN LAB (LAB III)	CO1:	Design digital and analog Circuits using CMOS
			CO2:	Use EDA tools like Cadence, Mentor Graphics and other open source software tools like Ngspice
44232	74232	VLSI DESIGN VERIFICATION AND TESTING LAB (Lab – IV)	CO1:	Verify increasingly complex designs more efficiently and effectively
			CO2:	Use EDA tools like Cadence, Mentor Graphics
	74233	TECHNICAL SEMINAR	CO1	Collection and review of research material from literature
			CO2	Analysis of concepts in multi-disciplinary research areas
			CO3	Preparation and presentation of technical topics with decent communication skills

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Regulation : R18-M.Tech-II-IYear-VLSI-CO 

Subject Code	Course Title	Course Outcomes	Course Outcome Description
	At the end of the each course, student will be able to
	II M.Tech-I Semester
74301	DESIGN FOR TESTABILITY (Professional Elective – V)	CO1:	Identify the role of testing and understand different types of testing
		CO2:	Differentiate between logic simulation and fault simulation, choose the algorithm that suits the given design for design verification and test evaluation
		CO3:	Understand the testability measures and estimate the difficulty in testing a given design
		CO4:	Learn and use various techniques for chip level Built-In Self Test design
		CO5:	Understand the use of JTAG boundary scan
74302	PHYSICAL DESIGN AUTOMATION (Professional Elective – V)	CO1:	Familiarize with the basics of automation process and various physical designs CAD tools
		CO2:	Develop and enhance the existing algorithms and computational techniques for physical design process of VLSI systems
		CO3:	Develop layouts for VLSI circuits and undergoing various physical design steps like placement and Partitioning
		CO4:	Understand all types of routing techniques
		CO5:	Understand about various compaction algorithms and routing issues
74303	NANOMATERIALS AND NANOTECHNOLOGY (Professional Elective – V)	CO1:	To understand the basic science behind the design and fabrication of nano scale systems
		CO2:	To understand and formulate new engineering solutions for current problems and competing technologies for future applications
		CO3:	To be able to learn about Nano-lithography and MEMS
		CO4:	To gather detailed knowledge of Carbon Nano tubes
		CO5:	To be able to make inter disciplinary projects applicable to wide areas by clearing and fixing the boundaries in system development
78301	BUSINESS ANALYTICS	CO1:	Students will demonstrate knowledge of data analytics.
		CO2:	Students will demonstrate the ability of thinking critically in making decisions based on data and deep analytics.
		CO3:	Students will demonstrate the ability to use technical skills in business analytics and predictive analysis.
		CO4:	Student will be able to understand various forecasting and simulation models.
		CO5:	Students will demonstrate the ability to translate data into clear, actionable insights and learn decisions strategies.
78302	INDUSTRIAL SAFETY	CO1:	After completion of course students will be able to analysis various industrial hazards.
		CO2:	Students should able to implement maintenance tools and techniques in manufacturing industry.
		CO3:	Student will be able to use teratology concept in manufacturing industry.
		CO4:	Students will be able to diagnose industrial equipment’s like air pump, compressors etc.
		CO5:	Students should able to design a preventive maintenance schedule for mechanical components in manufacturing industry.
78303	OPERATIONS RESEARCH (Open Elective) (Common to all)	CO1:	Students should able to apply the dynamic programming to solve problems of discreet and continuous variables
		CO2:	Students should able to apply the concept of non-linear programming
		CO3:	Students should able to carry out sensitivity analysis
		CO4:	Student should able to model the real world problem and simulate it.
		CO5:	Students should able to solve the real time problem using Linear programming problem techniques.
78304	COST MANAGEMENT OF ENGINEERING PROJECTS	CO1:	Understand the parameters involved in the strategic cost management process.
		CO2:	Comprehend the technical and non-technical activities involved in the Project Management.
		CO3:	Understand the relation between project planning and cost analysis.
		CO4:	Understand different types of budgets and application in Civil Engineering projects
		CO5:	Understand different costing methods and valuation techniques for different projects.
78305	COMPOSITE MATERIALS	CO1:	Students will demonstrate the knowledge of reinforcement, & composite performance.
		CO2:	Students will demonstrate the different fibers & mechanical behavior of composites.
		CO3:	Students will demonstrate the knowledge of manufacturing of various metal matrix composites.
		CO4:	Students will demonstrate the manufacturing of polymer matrix composites
		CO5:	Students will demonstrate the knowledge of stress, maximum strain & failure criteria
78306	ENERGY FROM WASTE	CO1:	Understand the types of various energy conversion units from waste.
		CO2:	Get the knowledge on the solid waste disposal techniques
		CO3:	Understand the biochemical conversion of various residues.
		CO4:	Familiarize about the step by step process of Biogas Conversion.
		CO5:	Understand E-waste Management in
74304	Seminar on Project Work	CO1	Collection and review of research material from literature
		CO2	Analysis of concepts in multi-disciplinary research areas
		CO3	Preparation and presentation of technical topics with decent communication skills
74305	Project Work Phase – I	CO1	Apply knowledge to propose solutions to the multi domain and real time systems
		CO2	Perform data collection, review research literature and project management
		CO3	Use modern EDA tools and research knowledge for developing cost effective systems
		CO4	Develop presentation and communication skills

