Return Loss Enhancement Of Radial Line Slot Array Antenna Using Closed Ring Resonator Structure At 28 Ghz

Nowadays, a wireless communication technology are moving towards fifth generation (5G) which consist all the previous generation technologies. Radial line slot array (RLSA) antenna became very popular since the weight is light and ease of installation besides the ability to carry high speed signal w...

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Main Author: Kamaruddin., Rabiatul Adawiyah Azian
Format: Thesis
Language:English
English
Published: 2018
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Online Access:http://eprints.utem.edu.my/id/eprint/24854/1/Return%20Loss%20Enhancement%20Of%20Radial%20Line%20Slot%20Array%20Antenna%20Using%20Closed%20Ring%20Resonator%20Structure%20At%2028%20Ghz.pdf
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institution Universiti Teknikal Malaysia Melaka
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advisor Mohd Ibrahim, Imran

topic T Technology (General)
T Technology (General)
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T Technology (General)
Kamaruddin., Rabiatul Adawiyah Azian
Return Loss Enhancement Of Radial Line Slot Array Antenna Using Closed Ring Resonator Structure At 28 Ghz
description Nowadays, a wireless communication technology are moving towards fifth generation (5G) which consist all the previous generation technologies. Radial line slot array (RLSA) antenna became very popular since the weight is light and ease of installation besides the ability to carry high speed signal with high directivity characteristic and the potential of beam steering and beam shaping. Furthermore, this RLSA antenna can perform three polarizations such as linear, elliptical and circular. The aim of this project is to design, simulate and fabricate the new closed ring resonator (CRR) structure which operating at 28 GHz frequency. The objectives of this research are to study different characteristic of FR4 and RT Duroid 5880 materials and enhanced the return loss (RL), Su of the hybrid RLSA antenna air gap with RT Duroid 5880 performances at 28 GHz by introducing the CRR structure. Besides, to study the performance of hybrid air gap with RT Duroid 5880 RLSA antennas with and without the presence of a layer of the superstrate CRR structure. Those designs were simulated and assist by Computer Simulation Technology (CST) Microwave Studio Software and tested with the network analyzer. The result for a gap ll I 4 of hybrid air gap with RT Duroid 5880 with a layer of the superstrate of cicumference CRR structure at 28 GHz had 19.430 dBi of gain and-15.044 dB reflection coefficient. The gap value of a layer superstrate had been increased to ll I 2 and the reflection coefficient improved to - 17.191 dB with gain increased to 20.020 dBi. The hybrid air gap with RT Duroid 5880 RLSA at ll I 2 shows a good for 5G point to point communication system.
format Thesis
qualification_name Master of Philosophy (M.Phil.)
qualification_level Master's degree
author Kamaruddin., Rabiatul Adawiyah Azian
author_facet Kamaruddin., Rabiatul Adawiyah Azian
author_sort Kamaruddin., Rabiatul Adawiyah Azian
title Return Loss Enhancement Of Radial Line Slot Array Antenna Using Closed Ring Resonator Structure At 28 Ghz
title_short Return Loss Enhancement Of Radial Line Slot Array Antenna Using Closed Ring Resonator Structure At 28 Ghz
title_full Return Loss Enhancement Of Radial Line Slot Array Antenna Using Closed Ring Resonator Structure At 28 Ghz
title_fullStr Return Loss Enhancement Of Radial Line Slot Array Antenna Using Closed Ring Resonator Structure At 28 Ghz
title_full_unstemmed Return Loss Enhancement Of Radial Line Slot Array Antenna Using Closed Ring Resonator Structure At 28 Ghz
title_sort return loss enhancement of radial line slot array antenna using closed ring resonator structure at 28 ghz
