KOMMURI PRATAP REDDY INSTITUTE OF TECHNOLOGY
Department of Electronics & Communication
The Department of Electronics and Communication Engineering was established in the year 2008. The experienced professors guide the department aiming at educating and training students with sound knowledge and awareness in the fields of Electronics, Communication, and Information Technology.
The major goal of the Department of Electronics and Communication Engineering is to produce highly knowledgeable, competent and resourceful young engineers who can perform well in a wide variety of job profiles. To achieve this, curriculum provides a strong foundation in both the analytic and technological aspects of E&C Engineering.

It also provides ample opportunities to students to work on mini-projects, develop communication skills, explore internship opportunities in industry and world-class universities and take part in national and international design contests.
The Department of ECE also organizes Workshops, Expert Talks, Project Expo, Poster Presentation competitions for the students. The department has established the Industry Supported Laboratory in association with Shreeji Charan Electronics.
Core Companies offering Electronics and communication Engineering (Bharat Electronics Limited (BEL), Electronics Corporation of India Limited (ECIL), Intel, Samsung Electronics, Sony, Toshiba, Philips Semiconductors, Texas Instruments, LG Electronics, Nokia, AMD, CISCO, Nvdia, HP and IBM are just few to mention).

Vision of the Department

Mission of the Department
- DM1 To impart quality education to the students in Basic Sciences, Mathematics, Electronics and Communication Engineering through innovative teaching-Learning processes.
- DM2 Training the students to conceptualize, design, and solve engineering problems in the field of Electronics and Communications Engineering using various Electronic Design Automation (EDA) tools.
- DM3 Encouraging the research culture among faculty and students by facilitating them to be creative and innovative, through constant interaction with R&D organizations and Industry.
- DM4 Inculcating the team work, imbibe leader ship qualities, professional ethics and Social responsibilities in students and faculty.

Faculty
S. No. | Name of the Faculty | Qualification | Designation |
1 | Dr. S. Sreenath Kashyap | M. Tech, PhD | Professor & HOD |
2 | Dr Vipul kumar Manibhai Dabhi | M. Tech, PhD | Professor |
3 | Dr. P. Anil Kumar | M. Tech, PhD | Associate Professor |
4 | Dr. Shaik Imamvali | M. Tech, PhD | Associate Professor |
5 | K. Prashanth Reddy | M. S | Assistant Professor |
6 | Y. Vishwa Sri | M. Tech | Assistant Professor |
7 | B. Nagalaxmi | M. Tech | Assistant Professor |
8 | P. Hussain Nayak | M. Tech | Assistant Professor |
9 | S. Swapna | M. E | Assistant Professor |
10 | M. Soumya | M. Tech | Assistant Professor |
11 | P. Sujatha | M. Tech | Assistant Professor |
12 | Ch. Bhavani | M. Tech | Assistant Professor |
13 | P. Snigdha Kamala | M. Tech | Assistant Professor |
14 | Shaik Nagur Vali | M. Tech | Assistant Professor |
15 | K. Shyam | M. Tech | Assistant Professor |
16 | R. Keerthi | M. Tech | Assistant Professor |
17 | A. Amala | M. Tech | Assistant Professor |
18 | Ch. Padmasri | M. Tech | Assistant Professor |
19 | T. Venkata Ramana | M. Tech | Assistant Professor |
S.No | Name of the Staff | Qualification | Designation | JNTU ID | Details |
| 1 | Dr. S. Sreenath Kashyap | Ph.D | Professor | 3126-170131-010521 | View |
| 2 | Y Vishwa Sri | M.Tech, (PhD) | Associate Professor | 7508-150413-125613 | View |
| 3 | Dr. P. Anil Kumar | Ph.D | Associate Professor | 0215-0406-155034 | View |
| 4 | Shaik Imam Vali | M.Tech, (PhD) | Associate Professor | 2142-160319-184029 | View |
| 5 | Kommuri Prasanth | M.Tech | Asst Professor | 9799-150416-080422 | View |
| 6 | B. Nagalaxmi | M.Tech | Asst Professor | 2701-160213-124206 | View |
| 7 | P Hussain Nayak | M.Tech | Asst Professor | 2161-160215-114950 | View |
| 8 | S. Swapna | M.Tech | Asst Professor | 2438-181218-121451 | View |
| 9 | M. Soumya | M.Tech | Asst Professor | 5751-161215-125954 | View |
| 10 | P. Sujatha | M.Tech | Asst Professor | 5635-150409-125027 | View |
| 11 | A. Amala | M.Tech | Asst Professor | 1594-240908-152746 | View |
| 12 | Ch Bhavani | M.Tech | Asst Professor | 26150401-141159 | View |
| 13 | Ch.Rajini | M.Tech, (PhD) | Asst Professor | 8879-160306-130506 | View |
| 14 | D.Swathi | M.Tech | Asst Professor | 0778-171208-115828 | View |
| 15 | Nara Sai Krishna | M.Tech, (PhD) | Asst Professor | 5139-170102-174143 | View |
| 16 | Shravan Kumar Marry | M.Tech | Asst Professor | 1960-160107-145049 | View |
Course Outcomes
Characteristics of Good Course Outcomes:
- Specific: Clearly defines what students will achieve at the end of the course.
- Measurable: Allows the assessment of student achievement through tests, assignments, and projects.
- Achievable: Realistic and achievable within the course duration.
- Relevant: Aligned with the broader Program Outcomes (POs) and institutional goals.
- Time-bound: Must be completed by the end of the course.
The advantages of Course Outcomes:
Benefits for the course and module designer
In terms of course and module design, the use of explicit course outcome statements can help ensure consistency of delivery across modules or programs. They can aid curriculum design by clarifying areas of overlap between existing modules, program and qualifications.
Benefits for quality assurance and standards
Quality assurance benefits from the adoption of learning outcomes via the resulting increase in transparency and better comparability of standards between and within qualifications.
Benefits for Students and employers
Students benefit from a comprehensive set of statements of exactly what they will be able to achieve after successful study. Course outcomes provide Students with clear information that can help them with their choice of module/unit/program/qualification to study and can lead to more effective learning.
Benefits for national and international educational transparency
Internationally, Course outcomes contribute to the mobility of students by facilitating the recognition of their qualifications and improving the transparency of qualifications and thus simplifying credit transfer.
Course Outcomes for the Department of Computer Science and Engineering
PROGRAM OUTCOMES (POs)
Engineering Graduates will be able to:
-
PO1.
Engineering Knowledge: Apply the knowledge of mathematics, science, engineering fundamentals, and an engineering specialization to the solution of complex engineering problems. -
PO2.
Problem Analysis: Identify, formulate, review research literature, and analyse complex engineering problems reaching substantiated conclusions using first principles of mathematics, natural sciences, and engineering sciences. -
PO3.
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. -
PO4.
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. -
PO5.
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. -
PO6.
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. -
PO7.
Environment and sustainability: Understand the impact of the professional engineering solutions in societal and environmental context, and demonstrate the knowledge of, and need for sustainable development. -
PO8.
Ethics: Apply ethical principles and commit to professional ethics and responsibilities and norms of the engineering practice. -
PO9.
Individual and team network: Function effectively as an individual, and as a member or leader in diverse teams, and in multidisciplinary settings. -
PO10.
Communication: Communicate effectively on complex engineering activities with the engineering community and with society at large, being able to comprehend and write effective reports and design documentation, make effective presentations, and give and receive clear instructions. -
PO11.
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. -
PO12.
Life-Long learning: Recognize the need for, and have the preparation and able to engage in independent and life-long learning in the broadest context of technological change.
PROGRAM EDUCATIONAL OBJECTIVES
-
PEO1.
Graduates with fundamental and advanced knowledge in Engineering Sciences, Mathematics and Engineering course of Electronics and Communication Engineering along with allied domains of Engineering will be able to exhibit the contemporary skills and become globally competent with a flair for life-long learning. -
PEO2.
Graduates capable in design, develop creative and innovative technologies in the field of Electronics and Communication Engineering, enabling them to work in multi-disciplinary teams to meet the societal needs. -
PEO3.
Graduates with professional ethics and values, positive attitude, effective communication skills and knowledge in cutting edge technologies will ensure sustainable engineering and able to demonstrate top-notch technology in their professional practices.
