Dr. P.SURENDRA KUMAR
@becbapatla.ac.in
Associate Professor ECE Department
Acharya Nagarjuna university
Dr. P. Surendra Kumar received his B.Tech degree from V.R. Siddhardha Engineering College, Vijayawada and M.Tech in Digital Electronics and Advanced Communications (DEAC) from National Institute of Technology (NIT) Surathkal Karnataka in the Department of Electronics and Communication Engineering, received Ph.D. in the area of RF & Microwave antennas from Acharya Nagarjuna University, Guntur, AP. He has 18 years of teaching experience as an Associate professor at Bapatla Engineering College, Bapatla.
Areas of interest: Microstrip Antenna design, MIMO antenna and antenna design for 5G and 6G wireless applications, UWB antenna, Metamaterial and metasurface-based antenna design, Dual, triple and multi-band antenna design. He has published 43+ research papers in top journals and conferences and attended 97+ workshops organized by IEEE, IETE and other institutions.
EDUCATION
Bapatla Engineering college, Bapatla
Nagarjuna University (AP).
Ph. D.
2019
National Institute of Technology Karnataka, Surathkal
NITK, Surathkal
(Deemed) M. Tech
(Digital Electronics and Advanced Communications)
2005
7.01
(CGPA)
V. R. Siddhartha Engineering College, Vijayawada
Nagarjuna University (AP).
B. Tech (ECE)
2003
70.05
S. A. William Booth Junior College, Bapatla. Board of Intermediate Education (AP).
Intermediate, MPC
1998
72.6
S.A. High School, Bapatla. Board of Secondary Education (AP).
S.S.C.
1996
71.33
RESEARCH, TEACHING, or OTHER INTERESTS
Engineering, Engineering
FUTURE PROJECTS
A Unique Multi-Band and UWB Four Element MIMO Antenna for 6G mmWave Band Applications
The current invention demonstrates a novel four element compact multi-band and ultra wideband MIMO (multiple-input multiple-output) antenna. The suggested antenna is intended for use in the 6G mmWave band applications. It operates in four operational bands, the first of which has a frequency of 22.23 GHz for the stated band of 7-24GHz. The operational frequency of the second band is 34 GHz in the 32GHz band, while that of the third band is 43.69GHz in the upper 40GHz band. The fourth band’s operational frequency in the 50GHz range, which is 53.38 GHz. The exhibited 6G antenna measures 25 mm × 28 mm × 0.508 mm and is made of low-loss dielectric material Rogers RT/Duriod 5880 (tm) which has a dielectric loss tangent of 0.0009 and relative permittivity of 2.2.
Applications Invited
Testing
THz antenna design for Global Wi-Fi Applications
Prospective bands for the upcoming version of wireless networks include those between 100 GHz and 3 THz. In addition, new ideas and technological advancements in circuits, signal processing, devices, and systems will open up new applications at these frequencies. Global Wi-Fi use at frequencies between 252 GHz and 325 GHz is going to create the first global communication standard for the 250–350 GHz frequency range.
Applications Invited
Implementation
Low Profile Triple-Band MIMO Antenna Using Grounded Coplanar Waveguide Feed for 5G Wireless Applications
The mm-wave MIMO antenna is a viable option for virtual reality services and the streaming of huge video material, however as of yet, 5G wireless technology-specific standards have not been developed or put into practice. Many scholars have begun to bring the standard's foundation, nonetheless. Few mm-wave MIMO antennas are therefore now available. There was a proposal for a MIMO antenna that used two linear arrays, each array having four cylindrical dielectric resonator antennas operating at 30 GHz. Beam tilting was achieved by means of a passive microstrip feed network.
Applications Invited
Implementation
Scopus Publications
Scholar Citations
Scholar h-index
Scholar i10-index
Scopus Publications
Surendrakumar Painam, Kommalapati Rajesh, Karuna Medikonda, Ppm Prasad, T. Krishna Chaitanya, and Dasari Swetha
IEEE
A dual-band MIMO antenna with gain enhancement is intended for Bluetooth, wireless local-area network (WLAN), Worldwide Interoperability for Microwave Access (WiMAX), and ZigBee applications. Along with increased gain, the suggested MIMO antenna generates circular polarization at 2.33 GHz and 2.44 GHz. The circular polarization offers improved and uniform coverage. The proposed antenna has dual-band response at 2.33 GHz and 2.44 GHz with reference to the return loss S 11 < -10 dB and gain of 8.07 dBi, 8.27 dBi and efficiency of 86.44%, 76.30% at 2.33 GHz and 2.44 GHz respectively. It has an average gain (dBi) of 8.17 dBi. Moreover, the proposed MIMO antenna has improved gain according to the recent requirements of wireless communications. The proposed MIMO antenna consists of double split ring slots with coaxial feeding. The radiating slot consists of both circular and rectangular double split slots. Therefore, it is easy to tune the dual-band operation by adjusting the slot lengths. Moreover, the bottom ground plane reduces the back radiation.