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Regulation : R18-M.Tech-II-II Year-VLSI-COs

Subject Code	Course Title	Course Outcomes	Course Outcome Description
	At the end of the each course, student will be able to
	II M.Tech-II Semester
74401	Project Work Phase – II	CO1	Apply knowledge to propose solutions to the multi domain and real time systems
		CO2	Perform data collection, review research literature and project management
		CO3	Use modern EDA tools and research knowledge for developing cost effective systems
		CO4	Develop presentation and communication skills

 

M.Tech :- EMBEDDED SYSTEMS DESIGN

R15 and R18 Regulation -List of Program Outcomes (POs)

PEO Number	Program Educational Objectives (PEO) of Electronics and Communication Engineering
PEO1	The graduates should be successful in gaining technical competence in the domain of Embedded Systems.
PEO2	The graduates should be able to develop required potential in multidisciplinary areas to carryout research and provide real time solutions for industry and society
PEO3	The graduates should inculcate professional ethics, human values, lifelong learning and communication skills.
PO Number	PROGRAM OUTCOMES of Electronics and Communication Engineering
PO1	An ability to independently carry out research /investigation and development work to solve practical problems.
PO2	An ability to write and present a substantial technical report/document.
PO3	Students should be able to demonstrate a degree of mastery over the area as per the specialization of the program. The mastery should be at a level higher than the requirements in the appropriate bachelor program.
PO4	An ability to understand and analyze system level hardware and software for developing real time solutions
PO5	Students should be able to develop hardware software co-design applications using Integrated Development Environment (IDE) tools, real time operating systems and Development boards.
PO6	Students should be able to adopt new technologies for implementing multidisciplinary design applications.

R15 Course Outcomes (COs):

