Internet of Things Enabled Antennas for Biomedical Devices and Systems

1. Smart Technologies in Industry 4.0 with Internet of Things enabled printed antenna.- 2. Flexible Microstrip Patch Wearable Antenna for 5G Applications.- 3. Performance Improvement of H-Shaped Antenna for Biomedical Devices.- 4. Low Power Wide-Area Network (LPWAN) Proximity coupled antenna for IoT applications.- 5. Design of wideband implantable antenna for medical checkup applications.- 6. Marquise shaped antenna design for surgical and robotic applications.- 7. ANN modeling and performance comparison of X-band antenna.- 8. Advanced antenna system designs for IoT applications.- 9. Flexible Microstrip Antenna for Medical and Wireless Application

Praveen Kumar Malik is a Professor at the School of Electronics and Electrical Engineering, Lovely Professional University, Phagwara, Punjab, India. He received his Ph.D. with a specialization in wireless communication and antenna design. He has over 40 research papers and three edited/authored books published to his credit. He has guided many students leading to M.E./M.Tech. and guiding students leading to Ph.D. His current interest areas are microstrip antenna design, MIMO, vehicular communication, and IoT. He has been a Guest Editor/Editorial Board Member of many international journals and a Keynote Speaker at many international conferences and invited as a Program Chair, Publications Chair, Publicity Chair, and Session Chair at many international conferences. He has been granted two design patents, and a few are in the pipeline.


Dr. Prasad Shastry, FIETE, Sr Member IEEE, Member Sigma Xi, is a Professor of microwave and wireless engineering in the Department of Electrical and Computer Engineering at Bradley University, Peoria, Illinois. Before joining Bradley University, he worked at the University of Wisconsin-Madison (1982-91). He has over 40 years of experience teaching from the Undergraduate to Ph.D. levels in addition to over 49 years of R&D experience.

At Bradley University, he developed the curriculum, laboratories, and an active research program in the area of microwave and wireless engineering. He established a National Science Foundation-supported advanced microwave engineering laboratory for testing MMICs, an anechoic chamber for antenna measurements, and a microwave integrated circuit fabrication facility. His areas of research include wideband distributed amplifiers (DA), DA architecture-based circuits, reconfigurable circuits and antennas as well as wideband and multi-band antennas, wireless power transfer, and ambient RF energy harvesting. He has made significant contributions in his area of expertise in Industry-University