Department Laboratories
The Department of Electronics and Communication Engineering is well equipped with high end design and analysis laboratories which are used extensively by the students and faculty members for their curriculum and research activities.
The following is the list of the Labs:
- Internet of Things, CMOS VLSI, Advanced Communication Lab
- Microcontrollers, Digital Signal Processing, Basic Simulation Lab
- Digital Logic Design Lab
- Linear & Digital IC Applications, Elements of ECE Lab
- Microwave Engineering &Analog &Digital Communications Lab
- Electronic Devices Circuits, Electronic Circuits Analysis, AnalogCircuits Lab
- Project Lab
S. No. | Name of the Lab | Room No. | Area in Sqmts |
1 | Electronic Devices Circuits, Electronic Circuits Analysis, AnalogCircuits Lab | B G002 | 108.14 |
2 | Linear & Digital IC Applications, Elements of ECE Lab | B 103/A | 95.43 |
3 | Digital Logic Design Lab | B 103/B | 95.43 |
4 | Internet of Things, CMOS VLSI, Advanced Communication Lab | B 104 | 109.95 |
5 | Microcontrollers, Digital Signal Processing, Basic Simulation Lab | B 105 | 79.56 |
6 | Microwave Engineering, Analog & Digital Communications Lab | B 205 | 79.37 |
7 | Project Lab | B G001 | 79.48 |
Workshops/Guest Lectures/Seminars organized by the Department
A.Y: 2024-25
| S.No | Gap | Action taken | Date-Month-Year | Resource person with designation | % of Students | Relevant to POs & PSOs |
| 1 | PO4 | Seminar on Pseudo Differential Biasing Techniques for Single Supply Amplifiers | 21-09-2024 | Dr. G. Sreelaxmi, Asso. Prof & HoD Samskruthi Engineering College | 98 | PO1,PO2,PO4,PO12,PSO2 |
| 2 | PO5 | Work shop on Advanced IoT Security & Real-Time Protocols: XMPP, CoAP and MQTT | 27 & 28-09-2024 | Mr. Mukesh Sankhla, Maker/Software/IoT Developer, and Founder of Maker Brains | 90 | PO2,PO3, PO4,PO5, PO6,PO12, PSO2 |
| 3 | PO5 | Work shop on Python for Scripting for Managing data and Boosting Productivity | 25-10-2024 &26-10-2024 | Mr.Rajesh Reddy, System Engineer, Ray Business Technologies, Hyderabad | 95 | PO2,PO3, ,PO5,PSO1 |
| 4 | PO3 | Guest Lecture on Microwave Waveguides and Transmission Lines: Theory & Simulation | 20-11-2024 | Dr. P. Venkatapathi Associate Professor, CMRIT, Kandlakoya | 96 | PO1,PO2,PO3, ,PO5,PSO1 |
| 5 | PO5 | Workshop on Hardware Integration and Performance of CORTEX M3 processor | 18-12-2024 & 19-12-2024 | Mr. K. Krishna, Technical Lead, VI Micro Systems, Hyderabad | 92 | PO1,PO2,PO3, ,PO5,PSO2 |
| 6 | PO3 | Seminar on Synthesis of Ladder Asymmetrical Two Port Networks | 11-12-2024 | Dr. G. Satish, Asso. Prof & HoD, VNRVJIET | 85 | PO1,PO2,PO3 |
| 7 | PO4 | Guest Lecture on cryptographic algorithms and Network protocols: DHCP and ICMP | 07-01-2025 | Dr. T. Ravi Chandra Asso. Prof , VITS Deshmukhi | 90 | PO1,PO3, ,PO5,PSO1 |
| 8 | PO4 | Seminar on “Entropy, Information Theory and Noise – Interplay in Modern Systems” | 20-01-2025 | Dr. B Ravi Kumar ,Associate Professor, IARE Hyderabad | 89 | PO1,PO3, ,PO4,PSO1 |
| 9 | PO3 | Guest Lecture on “Design and Optimization of Microstrip (Patch) Antennas for 5G /mm Wave Bands” | 21-02-2025 | Dr.V R Sheshagiri Rao, VJIT Hyderabad | 90 | PO1,PO2,PO3, ,PO5,PSO3 |
| 10 | PO5 | Seminar on “Adaptive Filtering Algorithms (LMS, RLS) and Their Real-Time Implementation” | 11-03-2025 | Dr. M. Naresh, Associate Professor, Malla Reddy University, Hyderabad | 87 | PO1,PO2, PO3, ,PO4,PSO2, |
| 11 | PO3 | Guest Lecture on “Architectural-level power optimisation techniques in SoC design” | 17-04-2025 | Dr. P Revanth Kumar, Associate Professor, GNIT, Hydrabad | 91 | PO1,PO2,PO3, ,PO5,PSO1 |
| 12 | PO4 | Seminar on “Small satellites (CubeSats & NanoSats) communication architectures and constellation design” | 07-02-2025 | Dr. D. Narasaiah, Associate Professor, Chaitanya deemed to be University, Hyderabad | 85 | PO1,PO3, ,PO4,PSO3 |
A.Y: 2023-24
S.No | Gap | Action taken | Date-Month-Year | Resource person with designation | % of Students | Relevant to POs & PSOs |
1 | PO4 | Guest Lecture on Signal Extraction Techniques from Noise using Notch and Adaptive Filters | 30-09-2023 | Dr. Mouli, Associate Professor, Sreedattha Engineering and Science | 85 | PO2,PO3,PO4 |
2 | PO4 | Guest Lecture on Concepts on Advanced Digital Modulation Techniques (DSSS & FHSS) | 09-03-2024 | Dr. Sathish, Associate Professor, HITAM Engineering College | 92 | PO2,PO3, PO4,PSO2 |
3 | PO5 | Workshop on ARM Cortex & AVR: Modern Microcontroller Architectures & Automation | 17 & 18-10-2023 | Mr. C. Keyur, Team Leader, Sreeji Charan Technologies, benglore. | 86 | PO2,PO3, PO4,PO5,PSO2 |
4 | PO5 | Guest Lecture on Architecture of DSP Processors & Applications of TMS320C | 23-03-2024 | Dr. Maheshwaran, Professor, CBIT | 89 | PO2,PO3, PO4,PSO2 |
5 | PO4 | Seminar on Intrusion Detection & Prevention Algorithms in Network Security | 05-08-2023 | Dr. Javeed, Associate Professor, Sreedattha Engineering and Science | 90 | PO1,PO3, PO4,PSO1 |
6 | PO3 | Seminar on Sub-threshold CMOS Circuits – Design Challenges | 28-01-2024 | Dr.Nikhil Raj, Associate Professor, LNMIIT, Jaipur | 85 | PO1,PO2, PO3,PSO1 |
7 | PO5 | Workshop on MATLAB for Signal Processing: Basics to Applications | 01 & 2-11-2023 | Mr.Vaibhav, Technical Lead, VI Micro systems, Hyderabad | 88 | PO2,PO3, PO4,PO5,PSO2 |
8 | PO5 | Seminar on Control System Design and Analysis Using MATLAB and Simulink | 10-11-2023 | Dr.Tamarai,Associate Professor, MRCE | 95 | PO1,PO2, PO3,PSO1 |
9 | PO5 | Guest Lecture on Linear ICs in IoT: Designing Smart Sensor Interfaces with ESP8266/ESP32 | 04-04-2024 | Dr. G. Amarnath, Professor, MLRITM, Dundigal | 98 | PO1,PO2, PO3,PSO1 |
10 | PO5 | Seminar on Python for Industrial IoT (IIoT) Applications: Controlling Hardware and Sensors | 01-12-2023 | Dr.Gladson Maria Britto, Professor MRCE | 92 | PO1,PO2, PO3,PO5,PSO1 |
11 | PO3 | A seminar on Foundations of Probability Theory and Its Application to Stochastic Processes | 15-04-2024 | Dr.Srikanth Mahapatra, Kalinga University | 94 | PO1,PO2, PO3,PSO1 |
12 | PO5 | Guest Lecture on Machine Learning for Signal Processing with MATLAB | 01-05-2024 | Prof. M. Ravi Kumar, Professor, ACE Engineering College | 95 | PO1,PO2, PO3,PO4,PO5,PSO2 |
13 | PO3 | Guest Lacture on Concepts of Multiple-Input Multiple-Output (MIMO) in Communications | 06-04-2024 | Dr. N. Muralikrishna, Prof & HOD, MRCET, Medchal | 98 | PO1,PO2, PO3,PSO1 |
14 | PO3 | A Seminar on “Embedded Systems in IoT” | 29-12-2023 | M. Sravanthi Assistant Professor, Dept of ECE,CMR Engineering College | 90 | PO1,PO2, PO3,PSO1 |
15 | PO3 | A Seminar on VLSI Technologies | 05-07-2024 | Mr. Mahesh, Senior Engineer, SAK Informatics, | 94 | PO1,PO2, PO3,PSO1 |
A.Y: 2022-23
S.No | Gap | Action taken | Date-Month-Year | Resource person with designation | % of Students | Relevant to POs & PSOs |