Surendrakumar Painam, Vijaya Sankar Anumala, and Mahesh Gatram
IEEE
A compact triple-band antenna is designed for internet of things (IoT) applications including Bluetooth, Zigbee, Wi-Fi, WiMAX, WLAN, industrial IoT (IIoT), Medical Body-Area Networks (MBAN), and Wireless Body Area Network (WBAN) which are operating from 2 GHz to 5 GHz. The proposed antenna having tri-band response resonating at 2.44 GHz, 3.20 GHz and 5.05 GHz, while considering return loss S11< -10 dB and 3-dB bandwidths of 60MHz, 200 MHz and 270 MHz respectively at resonant frequencies. Moreover, the proposed antenna is presenting improved efficiency and gain according to the recent requirements of wireless networks. This antenna has reduced dimensions, ideal to be integrated in most of IoT devices. In addition, the parameters of an antenna such as ground plane, polygon slot and material structures are optimized for better performance.
Surendrakumar Painam, Vijaya Sankar Anumala, Karuna Painam, Krishna Chaitanya Tatikonda, Suneel Miriyala, and Prasad PPM
IEEE
In this work, a novel way of reducing mutual coupling and triple-ultra wideband (UWB) Multiple-input multiple-output (MIMO) antenna for 5G millimeter-wave (mm-wave) communications is proposed. The MIMO design consists of four antenna elements fed at the vertex. The antenna elements are loaded at the top and bottom of the substrate at a distance of 1.1 mm respectively to minimize the effect of mutual coupling. Thus, the isolation achieved a maximum of 36.26 dB. The dimension of the proposed MIMO antenna is 30 mm × 25 mm × 0.8 mm. A fractional bandwidth (FBW) of 51% (23.26-36.91 GHz) and a maximum gain of 10.27 dBi is achieved at 40.48 GHz. In addition, the radiation efficiency of more than 85% is obtained in the frequency range of 23.26 - 43.01 GHz. The peak envelope correlation coefficient of the proposed structure is less than 0.003. The designed antenna is simulated, fabricated and measured; a good agreement between simulation and measurement results were achieved. The performance of the proposed antenna is compared with the existing mm-wave MIMO antennas in literature.
Surendrakumar Painam and Chandramohan Bhuma
Institute of Electrical and Electronics Engineers (IEEE)
A smaller microstrip antenna design is essential for current and future wireless applications. For the design proposed in this article, researchers achieved size reduction when a circular microstrip patch is loaded with a metamaterial structure using a complementary split ring resonator (CSRR) with partially loaded nonuniform metasurfaces (NUMSs) on a ground plane. The designed antenna achieved a size reduction of 74% compared to a conventional microstrip antenna. The proposed antenna, resonating at 6.22 GHz, is designed, fabricated, and tested, and the measured results are then compared with the simulations as well as with the designs reported in the literature. The proposed antenna can be used for wireless applications, such as an indoor base-station antenna for vehicle-tovehicle communications.
Surendra kumar Painam and Chandra Mohan Bhuma
IEEE
A simple hexa-band microstrip antenna is proposed in this work. The proposed antenna offers wide bandwidth due to utilization of heptagon and nonagon rings along with diamond slot. The antenna is designed, simulated, fabricated, and tested. The proposed antenna operates are Bluetooth & WLAN (Wireless Local Area Network) (2.4-2.48 GHz), point to point terrestrial applications (4.4-4.6 GHz), satellite receiver (7.25-7.75 GHz), satellite communication from earth to space (7.9-8.4 GHz), search and rescue transponders for reception (9.2-9.5 GHz) from X-band radars, ground penetrating radar imaging systems (10.6-11.2 GHz). The proposed antenna is compact with the dimensions $25\\ \\mathbf{mm} \\times 25\\ \\mathbf{mm} \\times 1.6\\ \\mathbf{mm}$. At a resonant frequency of 2.4 GHz, the bandwidth is 0.24 GHz, whereas at 4.5 GHz it is 1.07 GHz. Ultra wide bandwidth is achieved over the range 6.01-11.52 GHz (5.51 GHz BW). Obtained average gain is 5.05 dBi with a maximum efficiency of 90.61%. Performance of the proposed antenna is compared with the existing works available in the literature. Measured performance metrics (Return Loss (dB), Gain (dBi), Efficiency (%) and Radiation pattern) are in close agreement with the simulated values.