Code number	Name of the Course	Course Outcomes
I M.Tech- I semester
43101	EMBEDDED SYSTEMS DESIGN	At the end of the course a student will be able to: CO1.To compare Embedded system design models using different processor technologies (single-purpose, general-purpose, application specific processors) CO2.To describe and compare the various types of peripherals used in embedded systems CO3.To apply Embedded Firmware Design Approaches and Development methodologies CO4.To use modern engineering tools necessary for integrating software and hardware components in embedded system designs CO5. To understand the real time operating system concepts and inter process communication
43102	EMBEDDED C	At the end of the course a student will be able to: CO1. To select a processor based microcontrollers on its architecture for any application of an embedded system CO2.To understand the programming concepts for rabbit core embedded systems using dynamic CO3. To Analyze the Programming concepts for larger application embedded projects CO4.To compute the delays using timers and counters internally or externally in real time operating system embedded projects CO5. To analyze the software development tools for an embedded systems
43103	MICROCONTROLLERS FOR EMBEDDED SYSTEM DESIGN	At the end of the course a student will be able to: CO1. To acquire the knowledge of ARM processor architecture and various ARM Processor Families CO2. To become competent in ARM Addressing Modes and Instruction set CO3.To acquire skill in THUMB state and its instruction set CO4. To write efficient code in high level language and Assembly language for ARM Processor core CO5. To examine various cache memory technologies that surrounds ARM cores CO6. To acknowledge about various memory management units
43104	SENSORS AND ACTUATORS	At the end of the course a student will be able to: CO1.To know the fundamental physical and technical base of sensors and actuators CO2.To know the different types of sensors, and its parameters CO3. To describe the basic laws and phenomena that define behavior of radiation and electronics surface analyze various premises, approaches, procedures and results related to sensors and actuators CO4.To apply their knowledge on different applications of sensors CO5.To understand the operations of different types actuators
45111	ADVANCED COMPUTER ARCHITECTURE	At the end of the course a student will be able to: CO1.To understand the design blocks in a computer system and memory modules .CO2.To analyze the performance of the RISC processors by pipelining approach CO3.To execute the instructions in parallel by customizing and scheduling CO4.To understand multi-processor architecture and its memory modules CO5. To understand the interconnectivity between processors in a network
43105	CPLD AND FPGA ARCHITECTURES AND APPLICATIONS	At the end of the course a student will be able to: CO1.To understand the difference between FPGA and CPLD architectures CO2.To understand all types FPGA interconnecting technologies CO3.To know different FPGA vendors architecture and their applications CO4.To develop the capability of logic expression using Anti fuse FPGA such as ACTEL FPGAs CO5.To design, Counters, Accumulators, other applications using FPGA technology
45103	ADVANCED OPERATING SYSTEMS	At the end of the course a student will be able to: CO1.To evaluate the necessary modules for an operating system and implement in the program .CO2.To understand file system and customize the blocks desired for an embedded system CO3.Inter-process communication problems will be solved and various algorithms will be developed for synchronization, scheduling and memory management issues CO4.Requirement of high-end systems which are multicore will be deployed to enhance the features and evaluate CO5. Protocols and Techniques are used to communicate between multiple workstations
43106	SIMULATION & MODELING SYSTEM	At the end of the course a student will be able to: CO1.Knowing the basic concepts liking sizing threshold voltages in different MOS circuits .CO2.Designing/Drawing the layouts of all logic gates & various MOSFET’s by using scalable design rules CO3.Knowing the methods to find delays, power utilized by using different methods of testing CO4.Designing different memory cells & arrays finding different faults by conducting different testing methods CO5. Analysis & procedure of back end process in FPGA & ASIC field