1 | PO3 | Guest lecture on Dependent Random Variables & Applications | 05-02-2023 | Dr. Y. Chakrapani, Professor, Shreyas Engineering College | 94 | PO1,PO2,PO4 |
2 | PO3 | Seminar on Electromagnetic Interference (EMI) and Shielding Techniques | 06-06-2023 | Dr. Gurumurthy, Associate Professor, Pallavi Engineering College | 96 | PO1,PO2,PO4 |
3 | PO4 | Guest Lecture on Learning Concepts on Signal flow graphs & Implementation | 01-11-2022 | Dr. Keshavan, Professor, Vasavi Engineering College | 95 | PO1,PO2,PO4,PO5 |
4 | PO4 | Guest lectures on Subsystem Design for VLSI Circuits | 01-02-2023 | Mr. Victor Paul, senior Trainer , Carval Info Systems | 92 | PO1,PO2, PO3,PO4,PO5,PSO2 |
5 | PO4 | Seminar on Hybrid RF-Optical Communication: Innovations and Future Trends | 01-08-2023 | Dr. Vikas , Professor, SR University | 93 | PO1,PO2, PO3,PO4,PO5,PO12,PSO3 |
6 | PO3 | Seminar on High-Performance Radar Signal Processing: Trends and Techniques | 15-02-2023 | Dr. Narsaiah, Professor, Chaitnya University | 96 | PO2, PO3,PO4,PO5,PO12,PSO3 |
7 | PO5 | workshop on Communication Systems Simulation Using MATLAB | 15-03-2023 | Mr. Jagadeesh, Technical Director, Virtulonix, Hyderabad | 95 | PO1,PO2, PO3,PO4,PO5,PSO3 |
8 | PO3 | Guest Lecture on Introduction to Signals and Systems: Time and Frequency Domain Analysis | 01-12-2023 | Dr. Palanivel, Professor, MRITS | 96 | PO1,PO2, PO3,PO4,PSO1 |
9 | PO6 | Seminar on Data Converters: Flash ADCs and Dual DACs | 01-09-2023 | Dr. Niranjan Guptha, rofessor, CMREC | 92 | PO1,PO2, PO3, PSO1 |
10 | PO3 | Seminar on Noise and Signal Processing in Communication Systems with Adaptive Filtering Techniques | 20-08-2023 | Dr. Babu, Associate Professor, Sreedattha Engineering and Science | 94 | PO2, PO3,PO4,PSO3 |
11 | PO5 | Guest Lecture AI and Machine Learning: The Future of Technology | 30-03-2023 | Dr. Habib, Professor, VBIT | 80 | PO1,PO2, PO3,PO4,PO5,PO12,PSO3 |
12 | PO5 | Guest Lecture Introduction to IoT: Connecting the World Through Smart Devices | 20-12-2022 | Dr. Karthikeyan, Associate Professor, Gurunanak Enginnering College | 90 | PO1,PO2, PO3,PO12,PSO1 |
13 | PO5 | Seminar on IoT Protocols and Communication Technologies: How Devices Talk | 15-11-2022 | Dr. Shanthanu sahu, Associate Professor, IARE | 96 | PO1,PO2, PO3,PSO1 |
14 | PO5 | Seminar on Cybersecurity in Networking: Protecting Data in Transit | 25-11-2022 | Dr. B.shiva Naidu, Vageswari Engineering college | 93 | PO1,PO2, PO3,PO5,PO12,PSO3 |
A.Y: 2021-22
S.No | Gap | Action taken | Date-Month-Year | Resource person with designation | % of Students | Relevant to POs & PSOs |
1 | PO3 | A workshop on PCB Prototyping & Assembly: From Design to Soldering and Testing | 20 & 21-01-2022
| Mr.Shivan durai, Technical supervisor, Pantech e-Learning | 94 | PO1,PO2, PO3,PSO1 |
2 | PO3 | A Guest Lecture on 555 Timer IC: Applications in Pulse Generation and Waveform Shaping | 13-04-2022
| Dr. Senthil, Professor, KL University | 96 | PO2, PO3,PO4 |
3 | PO4 | Seminar on TCP/IP Protocol Suite: Understanding Internet Communication | 13-10-2021
| Dr. Y. Chakrapani, Professor, ACE Engineering College | 95 | PO2, PO3,PO4,PO5,PSO1 |
4 | PO4 | A workshop on Arduino & Raspberry Pi Shields for Embedded Systems | 04 & 05 -04-2022
| Mr. K. Krishna, Technical Lead, VI Micro Systems, Hyd
| 92 | PO1,PO2, PO3,PO4,PO5,PO12,PSO3 |
5 | PO4 | Guest lecture on Image Compression models and Restoration Techniques | 30-10-2021
| Dr.Y.V.S laxmi, Professor, St Martins Engineering College | 93 | PO3,PO4,PO5,PSO3 |
6 | PO3 | Seminar on Sub threshold logic design, energy recovery circuits | 24-03-2022
| Dr. Shivaramulu, KITs, warangal
| 96 | PO3,PO4,PO5,PSO1 |
7 | PO5 | A workshop on Wavelet Transform and Image Processing with MATLAB | 01 &02-07-2022
| Mr. Chaitanya Krishna, Technical Lead, Infinera India, Pvt Ltd, Banglore | 95 | PO1,PO2, PO3,PO4,PO5,PSO1 |
8 | PO3 | Seminar on Introduction to Linear ICs: Understanding Operational Amplifiers | 06-06-2022
| Dr. Paramesh, Associate Professor, Vagdevi Engineering College | 96 | PO1,PO2, PO3,PO4,PSO1 |
9 | PO4 | Guest lecture on Orthogonal Frequency-Division Multiplexing (OFDM) in advanced digital modulation techniques | 29-06-2022
| Dr. Sandeep Reddy, Associate Professor, Sreedattha Engineering and Science | 92 | PO2, PO3,PO4 |
10 | PO5 | Seminar on IoT Security Challenges: Protecting Devices from Cyber Threats | 05-01-2022
| Dr. K. Srinivasulu, Professor, ECET | 94 | PO2, PO4,PO5,PSO1 |
11 | PO5 | Seminar on Building Smart Home Automation Systems with IoT
| 23-05-2022
| Dr. Nagarajan, Professor, Sridevi Womens Engineering College | 80 | PO1,PO2, PO3,PO4,PO5,PSO1 |
12 | PO5 | Guest Lecture Actuation and Sensor Technologies in Robotics | 20-12-2021 | Dr. K. Kumar, Professor, GNIT | 90 | PO2, PO3,PO4,PO5,PSO3 |
| Academic year | Number of Events Organized |
| 2024-2025 | 6 |
| 2023-2024 | 7 |
| 2022-2023 | 6 |
| 2021-2022 | 8 |
| 2020-2021 | 10 |






Industrial visit
A.Y: 2024-25
S. No. | Date | Industry/Company visited | No. of students attended |
1 | 28-03-2025 | LED Chip Indus Pvt. Ltd. | 48 |
2 | 21-11-2024 | Bharat Heavy Electrical Limited (BHEL) | 138 |
3 | 15-10-2024 | T-HUB | 41 |
4 | 22-08-2024 | VGS & Technologies Pvt. Ltd. | 53 |
A.Y: 2023-24
S. No. | Date | Industry/Company visited | No. of students attended |
1 | 26-02-2024 | BSNL | 32 |
2 | 18-01-2024 | FLIC Microwave Pvt. Ltd. | 42 |
3 | 05-12-2023 | ARYAHAMA SOLAR | 33 |
4 | 03-11-2023 | NRSC | 25 |
A.Y: 2022-23
S. No. | Date | Industry/Company visited | No. of students attended |
1 | 05-03-2023 | NANO SPAN | 32 |
2 | 02-02-2023 | CPRI | 35 |
3 | 11-11-2022 | L&T | 33 |
4 | 18-10-2022 | NRSC | 30 |
R22 Syllabus
II Year
I Semister
Course Code & Title
- MA301BS: Numerical Methods and Complex Variables
- EC302PC: Analog Circuits
- EE303PC: Network analysis and Synthesis
- EC304PC: Digital Logic Design
- EC305PC: Signals and Systems
- EC306PC: Analog Circuits Laboratory
- EC307PC: Digital logic Design Laboratory
- EC308ES: Basic Simulation Laboratory
- *MC309: Constitution of India
- *MC310: Design Thinking
II Semister
Course Code & Title
- EC401ES: Probability Theory and Stochastic Processes
- EC402PC: Electromagnetic Fields and Transmission Lines
- EC403PC: Analog and Digital Communications
- EC404PC: Linear and Digital IC Applications
- EC405PC: Electronic Circuit Analysis
- EC406PC: Analog and Digital Communications Laboratory
- EC407PC: Linear and Digital IC Applications Laboratory
- EC408PC: Electronic Circuit Analysis Laboratory
- EC409PC: Real Time Project/ Field Based Project
- *MC410: Gender Sensitization Lab
III Year
I Semister
Course Code & Title
- EC501PC: Microcontrollers
- EC502PC: IoT Architectures and Protocols