K. Kirankumar, M. Suneel, and P. Surendrakumar
IEEE
In general noise control is critical issue in signal processing. Almost every signal that we are receiving at the receiver side of any communication system is somehow affected by noise. Noise is the unwanted part of the signal. In any communication system filtering is needed for rejecting all other unwanted frequencies present in the received signal and gives the desired signal. To denoising the different types noise signals requires different noise removing methods. This paper introducing a hybrid technique for noise reduction in speech signals those are corrupted by noise in multi environments i.e. street, airport, car and train noises are processed by Gaussian window and kalman filter. In order to access the accuracy of this combination of filters, the performance of this hybrid technique gives evaluation of both Mean Square Error and Peak Signal to Noise Ratio at the input to the corresponding values at the output of the system. The PSNR value of the proposed system for noise level of 10dB is affected by street noise is achieved 35.457339 as output. The results obtained by using this hybrid technique are better than the other techniques.
RECENT SCHOLAR PUBLICATIONS
MOST CITED SCHOLAR PUBLICATIONS
Publications
No. of. Publications (43)
National Conference (07)
International conference (20)
National Journal (04)
International Journal (12)
GRANT DETAILS
UGC Minor research project (2.3 Lakhs)- Completed
Title: An Investigation of the role of Metamaterials in Microstrip antennas
Objectives: • To study the existing microstrip antenna structures and their limitations.
• To propose the approaches to overcome these limitations.
• To explore metamaterials for microstrip antenna designs.
• To design, develop and test the metamaterial structures for microstrip antenna designs.
• To implement some of the state-of-the-art designs and evaluate their performance.
• To compare and present a detailed report on the state-of-the-art microstrip antenna designs.
• To propose new techniques for improving the bandwidth and gain of microstrip antennas.
• To publish high-quality research papers relevant to this work.
RESEARCH OUTPUTS (PATENTS, SOFTWARE, PUBLICATIONS, PRODUCTS)
Patent Filed
Title: A Unique Multi-Band and UWB Four Element MIMO Antenna for 6G mmWave Band Applications
Application Number-202341061465
Application Ref Number-202341061465
Filing Date-13/09/2023 -Indian Patent Office
Industry, Institute, or Organisation Collaboration
Organization Collaboration: V. R. Siddhartha Engineering College, Vijayawada
SOCIAL, ECONOMIC, or ACADEMIC BENEFITS
Received 3rd Best Research Paper Award from IISc Bangalore, INDICON2016.
Received 1st Best Research Paper Award from Indian Conference on Antennas and propagation IEEE Hyderabad section (InCAP2018).
Received Best Research Paper Award from IETE Chennai CHENCON 2021.
Received Best Teacher Award-2022 From ECE Department, Bapatla Engineering College.
Received Best Young Researcher Award from Global Education (GECL2k19).
Nominated for young scientist award-2018 from innovative research developers (IRDP)
Published IEEE journal papers in IEEE Antennas and Propagation.
Reviewer for SCI Journal (International Journal of RF and Microwave Computer-Aided Engineering, John Wiley & Sons Periodicals, Impact factor:1.306)
Most of my research papers are available in IEEE explore
Published research papers in IISc Bangalore, IIT Roorkee and IIT Bhubaneswar.
UGC Minor research project is sanctioned and received 2.5Lakhs.
Submitted project proposal for DRDO with the title “Microstrip antenna design using metamaterial for radar
Submitted project proposal for ISRO with the title “Miniaturization of microstrip antenna using metamaterial and
Submitted major project for SERB with the title “Advanced microstrip antenna design for 5G wireless
Submitted seminar/workshop/conference proposal for ISRO.
Worked as TEQIP coordinator
Worked as NBA coordinator for both B.Tech and M.Tech
Worked as time-table in charge
Worked as