granting_institution Universiti Teknikal Malaysia Melaka
granting_department Faculty of Electronics and Computer Engineering
publishDate 2018
url http://eprints.utem.edu.my/id/eprint/24854/1/Return%20Loss%20Enhancement%20Of%20Radial%20Line%20Slot%20Array%20Antenna%20Using%20Closed%20Ring%20Resonator%20Structure%20At%2028%20Ghz.pdf
http://eprints.utem.edu.my/id/eprint/24854/2/Return%20Loss%20Enhancement%20Of%20Radial%20Line%20Slot%20Array%20Antenna%20Using%20Closed%20Ring%20Resonator%20Structure%20At%2028%20Ghz.pdf
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spelling my-utem-ep.248542022-03-16T11:54:50Z Return Loss Enhancement Of Radial Line Slot Array Antenna Using Closed Ring Resonator Structure At 28 Ghz 2018 Kamaruddin., Rabiatul Adawiyah Azian T Technology (General) TK Electrical engineering. Electronics Nuclear engineering Nowadays, a wireless communication technology are moving towards fifth generation (5G) which consist all the previous generation technologies. Radial line slot array (RLSA) antenna became very popular since the weight is light and ease of installation besides the ability to carry high speed signal with high directivity characteristic and the potential of beam steering and beam shaping. Furthermore, this RLSA antenna can perform three polarizations such as linear, elliptical and circular. The aim of this project is to design, simulate and fabricate the new closed ring resonator (CRR) structure which operating at 28 GHz frequency. The objectives of this research are to study different characteristic of FR4 and RT Duroid 5880 materials and enhanced the return loss (RL), Su of the hybrid RLSA antenna air gap with RT Duroid 5880 performances at 28 GHz by introducing the CRR structure. Besides, to study the performance of hybrid air gap with RT Duroid 5880 RLSA antennas with and without the presence of a layer of the superstrate CRR structure. Those designs were simulated and assist by Computer Simulation Technology (CST) Microwave Studio Software and tested with the network analyzer. The result for a gap ll I 4 of hybrid air gap with RT Duroid 5880 with a layer of the superstrate of cicumference CRR structure at 28 GHz had 19.430 dBi of gain and-15.044 dB reflection coefficient. The gap value of a layer superstrate had been increased to ll I 2 and the reflection coefficient improved to - 17.191 dB with gain increased to 20.020 dBi. The hybrid air gap with RT Duroid 5880 RLSA at ll I 2 shows a good for 5G point to point communication system. 2018 Thesis http://eprints.utem.edu.my/id/eprint/24854/ http://eprints.utem.edu.my/id/eprint/24854/1/Return%20Loss%20Enhancement%20Of%20Radial%20Line%20Slot%20Array%20Antenna%20Using%20Closed%20Ring%20Resonator%20Structure%20At%2028%20Ghz.pdf text en public http://eprints.utem.edu.my/id/eprint/24854/2/Return%20Loss%20Enhancement%20Of%20Radial%20Line%20Slot%20Array%20Antenna%20Using%20Closed%20Ring%20Resonator%20Structure%20At%2028%20Ghz.pdf text en validuser https://plh.utem.edu.my/cgi-bin/koha/opac-detail.pl?biblionumber=117000 mphil masters Universiti Teknikal Malaysia Melaka Faculty of Electronics and Computer Engineering Mohd Ibrahim, Imran 1. Agrawal, S.K., 2016. 5G Millimeter Wave ( mmWave ) Communications, IEEE 2016 3rd International Conference on Computing for Sustainable Global Development (INDIACom), pp.1— 4. 2. Ahmad, W. and Budimir, D., 2017. Inkjet-Printed Antennas for 28 GHz 5G Applications. Asia-Pacific Microwave Conference Proceedings, APMC, pp.16-19. 3. Ahmad, W. and Tanveer Khan, W., 2017. Small Form Factor Dual Band ( 28 / 38 GHz ) PIFA Antenna for 5G Applications. IEEE MTT-S International Conference on Microwave for Intelligent Mobility (ICMIM),(2), pp.3-6. 4. Al-Falahy, N. and Alani, O., 2017. Technologies for 5G Networks: Challenges and Opportunities. IEEE IT Professional, 19 (1), pp.12-20. 