- EC503PC: Control Systems
- SM504MS: Business Economics & Financial Analysis
- EC511PE: Computer Organization & Operating Systems
- EC505PC: Microcontrollers Laboratory
- EC506PC: IoT Architectures and Protocols Laboratory
- EN508HS: Advanced English Communication Skills Laboratory
- *MC510: Intellectual Property Rights
II Semister
Course Code & Title
- EC601PC: Antennas and Wave Propagation
- EC602PC: Digital Signal Processing
- EC603PC: CMOS VLSI Design
- EC621PE: Data Communications and Computer Networks
- CE600OE: disaster preparedness &planning management
- *MC609: Environmental Science
- EC604PC: Digital Signal Processing Laboratory
- EC605PC: CMOS VLSI Design Laboratory
- EC606PC: Advanced Communications Laboratory
- EC607PC: Industry Oriented Mini Project/Internship
IV Year
I Semister
Course Code & Title
- EC701PC: Microwave Engineering
- EC731PE: Mobile Communications and Networks
- EC743PE: Network Security and Cryptography
- CS722OE: Software engineering
- EC702PC: Professional Practice, Law & Ethics
- EC703PC: Microwave and Optical Communications Laboratory
- EC704PC: Project Stage–I
II Semister
Course Code & Title
- EC851PE: Radar Systems
- EC861PE: Satellite Communications
- CE800OE: Environmental Impact Assessment
- EC801PC: Project Stage–II including Seminar
Professional & Open Elective Subjects
Professional Elective-I
- Computer Organization & Operating Systems
- Embedded System Design
- Electronic Measurements and Instrumentation
Professional Elective-II
- Data Communications and Computer Networks
- Wireless sensor Networks
- CMOS Analog IC Design
Professional Elective-III
- Mobile Communications and Networks
- Machine learning
- Biomedical Instrumentation
Professional Elective-IV
- Digital Image Processing
- Artificial Intelligence
- Network Security and Cryptography
Professional Elective-V
- Radar Systems
- 5G and beyond Communications
- Artificial Neural networks
Professional Elective-VI
- Satellite Communications
- Optical Communications
- Multimedia Database Management Systems
Open Elective-I
- Fundamentals of Internet of Things
- Principles of Signal Processing
- Digital Electronics for Engineering
Open Elective-II
- Electronic Sensors
- Electronics for Health Care
- Telecommunications for Society
Open Elective-III
- Measuring Instruments
- Communication Technologies
- Fundamentals of Social Networks
R18 Syllabus
II Year
Professional Elective-I
- Computer Organization & Operating Systems
- Error Correcting Codes
- Electronic Measurements and Instrumentation
Professional Elective-II
- Object Oriented Programming through Java
- Mobile Communications and Networks
- Embedded System Design
Professional Elective-III
- Artificial Neural Networks
- Scripting Languages
- Digital Image Processing
Professional Elective-IV
- Biomedical Instrumentation
- Database Management Systems
- Network Security and Cryptography
Professional Elective-V
- Satellite Communications
- Radar Systems
- Wireless Sensor Networks
Professional Elective-VI
- System on Chip Architecture
- Test and Testability
- Low Power VLSI Design
Open Elective-I
- Fundamentals of Internet of Things
Open Elective-II
- Electronic Sensors
Open Elective-III
- Measuring Instruments
III Year
I Semister
Course Code & Title
- EC501PC: Microprocessors & Microcontrollers
- EC502PC: Data Communications and Networks
- EC503PC: Control Systems
- SM504MS: Business Economics & Financial Analysis
- EC513PE: Electronic Measurements and Instrumentation
- EC505PC: Microprocessors & Microcontrollers Lab
- EC506PC: Data Communications and Networks Lab
- EN508HS: Advanced Communication Skills Lab
- *MC510: Intellectual Property Rights
- *MC510: Intellectual Property Rights
II Semister
Course Code & Title
- EC601PC: Antennas and Propagation
- EC602PC: Digital Signal Processing
- EC603PC: VLSI Design
- EC613PE: Embedded System Design
- CE600OE: Disaster preparedness &planning management
- EC604PC: Digital Signal Processing Laboratory
- EC605PC e – CAD Lab
- EC606PC: Scripting Languages Lab
- *MC609: Environmental Science
IV Year
I Semister
Course Code & Title
- EC701PC: Microwave and Optical Communications
- EC713PE: Digital Image Processing
- EC723PE: Network Security and Cryptography
- CS702OE: Python Programming
- SM702MS: Professional Practice, Law & Ethics
- EC703PC: Microwave and Optical Communications Laboratory
- EC704PC: Industrial Oriented Mini Project/ Summer Internship
- EC705PC: Seminar
- EC706PC: Project Stage–I
II Semister
Course Code & Title
- EC811PE: Satellite Communications
- EC823PE: Low Power VLSI Design
- CE800OE: Environmental Impact Assessment
- EC801PC: Project Stage–II
- Have To Update
Professional & Open Elective Subjects
I Semister
Course Code & Title
- EC701PC: Microwave and Optical Communications
- EC713PE: Digital Image Processing
- EC723PE: Network Security and Cryptography
- CS702OE: Python Programming
- SM702MS: Professional Practice, Law & Ethics
- EC703PC: Microwave and Optical Communications Laboratory
- EC704PC: Industrial Oriented Mini Project/ Summer Internship
- EC705PC: Seminar
- EC706PC: Project Stage–I
II Semister
Course Code & Title
- EC811PE: Satellite Communications
- EC823PE: Low Power VLSI Design
- CE800OE: Environmental Impact Assessment
- EC801PC: Project Stage–II
- Have To Update
Feedback / Suggestions if any
KPRIT is implementing OBE. OBE is a student centric teaching-learning methodology in which the course delivery and assessment are planned to achieve the stated objectives and outcomes. To achieve the stated outcomes, the faculty members in the department follows different course delivery methods such as lecturing, tutorials, assignments, remedial classes, quiz, presentations, experimental laboratory work, project work, etc.
ICT Initiatives and Tools
Significant ICT initiatives are being implemented in KPRIT. KPRIT adopts many ICT integrated pedagogical methods to enable the learner to meet their learning goals, academic success with required competencies. In addition to the chalk & board lecture method, methods such as Blended Learning, Collaborative learning, Self-learning, Experiential Learning is used to enhance learning opportunities to the students.
Classrooms Teaching with Audio & Visual Connectivity
The lecture delivered by the faculty is through a set of educational technology/tools such as
- Chalk and Board
- Power point presentation (PPT)
- E-Learning
The faculty use chalk and board and audio-visual aids in teaching. Students are also encouraged to actually interact during the lecture hour by getting the doubts clarified in the same class. The college has sufficient number of computers, printers, LCD projectors, application and system softwares which are used in the teaching process to improve its effectiveness.