43107	VLSI TECHNOLOGY AND DESIGN	At the end of the course a student will be able to: CO1.To understand the design blocks in a computer system and memory modules .CO2.To analyze the performance of the RISC processors by pipelining approach CO3.To execute the instructions in parallel by customizing and scheduling CO4.To understand multi-processor architecture and its memory modules CO5. To understand the interconnectivity between processors in a network
48101	INNOVATION AND ENTREPRENEURSHIP	At the end of the course a student will be able to: CO1.Apply innovative tools for entrepreneurship .CO2.Apply models and theories of entrepreneurship and innovation to real life examples at the individual, organizational and institutional levels CO3.Assess and evaluate new venture opportunities, conceptually and through the preparation of an opportunity assessment. CO4.Develop a comprehensive and well structured business plan for a new venture CO5. Demonstrate the documentation process for starting an enterprise
48102	PROJECT MANAGEMENT	At the end of the course a student will be able to: CO1.Students gain the knowledge in project management tools and techniques for successful planning and execution of Projects. CO2.Equipped with the ability to explore the new project proposals and assessing the potential risks and profitability associated with the proposals
48103	FUNDAMENTALS OF MARKETING	At the end of the course a student will be able to: CO1.Demonstrate a broad understanding of the major conceptual and theoretical principles upon which the practice of marketing is based. CO2.Demonstrate a general understanding of marketing management tasks and of how marketing fits into the organizational environment and interacts with diverse environments CO3.Identify and evaluate secondary research from a variety of sources. As a reflective and critical thinker, use this research information to apply marketing concepts and principles to propose ethical, creative solutions to a range of marketing related problems that arise in business contexts CO4.Appropriately communicate marketing ideas in written and oral form. This includes presentations, case studies, and reports using reference materials
43131	EMBEDDED SYSTEMS LAB-I	At the end of the course a student will be able to: CO1.To get the knowledge about the concepts and methods of embedded system software programmes using embedded C language. CO2.To analyze the results of timers and timing simulations and to use these simulation results to debug on 8051 CO3.Students will have the knowledge through hands-on experimentation the Keil tools for 8051 design as well as the basics of interfaces, simulate and implement the embedded systems. CO4.To Develop the RTOS based programmes on 8051 microcontroller board. CO5. To analyze the Concepts of external interfaces with 8051 microcontroller board.
43201	EMBEDDED REAL TIME OPERATING SYSTEMS	At the end of the course a student will be able to: CO1.To understand Embedded Real Time software that is needed to run embedded systems CO2.To understand open source RTOS and their usage CO3.To be Able to visualize various subsystem modules that can be built using RTOS system calls CO4.To understand how to build a system with Universal I/O Calls and other System Calls CO5. To understand how to configure kernel and RTOS Subsystem
43202	HARDWARE/SOFTWARE CO-DESIGN	At the end of the course a student will be able to: CO1.To understand co-design models to design different architectures by using co-design languages CO2.To aware of various prototyping devices and target architectures CO3.To understand the design modern embedded compilation tools CO4.To differentiate the co-design verification at different stages of co-design methodology CO5.To develop co-design systems using multi-language system level specifications
43203	DIGITAL SIGNAL PROCESSORS AND ARCHITECTURES	At the end of the course a student will be able to: CO1.To demonstrate sufficient understanding of theory of digital signal processing and architectures CO2.To deliver different basic blocks of DSP architectures CO3.To Present the architectural features of TMS320C54xx series DSP system CO4.To know the DSP architectures from different vendors including 2100, 2181, blackfin processors CO5. To understand the interfacing techniques to memory, I/Os, ADCs, DACs
43204	NETWORK SECURITY AND CRYPTOGRAPHY	At the end of the course a student will be able to: CO1.To use different cryptography algorithms in embedded system applications CO2.To differentiate about IP security and web security CO3.To get knowledge on Number Theory CO4.To learn about Hash and Mac Algorithms and Authentication Applications CO5. To learn about viruses, intruders and worms