5. Ali, M.M.M. and Sebak, A.R., 2016. Dual Band (28/38 GHz) CPW Slot Directive Antenna for Future 5G Cellular Applications. 2016 IEEE Antennas and Propagation Society International Symposium, APSURSI 2016 - Proceedings, pp.399^400. 6. Ali, W.K.W. and Al-Charchafchi, S.H., 1998. Using Equivalent Dielectric Constant to Simplify the Analysis of Patch Microstrip Antenna with Multi-Layer Substrates. IEEE Antennas and Propagation Society International Symposium. 1998 Digest. Antennas: Gateways to the Global Network. Held in conjunction with: USNC/URSI National Radio Science Meeting (Cat. No.98CH36194), 2, pp.676-679. 7. Aliakbari, H., Abdipour, A., Mirzavand, R., Costanzo, A., and Mousavi, P., 2016. A Single Feed Dual-band Circularly Polarized Millimeter-wave Antenna for 5G Communication. IEEE, 2016 10th European Conference on Antennas and Propagation (EuCAP),3 (1), pp.1-22. 8. Arulaalan, M. and Nithyanandan, L., 2013. Return Loss Improvement in an Inset Fed Triangular Patch Antenna. International Conference on Communication and Signal Processing, 1CCSP 2013 - Proceedings, pp.864-867. 9. Ashraf, N., Haraz, O., Ashraf, M.A., and Saleh Alshebeili, 2015. 28/38-GHz Dual-Band Millimeter Wave SIW Array Antenna with EBG Structures for 5G Applications. 2015 IEEE International Conference on Information and Communication Technology Research (ICTRC2015),pp.5-8. 10. Avenue, S.R., 2016. RT/duroid ® 5870 /5880. Rogers Corporation, pp.100-101. Available at: https://www.rogerscorp.com/documents/606/.../RT-duroid-5870-5880-data-sheet.pdf. [Accessed on 23 October 2017] 11. Ayop, O., Rahim. M.K.A., and Murad, N.A., 2014a. Triple Band Circular Ring-Shaped Metamaterial Absorber for X-Band Applications. PIER, 39 (October), pp.65-75. 12. Ayop, O., Rahim, M.K.A., Murad, N.A., and Majid, H.A., 2014b. Metamaterial Absorber Based on Circular Ring Structure With and Without Copper Lines. Applied Physics A Materials Science & Processing, 117 (2), pp.651-656. 13. Ayop, O., Rahim, M.K.A., Murad, N.A., and Samsuri, N.A., 2016. Dual-resonant Polarization-Independent And Wide-Angle Metamaterial Absorber in X-band Frequency. Applied Physics A: Materials Science and Processing, 122 (4), pp.10-16. 14. Baena, J.D., Bonache, J., Martin, F., Sillero, R.M., Falcone, F., Lopetegi, T., Laso, M.A.G., Garcia-Garcia, J., Gil, I., Portillo, M.F., and Sorolla, M., 2005. Equivalent-circuit Mmodels for Split-ring Resonators and Complementary Split-Ring Resonators Coupled to Planar Transmission Lines. IEEE Transactions on Microwave Theoiy and Techniques, 53 (4), pp.1451-1460. 15. Beenish, Saraswat, T., Tripathy, M.R., and Mahendru, G., 2016. Design of a High Gain 16 Element Array of Microstrip Patch Antennas for Millimeter Wave Applications. IEEE Contemporary Computing and Informatics (IC3I), 2016 2nd International Conference on, pp.182-184. 16. Bhardwaj, S., Nahar, N.K., and Volakis, J.L., 2014. Phaseless Method of Gain Characterization for Circularly Polarized Antennas for mmWave and THz Band. National Aerospace and Electronics Conference, Proceedings of the IEEE, 2015 February, pp.304— 305. 17. Bhardwaj, S., Nahar, N.K., and Volakis, J.L., 2015. Novel Phaseless Gain Characterization for Circularly Polarized Antennas at mm-Wave and THz Frequencies. National Aerospace and Electronics Conference, Proceedings of the IEEE, 2015-February (10), pp.304-305. 18. Bhat, A., Gojanur, V., and Hegde, R., 2015. 5G Evolution and Need: A Study. IEEE, - International Conference on Electrical, Electronics, Signals, Communication and Optimization (EESCO) 2015, pp.2-5. 19. Borji, A., Hosseini, M.H., and Sadrearhami, M.H., 2009. 28 GHz High Efficiency Planar Array Antenna with Hybrid Feed Network. IEEE Antennas and Wireless Propagation Letters, pp.7-10. 20. Bray, M. and Road, J.H., 2017. A Radial Line Slot Array Antenna for Deep Space Missions. IEEE Aerospace conference, pp.1-6. 