The following innovative teaching methods are adopted by the faculty:
- Computing devices with Internet facility are used for teaching processes by the faculty to give Power Point presentations, Role Play, Animations, Videos, Pictures etc., such that the students can easily understand the topic.
- Faculty members are advised to avail the higher learning resources such as NPTEL, Coursera and other credible Internet sources for effective teaching.
- Class rooms with LCD and Internet connection are used for teaching processes.
- The faculty are implementing and utilizing Outcome Based Education (OBE) to cater the learning needs of students through innovative methodologies. Orientation programs are conducted for the newly joined faculty to make them aware of the OBE frame work to practice the regular activities in the department.
- Each faculty prepares lecture notes and after completion of each unit of instruction, the material and soft copy will be shared with students.
- All faculties maintain attendance registers and course files.
- Internal question paper and Assignment Questions are prepared based on Bloom’s taxonomy and Bloom’s score will be calculated to identify the level of difficulty in the questions
Title: Flipped classrooms
Goal: To enhance student higher order learning by reversing the traditional model of a classroom, focusing class time on student understanding rather than on lecture.
Context: Flipped classroom in the Blended learning environment for delivering instructional content is a more advanced solution where face-to-face learning is limited. Students in flipped classes access and watch lecture video, read course handout and come to the classroom to complete activities such as group work, assignments, discussion, projects or other exercises. The flipped classroom model can be seen as a tool for implementation of blended learning.
Practice: Flipped classroom approach in the blended learning environment is extensively used in the department and exploited to its best.
The following are the steps involved in implementation of flipped classroom methodology in our department:
- Concerned course faculty post instructions, lecture material and videos and the students are instructed to go through the same.
- After the completion of each session the students must submit the quiz and grades for each student are issued.
- The students are encouraged to hold discussions over the topic during face-to-face interaction in the classroom with the faculty.
- Faculty members hold virtual class meetings for interaction through meeting application i.e., Google meet. Assignments are disseminated, cam scanned copy of assignment is evaluated and outcome of the assessment is posted for reference.
- After completion of each unit, students are required to submit the assignment for each subject.
Demonstration of Concept:
Demonstration teaching is a model where a teacher or instructor demonstrates a skill, technique, or concept to students, often with the goal of having them replicate or apply what they’ve learned.
- Improved understanding: Students gain a deeper understanding of complex concepts through visual demonstration.
- Increased confidence: Students feel more confident attempting new skills or tasks after observing a demonstration.
- Efficient learning: Demonstration teaching can be an efficient way to teach new skills or concepts.
Best Practices:
- Clear instructions: Provide clear, concise instructions and demonstrations.
- Active observation: Encourage students to actively observe and take notes during the demonstration.
- Practice opportunities: Provide opportunities for students to practice what they’ve learned.
Title: Collaborative Learning
Goal: A collaborative conversation is a purposeful, outcome-driven conversation aimed at building on each others ideas. They generate new thinking and/or a more in-depth understanding of a desired outcome.
Context: The institute is promoting collaborative learning by implementing peer to peer teaching ideology to enhance problem solving capability and team skills which promotes healthy internal relations among the students for their all-round career development.
Peer To Peer Teaching
Peer to peer teaching is an effective teaching technique that can be used in the classroom/ lab to enhance learning. This would enable the students to revise their learning and be able to consolidate to fellow students. It also improves their subject knowledge as well as it improves their confidence with the following benefits:
- Direct interaction between students promotes active learning.
- Peer teachers reinforce their own learning by instructing others.
- Students feel more comfortable and open when interacting with a peer.
- Peers and students share a similar discourse, allowing for greater understanding.
- Teachers get more time to focus on the higher order learning.
Think-Pair-Share (TPS)
TPS technique keeps all the students involved in class discussions and provides an opportunity for every student to share an answer to every question. It takes the fear out of class discussion by allowing the students to think carefully about their answers to talk about them with a partner before they called to respond.
Implementation of Think-Pair-Share Methodology
Monitor and support students as they work through the following:
T: (Think) Teachers initiate the process by asking a specific question. Students “think” about what they know or have learned about the topic.
P: (Pair) Each student shall be paired with another student or a small group.
S: (Share) Students share their thinking with their partner. Teachers expand the “share” into a whole-class discussion.
The following are few more collaborative learning activities that are implemented by the institute. They are as follows:
Seminars
Poster presentations
Paper presentations
Group Discussion
Lecture with Quiz
JAM sessions
Role play:
Role-playing is an effective teaching model that involves students acting out scenarios or roles to learn new skills, concepts, or behaviors.
Steps to Implement Role-Playing:
- Define the scenario: Identify the scenario or topic to be role-played.
- Assign roles: Assign students specific roles to play.
- Set ground rules: Establish rules and expectations for the role-playing activity.
- Debrief and discuss: After the role-playing activity, hold a debriefing session to discuss what was learned.
Best Practices:
- Create a safe environment: Ensure students feel comfortable and safe participating in role-playing activities.
- Encourage participation: Encourage all students to participate and engage in the role-playing activity.
- Provide feedback: Offer constructive feedback to students on their performance and participation.
Animations:
The Animation Teaching model uses animations to convey complex concepts and ideas in an engaging and interactive way.
- Increased engagement: Animations can capture students’ attention and maintain their interest.
- Improved understanding: Animations can help students visualize complex concepts and relationships.
- Enhanced retention: Animations can aid in retaining information and recalling concepts.
Types of Animations:
- 2D animations: Traditional cartoons or computer-generated 2D animations.
- 3D animations: Three-dimensional computer-generated animations.
- Interactive animations: Animations that allow user interaction, such as simulations or games.
Best Practices:
- Clear and concise: Ensure animations are clear, concise, and easy to understand.
- Relevant and engaging: Use animations that are relevant to the topic and engaging for students.
- Integrated with other teaching methods: Use animations in conjunction with other teaching methods, such as lectures and discussions
Title: Self-learning - Celonis Academy, MongoDB, UiPath, QlikLearning, Wadhwani foundation
Goal: The primary goal of engaging in self-learning through Celonis Academy, MongoDB University, UiPath Academy, Qlik Learning, and the Wadhwani Foundation is to build practical, industry-relevant skills that enhance career readiness and personal growth. Develop domain-specific expertise in process mining (Celonis), database management (MongoDB), robotic process automation (UiPath), data analytics (Qlik), and entrepreneurship & soft skills (Wadhwani Foundation).
Context: Self learning using curated courses offered by the mentioned platforms will make the students to learn how to apply theoretical knowledge to real-world scenarios by working on hands-on projects, case studies, and interactive exercises, Cultivate a mindset of continuous learning and adaptability, which are essential for success in the rapidly evolving digital landscape, Improve problem-solving, critical thinking, and automation skills to become more efficient, analytical, and innovation-driven, Earn industry-recognized certifications that strengthen my resume and increase employability in competitive job markets. The interdisciplinary approach by way of offering Minors/Majors in UG-Engineering programs is encouraged by this initiative. The courses on frontiers of engineering/emerging areas, employability skill-oriented courses are offered without compromising on regular curriculum.
Practice: The KPRIT gives information to the students about the courses offered through Training and Placement department. Students are informed to go through the video content and course handout in asynchronous manner. The classroom activities and laboratory sessions are conducted by the concerned mentor who supplements learning and promotes higher order cognition in learning. The synchronous learning instills confidence in the students for taking up regular assignments and submission of the same in timely manner. By completing these self-paced learning programs, the students are strive to become a versatile, tech-savvy, and job-ready professional capable of contributing effectively in dynamic, data-driven work environments.
Title: Experiential Learning
Goal: To promote professional skills and knowledge through hands on experience to increase knowledge and developing skills.
Context: To promote innovation and incubation among the students to become future entrepreneurs. Experiential learning has been initiated through Projects/Lab work and Internships. The motive is to introduce experiential learning to create a platform for the students in such a way that they get direct experience and exposure of work place setting, which in turn leads to all round development of the students under the guidelines of experienced teachers and resource persons in the respective domain
Practice: Project Method
This method is used to improve the ability to apply and to reinforce knowledge imparted in the classroom. Being a technical Institute, this method is extensively used to provide empirical evidence of the theory which is learned in the classroom. This will help the students to understand and apply concepts, principles or laws learned. The faculty and experts from industry guides the students at various stages of developing the projects to give timely inputs for the development of the model.
