Satish Chand Gupta
UWB Microstrip line filter F.0 Electronics System, F.18 Computational Electronics and Photonics Electronics System Computational Electronics and Photonics Radio Frequency Integrated Circuit Design Ultra-Wideband Communications Technology Millimeter-Wave Propagation and Modeling Microwave Engineering and Waveguides Radio-frequency engineering Monolithic microwave integrated circuit Band-pass filter Topology (electrical circuits) Band-stop filter Electronic filter topology Radar Systems and Signal Processing Filter design Aerospace Engineering Electrical and Electronic Engineering Materials Chemistry

Bio

Satish Chand Gupta is a Research Scholar in Electronics Engineering at Rajasthan Technical University, Kota, India. He holds an M.Tech degree and has published several papers in the field of UWB microstrip line filters. His research interests include UWB microstrip line filters, electronics systems, and computational electronics and photonics. With a growing portfolio of publications and citations, he continues to contribute to the advancement of microwave and RF engineering.

Educational Journey

M.Tech

Experience

0 - 0

Editors Role

Reviewer

GJRE

2020 -

Advisors

Ram Swaroop Meena

Head of Deptt. (Electronics Communication Engineering)

Rajasthan Technical University

Research

Design and Analysis of Compact UWB BPF using Parallel Coupled Microstrip Line with DGS

Article September 11, 2017

This paper presents design and analysis of a simple and compact ultra-wideband (UWB) band-pass-filter using parallel-coupled micro strip line with DGS.A two poles filter is designed by a parallel couple micro strip line. A rectangular defective ground plane is used to enhance coupling between lines i.e. better return loss in UWB range. Simulation of this proposed filter is carried out on CST MWS software, and fabricated using microwave laminate GML 1000 of dielectric constant 3.2 and height 0.762mm with loss tangent 0.001.Measured results are compared with simulation results with good agreement. The electrical equivalent model of this filter is also presented in this paper. The equivalent model of this filter is verified by comparing the frequency response of equivalent circuit of the filter and simulated frequency response of this filter.