43205	SYSTEM ON CHIP ARCHITECTURE	At the end of the course a student will be able to: CO1.To understanding the basic level of system on chip processor architectures CO2.To designing of various processors by using Parallel Techniques CO3.To exploring different types of memory architectures & their internal structures CO4.To design of Bus architectures by using peripheral specifications CO5. To various Encryption Algorithms for DSP processors
43206	WIRELESS COMMUNICATIONS AND NETWORKS	At the end of the course a student will be able to: CO1.To understand the fundamentals of mobile and cellular communications, system design and cell capacity CO2.To understand the large scale path loss in mobile radio propagation CO3.To model the fading effects in multi path environment CO4.To understand different types of Equalizers and diversity techniques CO5. To acquire knowledge on Wireless LAN concepts
43207	EMBEDDED NETWORKING	At the end of the course a student will be able to: CO1.To design embedded system with use of serial and parallel communication protocols. CO2.To get important knowledge on Application Development using USB and CAN bus for PIC micro controllers CO3.To design Application development embedded systems using embedded Ethernet Rabbit Processors CO4.To Characterize and analyze the properties of internet based application protocols in embedded systems CO5. To get important knowledge on wireless sensor networking communication protolcols
43208	SOFT COMPUTING TECHNIQUES	At the end of the course a student will be able to: CO1.To implement genetic algorithm like Tabu search and Ant-colony search techniques. CO2.To get basic idea about GA application to power system, MATLAB, neural networks toolbox CO3.To analyze the different algorithms in Fuzzy Logic system CO4.To solve the different problems in genetic algorithms using MATLAB CO5. To implement the different applications in neural networks
43209	MULTIMEDIA AND SIGNAL CODING	At the end of the course a student will be able to: CO1.To understand the acquisition and format of image and video signals CO2.To have some knowledge about digitization of sound, quantization and transmission of audio CO3.To use video and audio signals in embedded system design.01 CO4.To familiarize the Video Compression Techniques CO5. To get knowledge on the Audio Compression Techniques
48201	Fundamentals of Technology Management	At the end of the course a student will be able to: CO1.Have firm understanding of the importance of managing technology in addition to working with or working on technology CO2.Know future avenues of business management and the role of technology management in enterprises CO3.Equip themselves with rudiments of tools for technology management in Industry and Organizations.
42204	Energy Audit and Management	At the end of the course a student will be able to: CO1.Students will be able to know about auditing of various energy sources. CO2.Students will able to apply the acquired knowledge in real life CO3.Students will be able to perform various managerial functions in their organizations CO4.Students will able to use various auditing instruments in their energy audit management CO5. Students will able to know and implement various energy saving procedures.
45211	BIG DATA ANALYTICS	At the end of the course a student will be able to: CO1.Define and examine Big data and its evolution, Various kinds of data and systems for handling the data. CO2.Explain Big data management using the systems such as Hadoop CO3.Demonstrate application of MapReduce paradigm for solving big data problems such as word count. CO4.Articulate NoSQL databases and their underlying structures with suitable examples CO5. Describe social media and mobile analytics and state tools for such analysis
43231	EMBEDDED SYSTEMS LAB-II	At the end of the course a student will be able to: CO1.Students will have knowledge about the concepts and methods of embedded system software programmes using embedded C language .CO2.To analyze the results of timers and timing simulations and to use these simulation results to debug on LPC2148 Microcontroller board CO3.Students will have the knowledge through hands-on experimentation the Keil tools for LPC2148 design as well as the basics of interfaces, simulate and implement the embedded systems CO4.To Develop the RTOS based programmes on LPC2148 microcontroller board CO5.To analyze the Concepts of external interfaces with LPC2148 microcontroller board