Major steps of the Project Method
- Creating the situation (providing a situation)
- Choosing the project (Selection of the Project)
- Planning.
- Carrying out the project (Executing)
- Evaluating
- Project Report
Teaching Learning Methods for the A.Y 2024-2025
Semester-I
S. No | Course | Teaching Methodology |
1 | Analog Circuits | Lecture |
2 | Network analysis and Synthesis | Lecture |
3 | Digital Logic Design | Lecture |
4 | Signals and Systems | Lecture Peer-to-Peer Teaching |
5 | Microcontrollers | Lecture |
6 | IoT Architectures and Protocols | Lecture Experiential Learning |
7 | Control Systems | Lecture |
8 | Computer Organization and Operating Systems | Lecture Seminars Method |
9 | Microwave and Optical Communications | Lecture Peer-to-Peer Teaching |
10 | Digital Image Processing | Lecture |
11 | Network Security and Cryptography | Lecture Flipped Classroom |
Semester-II
S. No | Course | Teaching Methodology |
1 | Probability Theory and Stochastic Processes | Lecture |
2 | Electromagnetic Fields and Transmission Lines | Lecture |
3 | Analog and Digital Communications | Lecture |
4 | Linear and Digital IC Applications | Lecture |
5 | Electronic Circuit Analysis | Lecture WIL-WIT |
6 | Antennas and Wave Propagation | Lecture Quiz |
7 | Digital Signal Processing | Lecture |
8 | CMOS VLSI Design | Lecture |
9 | Data Communications and Computer Networks | Lecture |
10 | Satellite Communications | Lecture |
11 | Low Power VLSI Design | Lecture |
Teaching Learning Methods for the A.Y: 2023-2024
Semester-I
S. No | Course | Teaching Methodology |
1 | Analog Circuits | Lecture |
2 | Network analysis and Synthesis | Lecture |
3 | Digital Logic Design | Lecture |
4 | Signals and Systems | Lecture Think-Pair-Share |
5 | Microprocessors & Microcontrollers | Lecture Seminars Method |
6 | Data Communications and Networks | Lecture |
7 | Control Systems | Lecture |
8 | Electronic Measurements and Instrumentation | Lecture Think–Pair–Share |
9 | Microwave and Optical Communications | Lecture |
10 | Digital Image Processing | Lecture |
11 | Network Security and Cryptography | Lecture Quiz |
Semester-II
S. No | Course | Teaching Methodology |
1 | Probability Theory and Stochastic Processes | Lecture |
2 | Electromagnetic Fields and Transmission Lines | Lecture |
3 | Analog and Digital Communications | Lecture |
4 | Linear and Digital IC Applications | Lecture |
5 | Electronic Circuit Analysis | Lecture Demonstration of Concept |
6 | Antennas and Propagation | Lecture |
7 | Digital Signal Processing | Lecture |
8 | VLSI Design | Lecture |
9 | Embedded System Design | Lecture |
10 | Satellite Communications | Lecture |
11 | Low Power VLSI Design | Lecture |
Teaching Learning Methods for the A.Y: 2022-2023
Semester-I
S.No | Course | Teaching Methodology |
1 | Electronic Devices and Circuits | Lecture Animation |
2 | Network Analysis and Transmission Lines | Lecture |
3 | Digital System Design | Lecture Demonstration Method |
4 | Signals and Systems | Lecture |
5 | Probability Theory and Stochastic Processes | Lecture |
6 | Microprocessors & Microcontrollers | Lecture What I Learn & What I Teach |
7 | Data Communications and Networks | Lecture Animation |
8 | Control Systems | Lecture |
9 | Electronic Measurements and Instrumentation | Lecture Seminar |
10 | Microwave and Optical Communications | Lecture Seminar |
11 | Digital Image Processing | Lecture Quiz |
12 | Network Security and Cryptography | Lecture Animation |
Semester-II
S.No | Course | Teaching Methodology |
1 | Electromagnetic Fields and Waves | Lecture |
2 | Analog and Digital Communications | Lecture |
3 | Linear IC Applications | Lecture Peer to Peer Collaboration |
4 | Electronic Circuit Analysis | Lecture |
5 | Antennas and Propagation | Lecture Group Discussions |
6 | Digital Signal Processing | Lecture |
7 | VLSI Design | Lecture |
8 | Embedded System Design | Lecture |
9 | Radar Systems | Lecture |
10 | Low Power VLSI Design | Lecture |
Teaching Learning Methods for theA.Y: 2021-2022
Semester-I
S.No | Course | Teaching Methodology |
1 | Electronic Devices and Circuits | Lecture Animation |
2 | Network Analysis and Transmission Lines | Lecture |
3 | Digital System Design | Lecture Demonstration Method |
4 | Signals and Systems | Lecture |
5 | Probability Theory and Stochastic Processes | Lecture |
6 | Microprocessors & Microcontrollers | Lecture |
7 | Data Communications and Networks | Lecture Animation |
8 | Control Systems | Lecture |
9 | Electronic Measurements and Instrumentation | Lecture Seminar |
10 | Microwave and Optical Communications | Lecture Seminar |
11 | Digital Image Processing | Lecture Quiz |
12 | Network Security and Cryptography | Lecture Animation |
Semester-II
S.No | Course | Teaching Methodology |
1 | Electromagnetic Fields and Waves | Lecture Animation |
2 | Analog and Digital Communications | Lecture |
3 | Linear IC Applications | Lecture Animation |
4 | Electronic Circuit Analysis | Lecture |
5 | Antennas and Propagation | Lecture Group Discussions |
6 | Digital Signal Processing | Lecture Collaborative learning |
7 | VLSI Design | Lecture |
8 | Embedded System Design | Lecture |
9 | Radar Systems | Lecture |
10 | Low Power VLSI Design | Lecture |
Best Projects
Best Projects for the Academic Year: 2024-25
S. No. | Name of the Project | Roll No. | Name of the Student | Name of Guide |
1 | Driven Analysis of Electric Vehicle Population Trends For Sustainable Transportation Policies And Planning | 21RA1A0406 22RA5A0402 21RA1A0407 | P. Keerthi Divya M Alla Lokesh Reddy | Y. Vishwa Sri Dr. S. Sreenath Kashyap |
2 | IoT Based Health Assistance System | 21RA1A0404 22RA5A0403 21RA1A0414 22RA5A0401 | Dubba Hindumathi Durga Prasad M Lonka Vikas Anil Kumar K | Dr. S. Sreenath Kashyap M. Soumya |
3 | Advanced noise reduction techniques for enhancing clarity in telecommunications and broad cast audio systems | 22RA5A0421 22RA5A0420 22RA5A0418 | Sushma Ch Supraja A Sravan Kumar Bandi | M. Soumya S. Swapna |
Best Projects for the Academic Year: 2023-24
S. No. | Name of the Project | Roll No. | Name of the Student | Name of Guide |
1 | 4G/5G Network Based Campus Notice Board for Real Time Updates | 21RA5A0403 21RA5A0402 20RA1A0401 20RA1A0416 | Divya Sri Endla Chandu Dornala Kavali Akhilesh Dharmapuri Srivamshi | Y. Vishwa Sri, S. Swapna |
2 | Design and Development of Accelerometer Enabled Smart wheel chair for Paralyzed Individuals | 20RA1A0407 21RA5A0401 20RA1A0402 20RA1A0412 | Vuluki Kavya Sri Anil Varma Bolleni Arun S. Praveen | Dr. S. Sreenath Kashyap, P. Hussain |
3 | Improving Public Transport Accessibility for the Blind with RFID and IoT-Integrated Bus Detection Systems | 20RA1A0417 20RA1A0403 20RA1A0418 21RA5A0408 | Sanala Teja P. Deekshith M. Uday Kiran Sai Krishna K | B. Nagalaxmi Y. Vishwa Sri |
Best projects for the Academic Year 2022-23
S. No. | Name of the Project | Roll No. | Name of the Student | Name of Guide |
1 | Solar and IoT Based Multi- Functional Agriculture Robot | 19RA1A0428 19RA1A0411 19RA1A0437 19RA1A0413 | Sai Prasanna Kumar Y K. Lakshmi Santoshi T. Spandana Reddy Mahesh Yadav.M | Dr.S.Sreenath Kashyap Y. Vishwa Sri |
2 | Machine Learning and End-to-End Deep Learning for the Detection of Chronic Heart Failure from Heart Sounds | 19RA1A0433 19RA1A0401 19RA1A0418 | V. Shruthilaya K. Akhila CH. Niharika
| Y. Vishwa Sri Dr.S.Sreenath Kashyap
|
3 | IoT Smart Bin | 19RA1A0415 19RA1A0414 19RA1A0409 19RA1A0425 | S. Mounika Reddy A. Manikanth Reddy G. Lasya Sri P. Sai Charan | Dr.S.Sreenath Kashyap K. Shyam |
Internal Quality of Question Paper
Question paper setting
- For each Course question bank is prepared.
