Compact Broadband Antenna Integrated with Filter

Academic Paper , 2019 , 39 Pages , Grade: M. Tech

Electrotechnology

In recent years, there has been constant growth in using gigahertz frequencies for various applications. The state of the art of antenna integration with passive circuits techniques offering increased cut-off frequencies, open up new opportunities for integrating systems along with an antenna for either Transmit/Receive application. The work carried out in this seminar mainly deals with the survey of antenna structures which are compatible to integrate with passive circuits for microwave as well as millimeter/sub-millimeter wave applications.

Lot of research in the field of passive receiver front end design is being carried out. This work covers three aspects of passive receiver front end design. The first is the analysis and design of new wide band high gain micro strip antennas, the second aspect is the design of compact high performance low-pass and band-pass filters and the third aspects is to integrate antenna and filter into single substrate. The trend of communication systems has imposed many restrictions on designers to have systems which should be light weight, robustness and have easy integration to other microwave circuits.

In most of the communications systems the receiving antenna is followed with a band-pass filter. In microwave band this is normally a distributed lter and is implemented using the transmission line resonators. The transmission line filters are not compact, and in many applications where size is an issue may not provide the best solution. In the new active arrays, for example, it is desirable to integrate a complete front end with each individual antenna element. The area allocated to each cell, however, is determined by the array design and apertures efficiency requirements and is barely integrate the antenna and band pass filter in a single module, as is it more compact may also decrease the prefiltering losses to improve the noise performance. The design of such system is a challenging task.

Contents

Abstract

List of Figures

List of Tables

Abbreviations

1 Introduction
1.1 Antenna for Wireless Application
1.2 Filters for Wireless Application
1.3 Design Consideration Parameters of MSA
1.3.1 Substrate Properties
1.3.2 Resonant Element Length
1.3.3 Resonant Input Resistance
1.3.4 Bandwidth
1.3.5 Losses due to Surface Waves
1.3.6 Losses due to Dielectric
1.3.7 Losses due to Dispersion
1.4 Parameters of MSA
1.4.1 Effect of Width (W)
1.4.2 Effect of Dielectric Constant
1.4.3 Effect of Height (h)
1.4.4 Effect of Loss Tangent
1.4.5 Effect of Probe Diameter
1.4.6 Effect of Feed Point Location (x)
1.4.7 Effect of Radome
1.4.8 Effect of Ground Plane
1.5 Introduction to the Problem

2 Related Literature Review

3 Parametric Study of MSA
3.1 Design Consideration Parameters of MSA
3.1.1 Substrate Properties
3.1.2 Resonant Element Length
3.1.3 Resonant Input Resistance
3.1.4 Bandwidth
3.1.5 Losses due to Surface Waves
3.1.6 Losses due to Dielectric
3.1.7 Losses due to Dispersion
3.2 Parameters of MSA
3.2.1 Effect of Width (W)
3.2.2 Effect of Dielectric Constant
3.2.3 Effect of Height (h)
3.2.4 Effect of Loss Tangent
3.2.5 Effect of Probe Diameter
3.2.6 Effect of Feed Point Location (x)
3.2.7 Effect of Radome
3.2.8 Effect of Ground Plane

4 Remarks and Conclusions
4.1 Remarks
4.2 Conclusions

Bibliography

• Course: ELectronics and Telecommunication
• Grade: M. Tech
• Author: Jagadish Jadhav (Author)
• Year: 2019
• Pages: 39
• Catalog Number: V462115
• ISBN (eBook): 9783668965904
• ISBN (Book): 9783668965911
• Language: English
• Tags: compact, broadband, antenna, integrated, filter