R18 Course Outcomes (COs):

Code number	Name of the Course	Course Outcomes
I M.Tech- I semester
73101	PROGRAMMING FOR EMBEDDED SYSTEMS	At the end of the course a student will be able to: CO1.Program 8051 based embedded system CO2.Compare and select ARM processor core based SoC with several features peripherals based on requirements of embedded applications CO3.Understand embedded C programming techniques CO4.Develop small applications by utilizing the ARM processor core CO5. Implement Different Microcontroller Interfaces
73102	OPERATING SYSTEMS FOR EMBEDDED DESIGN	At the end of the course a student will be able to: CO1. Evaluate the necessary modules for an operating system and implement in the program CO2.Understand file system and customize the blocks desired for an embedded system CO3. Inter-process communication problems will be solved and various algorithms will be developed for synchronization. CO4.Understand and program scheduler for periodic and aperiodic task structure CO5. Understand different RTOS in embedded systems
73103	EMBEDDED SYSTEM DESIGN	At the end of the course a student will be able to: CO1. Understand an embedded system and to know its applications CO2. Learn the processing elements used in embedded systems CO3.Understand embedded firmware CO4. Knows the use of RTOS in embedded systems CO5. Learn different task communication techniques in RTOS
73104	PYTHON PROGRAMMING	At the end of the course a student will be able to: CO1.Develop algorithmic solutions to real-world computational problems CO2.Develop scripts for handling complex data CO3. Utilize the standard library modules for various applications CO4.Access databases and handle files through Python scripts and programs CO5.Handle complex computations using Object-oriented Python
73109	IMAGE AND VIDEO PROCESSING	At the end of the course a student will be able to: CO1.Learn image representation, filtering, compression .CO2.Learn the basics of video processing, representation, motion estimation CO3.Understand the representation of video CO4.Understand the principles and methods of motion estimation CO5. Understand the principles of 2-D Motion estimation in image processing
78101	RESEARCH METHODOLOGY AND IPR	At the end of the course a student will be able to: CO1.Understand research problem formulation and analyze research related information. CO2.Follow research ethics. CO3.Understand that today’s world is controlled by Computer, Information Technology, but tomorrow world will be ruled by ideas, concept, and creativity. CO4.Understanding importance of intellectual property rights. CO5.Understand the importance of patent rights and developments in IPR.
73131	EMBEDDED PROGRAMMING LAB	At the end of the course a student will be able to: CO1Install, configure and utilize tool sets for developing applications based on ARM processor core CO2.Develop prototype codes using commonly available on and off chip peripherals on the Cortex M3 CO3.Program for Interfacing different I/O devices with Embedded boards CO4.Develop small applications by utilizing the ARM processor core CO5. Understand IDE to development Embedded software
73132	OPERATING SYSTEMS LAB	At the end of the course a student will be able to: CO1.Do programming with linux editor and shell commands CO2.Familiar of the embedded Linux development model. CO3Write, debug, and profile applications and drivers in embedded Linux and RTOS CO4.Understand and create Linux BSP and RTOS for a hardware platform CO5.Understand General OS and RTOS programs
73201	SYSTEM ON CHIP ARCHITECTURES	At the end of the course a student will be able to: CO1.Design System on Chip different processors. .CO2.Acquire knowledge of different internal bus architectures CO3.Understand AES algorithm and JPEG compression implementation in SoC CO4.know how the system forms with the lot of component and has majority about system level interconnections CO5. Introduce hardware and software programmability verses performance
73202	HARDWARE SOFTWARE CO-DESIGN	At the end of the course a student will be able to: CO1.Study the need of different target architectures and co-design to solve engineering, communication and other problems. .CO2.Analysis and extension of existing compilers and languages to system level co-design models for creation and using of modern tools CO3.Design mixed hardware-software systems and the design of hardware-software interfaces CO4.Focus on common underlying modeling concepts and the trade-offs between hardware and software components CO5. Learn about System –level specification, design representation for system level synthesis, system level specification languages
73203	COMMUNICATION BUSES AND INTERFACES	At the end of the course a student will be able to: CO1.Select a particular serial bus suitable for a particular application CO2.Develop APIs for configuration, reading and writing data onto serial bus. CO3.Design and develop peripherals that can be interfaced to desired serial bus CO4.Understand wired and wireless communication protocols, its formats CO5.Understand and gain knowledge on wireless sensors and its application in wireless embedded networks
73207	HUMAN COMPUTER INTERACTION	At the end of the course a student will be able to: CO1.Understand the guidelines influencing human computer interaction CO2.Design an interactive web interface on the basis of models studied CO3.Understand the structure of models of vision CO4.Describe typical human–computer interaction (HCI) models CO5.Analyze and identify stakeholder requirements of HCI systems
73231	PROGRAMMABLE SOC LAB	At the end of the course a student will be able to: CO1.Learn PSoC Programmer CO2.Program first touch kit of PSoC CO3.Program and Interface Analog and Digital I/Os CO4.Understand the FPGA programming using Lab View software. CO5. Understand Xilinx design environment
73232	ADVANCED MICROCONTROLLERS LAB	At the end of the course a student will be able to: CO1.Program Raspberry Pi 2 based embedded system CO2.Perform Different Programs using Raspberry Pi 2 CO3.Understand embedded C programming techniques CO4.Develop small applications by utilizing the beagle bone processor core CO5. Implement Different Microcontroller Interfaces in UAVs
73301	MICROCONTROLLERS FOR EMBEDDED SYSTEMS	At the end of the course a student will be able to: CO1.Identify and understand the basics of different microcontrollers CO2.Identify and understand the basics of different microcontrollers CO3.Identify and understand the function of different blocks of PIC microcontroller CO4.Develop programs for PIC microcontroller using Assembly language CO5.Interface 7 segment LEDs, LCD, and Keyboard with PIC microcontroller
78301	BUSINESS ANALYTICS	At the end of the course a student will be able to: CO1.Students will demonstrate knowledge of data analytics. CO2.Students will demonstrate the ability of thinking critically in making decisions based on data and deep analytics. CO3.Students will demonstrate the ability to use technical skills in business analytics and predictive analysis. CO4.Student will be able to understand various forecasting and simulation models. CO5. Students will demonstrate the ability to translate data into clear, actionable insights and learn decisions strategies.
43204	NETWORK SECURITY AND CRYPTOGRAPHY	At the end of the course a student will be able to: CO1.To use different cryptography algorithms in embedded system applications CO2.To differentiate about IP security and web security CO3.To get knowledge on Number Theory CO4.To learn about Hash and Mac Algorithms and Authentication Applications CO5. To learn about viruses, intruders and worms
78306	ENERGY FROM WASTE	At the end of the course a student will be able to: CO1.Understand the types of various energy conversion units from waste. CO2.Get the knowledge on the solid waste disposal techniques. CO3.Understand the biochemical conversion of various residues. CO4.Familiarize about the step by step process of Biogas Conversion. CO5. Understand E-waste Management in India.