- While setting the question paper all previous university exam papers are taken into consideration.
- The pattern/format of question paper is followed as per the university guidelines.
Evaluation
- A scheme of evaluation is to be given by concerned paper setter which will be the base for the evaluation of the answer scripts.
- After every mid semester assessment test, faculty members explain the solution of the question in the class which will enable them to perform well in the final examination.
- If the student remains absent for all the tests conducted, the mid semester assessment marks are marked as “Absent” in the results.
Effective process implementation
Question papers are set and peer reviewed by a group head. Initial question paper for mid semester exam is set by following mention steps.
- Initial draft of the paper is prepared by concerned subject faculty by taking into consideration of blooms taxonomy and Course outcomes.
- Draft of the paper is then presented to the department review committee for review.
- The review committee may give comments if any.
- Question paper is revised after including the suggestions of review committee and presented once again to review committee till it is approved.
- Final paper is drafted after approval of the review committee.

Blooms Taxonomy is followed while setting the internal exam question papers

Process to ensure question from outcomes/ learning levels perspectives
For each question given in the question paper the relevant CO and blooms taxonomy levels are mapped and specified.
A sample of mid semester question paper is specified below.
Academic Year: 2018-19

Academic Year: 2018-19

Academic Year: 2017-18

Methodologies to support weak students and encourage bright students:
Guidelines to identify weak students
The department has the mechanism to identify the weak students and bright students with a set of guidelines, and mentoring them accordingly.
Mechanism of identification weak/ bright students and mentoring :
- Appropriate care has been taken by the faculty in identifying weak/bright students.
- Monitoring the performance of a student in the class like attendance, assignment, mid semester and external examination results are the parameters consider to identify weak/bright students.
- For weak students Remedial and Revisions classes are conducted and Evaluation of the students is carried out from time to time to assess their progress.
- Bright students are encouraged to participate in Technical Events, Ideathons, Hackathons, Smart India Competitions, Drone Technology and Project Expo and motivating them to apply for competitive exams.
- The mentors regularly conduct meeting with the students.

Impact Analysis
- Reduced number of identifiable weak students
- Motivated to participate in extra and co-curricular activities.
- Improved results and less failure in the subject.
Scheme for Weak and Advanced Learners
The department has a well defined process of monitoring, guiding and assisting the students and to identify them as weak or bright students and providing them necessary support in improving their performance.
Process of identification of students as weak/ bright students:
- Appropriate care has taken by the faculty in monitoring the performance of a student in the class, attendance, assignment, mid semester and external examination results.
- The mentors regularly conduct meeting with the students and identify weak and bright students.
- The mentors regularly conduct meeting with the students and identify weak and bright students.
- Faculty will analyze and identify the weak students and bright students based on their previous performance before the start of the semester.
- After the 3rd week of classes based on the observation and previous semester result the identification of weak and bright students will be done.
Scheme
As the students enter into the engineering program, they need a lot of guidance regarding their education, career, behavior, social responsibilities, skill development, etc., which were usually not focused in their previous schools/colleges. Hence, in order to transform the students into well-qualified, industry-ready, and good citizens of India, the students require frequent interaction and counseling.
II Year Mentor-Mentee List
S. No. | Roll No. | Name of the Student | Mentor Name |
1 | 23RA1A0401 | Abhinay Prathapa | M. Soumya |
2 | 23RA1A0402 | Abhishek Goud Kalla | |
3 | 23RA1A0403 | Akshay Kadarla | |
4 | 23RA1A0404 | Anil Jinka | |
5 | 23RA1A0405 | Anjaneyulu | |
6 | 23RA1A0406 | Anusha Gurrala | |
7 | 23RA1A0407 | Ashrith Sathyadeep Kammagani | |
8 | 23RA1A0408 | Balu Goud Godise | |
9 | 23RA1A0409 | Bunny Neela | |
10 | 23RA1A0410 | Eshwar Jethala | |
11 | 23RA1A0411 | Harsha Vardhan Rupineni | Dr. P. Anil |
12 | 23RA1A0412 | Hymavathi Kothuru | |
13 | 23RA1A0413 | Jagadeesh Kalivela | |
14 | 23RA1A0414 | Krupa Gollapally | |
15 | 23RA1A0415 | Lokesh Yadav M | |
16 | 23RA1A0416 | Mahesh Yerraguntla | |
17 | 23RA1A0417 | Mallik Himanshu | |
18 | 23RA1A0418 | Manaswini Pottenolla | |
19 | 23RA1A0419 | Meghana Kumma | |
20 | 23RA1A0420 | Mounika Macharla | |
21 | 23RA1A0421 | Prasanna Priya Bashakarla | K. Shyam |
22 | 23RA1A0422 | Pravalika Cherala | |
23 | 23RA1A0423 | Rakesh Janmula | |
24 | 23RA1A0424 | Rakesh Yanagandula | |
25 | 23RA1A0425 | Ram Reddy Saddi | |
26 | 23RA1A0426 | Ranjith Kola | |
27 | 23RA1A0427 | Ratnakar Vadlakunta | |
28 | 23RA1A0428 | Rishika Vadlamudi | |
29 | 23RA1A0429 | Sai Chandra Malyala | |
30 | 23RA1A0430 | Sai Kumar Reddymalla | |
31 | 23RA1A0431 | Sai Nikhil Reddy Lavu | Shaik Nagurvali |
32 | 23RA1A0432 | Sameer Muhammad | |
33 | 23RA1A0433 | Sathwik Paidipelli | |
34 | 23RA1A0434 | Shiva Kumar Anne | |
35 | 23RA1A0435 | Sravanthi Naikoti | |
36 | 23RA1A0436 | Udaya Laxmi Patchapuram | |
37 | 23RA1A0437 | Uppender Purnam | |
38 | 23RA1A0438 | Venkat Mandhula | |
39 | 23RA1A0439 | Vijay Kumar Aerroju | |
