Final year presentation on Advanced design system

Project presentation

1. Proposed Topic

2. CONTENTS WORK DONE 06 01 AIM 02 OBJECTIVE 03 INTRODUCTION 04 LITERATURE REVIEW 05 INFERENCE DRAWN OUT 08 REFERENCES FLOW CHART 07

3. AIM To design a Compact Microwave strip filter using resonators of smaller sizes with better performance

4. OBJECTIVE Design of novel resonator structures with additional structure. Improved passband and stopband performance. Optimum locations for transmission zeroes. Compact resonator filter.

5. W1 FLOW CHART W2 W4 W3 W1:Software learning(3 months) W2:Challenges in designing of resonators(3 months) W3: Communication of first design (3 months) W4:Worked on resonators and improved Structure(3 months) W5:Will work on last chapter of thesis writing(3 months) W6:Thesis writing and submission(3 months) W5 W6

6. INTRODUCTION Bandpass filters are a vital part of the communication system. Microwave filters with compact, miniaturized size and high performance left a remarkable impact on wireless communication systems. The filters composed of the fed lines connected to the two ports with the parallel coupled lines between them are called Microstrip bandpass filters. This paper demonstrates a Narrow Band Bandpass filter with a compact microwave communication system. structure and applicability to AMSR- E instrument at the aqua platform in

7. Types Of Filters

8. Usage of Bandpass filter Communication systems Radar systems Microwave links Medical Devices RF Testing and measurements IoT Devices Antenna Systems

9. Resonators The structure that is able to enclose at least one oscillating electromagnetic field is called a Microstrip resonator.

10. Usage of resonators Oscillators Filters Antennas RF filters Sensors Sonar and Radar systems Quantum Computing Medical devices

11. Technology used This filter was designed using the Keysight ADS software . The physical implementation was done using the substrate Rogers_R03010, two ports and a lab with facility for meandering the microstrip filter.

12. Better performance What does Our Filter offers? Improved Passband and stopband performance. Compact and miniaturized structure Controllable central frequency. Easy to fabricate.

13. Literature Review Bandpass filters are a vital part of the communication system. Compact and miniaturized design aspects of filters play an important role in a fast data transmission system. Microwave filter with small sizes and high performance has left a remarkable impact on the wireless communication system. Resonators are being a necessity in the construction of microstrip filters [1-7]. The small size of the resonator will result in the compactness of the filter. By reducing the size of the filter, we can modify the resonator structure or the traditional resonator, from this we can create additional modes with better performance and small area. [8-10]. Modified resonators can be handled as multiple resonators. Compact size multimode resonator has relatively low attenuation within the filter designing process. coupling among the degenerate modes is quite a difficult process for filter designing with high performance using a single multimode resonator when compared with multiple multimode resonators. In most of the designed multiple multimode resonators, the parasitic resonance operates close to fundamental modes [11- 16].

14. In Ala'a [17], a non-uniform bandpass filter with a defected ground structure (DGS) is presented. The width of the presented filter was obtained using an improved operation with a U shape and non-uniform form. Moreover, a DGS is employed to acquire multiple bands. The proposed design was implemented using high-frequency software such as HFSS and CST-Studio. Another methodology for designing harmonics was a suppressed microstrip ultra-wideband (UWB) BPF proposed in Bi [18]. In Chakravorty [19], a collaborative split-ring resonator technique is adopted to anticipate the center frequency and design of microstrip bandpass filters that are generally below the class of heuristic structures. Bent transmission lines are often needed to minimize channel structures physically; however, in the hypothetical (planned) prediction of complete or focal frequencies for the bandpass channel plan, ebb-and-flow effects may cause errors. Previous suggestions on bend corrections were accurate, but continuing structure standards require an improvement in accuracy.

15. INFERENCE DRAWN OUT The interdigital structure is a combination of stubs and it can be modified . Bandpass filters can be designed for any frequency range. Notch can be created for any desired frequency. Filter performance can be improved by using resonators with defective microstrip structures The size of the filter can be reduced by using defective microstrip structures (DMS) in micro-strip resonator. Transmission zero can be adjusted.