40 | 23RA1A0440 | Vikram Neeli | |
41 | 23RA1A0441 | Vinshitha Sadam | P. Hussain |
42 | 23RA1A0442 | Vishnu Adunuri | |
43 | 23RA1A0443 | Vivekanandan Jaggari | |
44 | 23RA1A0444 | Manvitha Dussa | |
45 | 24RA5A0401 | Abhilash Gajula | |
46 | 24RA5A0402 | Abhinaya Sri Athikam | |
47 | 24RA5A0403 | Ajay Sadhu | |
48 | 24RA5A0404 | Jayasri Mokku | |
49 | 24RA5A0405 | Mahesh A | |
50 | 24RA5A0406 | Mithil Kumar Akkapally | |
51 | 24RA5A0407 | Navatha Rajapeta | P. Sujatha |
52 | 24RA5A0408 | Naveen Kumar Gugulothu | |
53 | 24RA5A0409 | Praveen Varla | |
54 | 24RA5A0410 | Raj Kumar Anala | |
55 | 24RA5A0411 | Rishanth Chittapuram | |
56 | 24RA5A0412 | Sagar Budagam | |
57 | 24RA5A0413 | Sai Prasana Rodda | |
58 | 24RA5A0414 | Shiva Vadla | |
59 | 24RA5A0415 | Shyamala Pambala | |
60 | 24RA5A0416 | Sravan Kumar Aranagi | |
61 | 24RA5A0417 | Sravanthi Tatepally | P. Snigdha Kamala |
62 | 24RA5A0418 | Sri Varsha Nalapala | |
63 | 24RA5A0419 | Srujana Thota | |
64 | 24RA5A0420 | Sukumar Regunta | |
65 | 24RA5A0421 | Sunil Kumar Asoda | |
66 | 24RA5A0422 | Thrikoti Reddy Inturi | |
67 | 24RA5A0423 | Vishnu Teja Akula |
III Year Mentor-Mentee List
S. No. | Roll No. | Name of the Student | Mentor Name |
1 | 22RA1A0401 | Dacharam Abhishek | Y. Vishwa Sri |
2 | 22RA1A0402 | Mudavath Ajay | |
3 | 22RA1A0403 | Thodeti Akash | |
4 | 22RA1A0404 | Erragolla Anilkumar | |
5 | 22RA1A0405 | Mehren Ansari | |
6 | 22RA1A0406 | Bommagoni Baswaraju | |
7 | 22RA1A0407 | Paddana Bhargavi | |
8 | 22RA1A0408 | Sugu Bhargavi | |
9 | 22RA1A0409 | Thuti Deepak | |
10 | 22RA1A0410 | Dabburi Devesh | |
11 | 22RA1A0411 | Jeedi Dona Chandana | Dr. P. Anil Kumar |
12 | 22RA1A0412 | Peerlapally Durga Prasad Reddy | |
13 | 22RA1A0413 | Shaik Eshwar Pranav Sanjay | |
14 | 22RA1A0414 | Mohammed Faheem | |
15 | 22RA1A0415 | Bathini Ganesh | |
16 | 22RA1A0416 | Annapureddy Gayathri | |
17 | 22RA1A0417 | D.Hari Rohith | |
18 | 22RA1A0418 | Pudi Hari Sai Naga Manikanta | |
19 | 22RA1A0419 | Yarram Jagathi | |
20 | 22RA1A0420 | Bakka John Samuel | |
21 | 22RA1A0421 | Dommata Karthik Reddy | S. Swapna |
22 | 22RA1A0422 | Metthalla Kishore Babu | |
23 | 22RA1A0423 | Chegonda Krishnavamshi | |
24 | 22RA1A0424 | Dheeravath Lokesh | |
25 | 22RA1A0425 | Thanniru Mahesh | |
26 | 22RA1A0426 | Shaik Majid | |
27 | 22RA1A0427 | Shaik Musthaq Ahamed | |
28 | 22RA1A0428 | Mogilipaka Naveen | |
29 | 22RA1A0429 | Poloju Poojitha | |
30 | 22RA1A0430 | Battu Prashanth | |
31 | 22RA1A0431 | Kanuganti Prashanth | B. Nagalaxmi |
32 | 22RA1A0432 | Megavath Premkumar | |
33 | 22RA1A0433 | Avidapu Rahul | |
34 | 22RA1A0434 | Bodduna Rahul | |
35 | 22RA1A0435 | Kunduru Rahul Yadav | |
36 | 22RA1A0436 | Bhukya Rajashekar | |
37 | 22RA1A0437 | Pedagolla Ramesh Yadav | |
38 | 22RA1A0438 | Pagidala Rishika Reddy | |
39 | 22RA1A0439 | Kommula Rushikesh Reddy | |
40 | 22RA1A0440 | Gayatri Sai Bharat Pulipaka | |
41 | 22RA1A0441 | Guguloth Sai Charan | Shaik Imam Vali |
42 | 22RA1A0442 | Kummari Sai Harshitha | |
43 | 22RA1A0443 | Divili Sai Charan | |
44 | 22RA1A0444 | Akula Shiva | |
45 | 22RA1A0445 | Korvetha Shivaramprasad | |
46 | 22RA1A0446 | Royyala Shravan Kumar | |
47 | 22RA1A0447 | Dhudipala Shushrutha Reddy | |
48 | 22RA1A0448 | Talla Sree Sandeep Reddy | |
49 | 22RA1A0450 | Pochagoni Srikanth | |
50 | 22RA1A0451 | Chekkabandi Srinikitha | |
51 | 22RA1A0453 | Kethavath Thirupathi | Ch. Bhavani |
52 | 22RA1A0454 | Penta Uday Sagar | |
53 | 22RA1A0455 | V Umesh | |
54 | 22RA1A0456 | Kundarapu Vamshikrishna | |
55 | 22RA1A0457 | Devarai Vani | |
56 | 22RA1A0458 | Kodithyala Varshitha | |
57 | 22RA1A0459 | Gandra Venkatesh | |
58 | 22RA1A0460 | Kethavath Vikas | |
59 | 22RA1A0461 | Sana Vinay Kumar Reddy | |
60 | 22RA1A0462 | Bayyapu Vinith Reddy | |
61 | 22RA1A0463 | Raini Yeshwanth | Amala |
62 | 23RA5A0401 | Aishwarya S | |
63 | 23RA5A0402 | Akhila Kodari | |
64 | 23RA5A0403 | Bhavani Pendem | |
65 | 23RA5A0404 | Charan Kumar Boga | |
66 | 23RA5A0405 | Navya Vanarasi | |
67 | 23RA5A0406 | Snehitha Nangari | |
68 | 23RA5A0407 | Trividha Kummari | |
69 | 23RA5A0408 | Veerendra Prasad Mitte |
IV Year Mentor-Mentee List
| S. No. | Roll No. | Name of the Student | Mentor Name |
| 1 | 21RA1A0401 | Mekala Abhilash Reddy | B. Nagalaxmi |
| 2 | 21RA1A0403 | Sabhavath Chinna | |
| 3 | 21RA1A0404 | Dubba Hindumathi | |
| 4 | 21RA1A0405 | Gopavarapu Indrasena | |
| 5 | 21RA1A0406 | P Keerthi | |
| 6 | 21RA1A0407 | Alla Lokesh Reddy | |
| 7 | 21RA1A0408 | Anuga Naresh | |
| 8 | 21RA1A0409 | Ganji Nikhil | |
| 9 | 21RA1A0410 | Ramavath Parashuram | |
| 10 | 21RA1A0411 | Gandlakanna Sandeep | |
| 11 | 21RA1A0412 | Sindhu Cherukupally | Dr. Vipul Kumar M Dabhi |
| 12 | 21RA1A0414 | Lonka Vikas | |
| 13 | 22RA5A0401 | Anil Kumar K | |
| 14 | 22RA5A0402 | Divya M | |
| 15 | 22RA5A0403 | Durga Prasad M | |
| 16 | 22RA5A0404 | Gopaiah N | |
| 17 | 22RA5A0405 | Harshavardhan Teja B | |
| 18 | 22RA5A0406 | Karthik K | |
| 19 | 22RA5A0407 | Karthik Reddy Koppula | |
| 20 | 22RA5A0408 | Keerthika P | |
| 21 | 22RA5A0409 | Khusboo Solanki | Shaik Imam Vali |
| 22 | 22RA5A0410 | Lakshmi Varun G | |
| 23 | 22RA5A0411 | Madhu Gaddam | |
| 24 | 22RA5A0412 | Manusri T | |
| 25 | 22RA5A0413 | Pavan Teja Mallaiah | |
| 26 | 22RA5A0414 | Raghupathi Parpelli | |
| 27 | 22RA5A0415 | Rahul S V | |
| 28 | 22RA5A0416 | Saisharath Allivadha | |
| 29 | 22RA5A0418 | Sravan Kumar Bandi | |
| 30 | 22RA5A0419 | Srinesh Goud E | |
| 31 | 22RA5A0420 | Supraja A | P. Hussain |
| 32 | 22RA5A0421 | Sushma Ch | |
| 33 | 22RA5A0422 | Uday Kumar Burugu | |
| 34 | 22RA5A0423 | Vagdevi V | |
| 35 | 22RA5A0424 | Vamshi Krishna Balla | |
| 36 | 22RA5A0425 | Vijay Kumar A |
Contact Us

Dr. S. Sreenath Kashyap
HoD-ECE
DEPARTMENT OF Electronics & Communication
Kommuri Pratap Reddy Institute of Technology,
Email: ecehod@kpritech.ac.in,
Ghanpur [V], Near NTPC, Ghatkesar [M],
Medchal [D], Telangana, India. Pin: 500088.