16. WORK DONE S21 S12 Paper Applied in the NIT Delhi conference. Narrow Band Bandpass filter S-Parameter of simulated proposed model

17. References R. Levy, (1970). “Zolotarev functions, a new distribution prototype filter, and the design of mi xed lumped/distributed components”. IEEE G-MTT Microwave Int. Symp. Dig., Vol.70, pp.71-75. J. Wang, Y.X Guo, B.Z. Wang, L. C. Ong, and S. Xiao, (2006). “High- selectivity dual-band stepped-impedance bandpass filter”. Electronics Letters, Vol.42, No.9, pp.538- 540. S. Sun and L. Zhu, (2005). “Novel design of dual-band microstrip bandpass filters with good in-between isolation”. IEEE APMC 2005, Suozhou. L.C. Tsai and C.W. Hsue, (2004). “Dual-band bandpass filters using equallength coupled-serial shunted lines and Z-transform techniques”. IEEE Trans. Microw. Theory Tech., Vol.52, No.4, pp.1111-1117. W.H. Tu and K. Chang, (2005). “Miniaturized dualmode bandpass filter with harmonic control”. IEEE Microwave And Wireless Components Letters, Vol.15, No.12. C. Lugo and J. Papapolymerou, (2005). “Bandpass filter design using a microstrip triangular loop resonator with dual-mode operation”. IEEE Microwave and Wireless Components Letters, Vol.15, No.7 J.X. Chen and T. Y. Yum, (2006). “Dual-mode dualband bandpass filter using stacked-loop structure”. IEEE Microwave and Wireless Components Letters, Vol.16, No.9. X.W. Dai, C.H. Liang, B. Wu, and J. Fan, (2008). “Novel dual-band bandpass filter design using microstrip open-loop resonators”. Journal of Electromagnetic Waves and Applications, Vol.22, No.2, pp.219- 225.

18. J.K. Xiao, S.P. Li, and Y. Li, (2006). “Novel planar bandpass filters using one single patch resonators with corner cuts”. Journal of Electromagnetic Waves and Applications, Vol.20, No.11, pp.1481- 1493. J.K. Xiao and Y. Li, (2006). “Novel compact microstrip square ring bandpass filters”. Journal of Electromagnetic Waves and Applications, Vol.20, No.13, pp.1817-1826. M. Kazerooni and A. Cheldavi, (2006). “Simulation, analysis, design and applications of array defected microstrip structure (ADMS) filters using rigorously coupled multi-strip (RCMS) method”. Progress in Electromagnetics Research, PIER 63, pp.193-207. M. Khalaj-Amirhosseini, (2006). “Microwave filters using waveguides filled by multi-layer dielectric”. Progress in Electromagnetics Research, PIER 66, pp.105-110. Ahmad, B. H., Nornikman, H., & Aziz, M. Z. A. A. (2015). Microstrip patch antenna with 12-N modified double W-shaped split ring resonator (MDW-SRR) structure. 2015 IEEE International RF and Microwave Conference (RFM). doi:10.1109/rfm.2015.7587731 Conductor Backed Coplanar Waveguide Bandpass Filter using Vertically Loaded Coupled Open-ended Stubs, Pratik Mondal; S. K. Parui; V.P. Padhy; T. Mandal; A. Sarkar, 2019 IEEE 5th Global Electromagnetic Compatibility Conference (GEMCCON) Year: 2019 | Conference Paper | Publisher: IEEE Microstrip Bandpass Filter Using Degenerate Modes of a Novel Meander Loop Resonator J. S. Hong, Member, IEEE, and M. J. Lancaster, Member, IEEE, EEE MICROWAVE AND GUIDED WAVE LETTERS, VOL. 5, NO. 11, NOVEMBER 1995 Investigation of Microwave Bandpass Filter Based on Three-Mode Resonator Design of UWB bandpass filter with dual notched bands using E-shaped resonator Xuemei Zheng; Tao Jiang 2016 IEEE/ACES International Conference on Wireless Information Technology and Systems (ICWITS) and Applied Computational Electromagnetics (ACES) Year: 2016 | Conference Paper | Publisher: IEEEBoris Belyaev; Sergey Khodenkov; Gregory Nazarov; Konstantin Gaipov 2020 International Conference on Actual Problems of Electron Devices Engineering (APEDE) Year: 2020 | Conference Paper | Publisher: IEEE