21. Bulu, I., Caglayan, H., Aydin, K., and Ozbay, E., 2005. Compact Size Highly Directive Antennas Based on The SRR Metamaterial Medium. New Journal of Physics, 1, ppll-16. 22. Bunea, A.-C., Craciunoiu, F., and Sajin, G., 2011. 28 GHz CRLH Antenna on Silicon Substrate. European Microwave Week 2011: ‘Wave to the Future’, EuMW 2011, Conference Proceedings - 41st European Microwave Conference, EuMC 2011, (October), pp.579-582. 23. Cardenas, J., I. Paez, C., Cardenas, J., and Paez, C.I., 2016. Radial Line Slot Array Antenna for Point to Point Applications using IEEE 802.11a. IEEE Latin America Transactions, 14 (2), pp.639-645. 24. Chang, G., Cheng, L., Xu, M., and Guidotti, D., 2014. Integrated Fiber Wireless Access Architecture for Mobile Backhaul and Fronthaul in 5G Wireless Data Networks. IEEE Avionics Fiber-Optics and Photonics Technology’ Conference (AVFOP), 4, pp.49-50. 25. Chang, T.N. and Lin, J.M., 2011. Enhanced Return-Loss and Flat-Gain Bandwidths for Microstrip Patch Antenna. IEEE Transactions on Antennas and Propagation, 59(11), pp.4322-4325. 26. Chen, X., Su, Z.J., and Liang, C.H., 2013. Radiation Pattern Improvement in Closely Packed Array Antennas by Using Mushroom-Like EBG Structure. IET International Radar Conference 2013, pp.5-7. 27. Chin, K.S., Chang, H.T., Liu, J.A., Chiu, H.C., Fu, J.S., and Chao, S.H., 2011. 28-GHz Patch Antenna Arrays with PCB and LTCC substrates. Proceedings of 2011 Cross Strait Ouad-Regional Radio Science and Wireless Technology Conference, CSQRWC 2011, 1, pp.355-358. 28. Clenet, M. and Shafai, L., 1999. Wideband Single Layer Microstrip Array at 28 GHz. IEEE Antennas and Propagation Society? International Symposium. 1999 Digest. Held in conjunction with: USNC/URSINational Radio Science Meeting (Cat. No.99CH37010), 3, pp.2106-2109. 29. Compton, R.C., Vaughan, M.J., Hur, K.Y., and Compton, R.C., 1994. Improvement of Microstrip Patch Antenna Radiation Patterns. IEEE Transactions on Antennas and Propagation IEEE Trans. Antennas Propogat. IEEE Trans. Microwave Theoiy Tech. IEEE Trans. Antennas Propogat. Infrared Phys, 42 (5), pp.882-885. 30. Davis, P.W. and Bialkowski, M.E., 1999. Linearly Polarized Radial Line Slot Array Antennas with Improved Return Loss Performance. IEEE Antennas and Propagation Magazine, 41 (1), pp.52-61. 31. Elkashlan, M., Duong, T.Q., and Chen, H.H., 2014. Millimeter-wave Communications for 5G: Fundamentals: Part I [Guest Editorial], IEEE Communications Magazine, 52 (9), pp.52-54. 32. Ershadi, S., Keshtkar, A., Abdelrahman, A.H., Yu, X., and Xin, H., 2015. Design of Wideband Unit Cell Element for 5G Antenna Arrays. IEEE, Microwave Conference (APMC), 2015 Asia-Pacific, pp.1-3. 33. Ettorre, M., Casaletti, M., Valerio, G., Sauleau, R., Le Coq, L., Pavone, S.C., and Albani, M., 2014. On the Near Field Shaping and Focusing Capability of a Radial Line Slot Array. IEEE Transactions on Antennas and Propagation, 62 (4), pp.1991-1999. 34. Gu, J., Han, J., Lu, X., Singh, R., Tian, Z., Xing, Q., and Zhang, W., 2009. A Close Ring Pair Terahertz Metamaterial Resonating at Normal Incidence. Optics Express, 17 (22), pp.208-227. 35. Guo, M., Zhou, K., Wang, X., Zhuang, H., Tang, D., Zhang, B., and Yang, Y., 2017. Dual Frequency Linear to Circular Polarization Converter with Half Transmission and Half Reflection Based on SRR Coupling Metamaterial. IEEE, Applied Computational Electromagnetics Society Symposium (ACES), 2017 International pp.1-2. . 36. Guo, X., Zhang, Z., Wang, J.-H., and Zhang, J.-J., 2013. Journal of Electromagnetic Waves and the Design of a Triple-band Wide Angle Metamaterial Absorber Based on Regulai Pentagon Close-Ring, IEEE, Applied Computational Electromagnetics Society Symposium (ACES), (March 2015), pp.37-41. 37. Hao, Z., Martin, M.C., Harteneck, B., Cabrini, S., and Anderson, E.H., 2007. Negative Index of Refraction Observed in a Single Layer of Closed Ring Magnetic Dipole Resonators. Applied Physics Letters, 91 (25), pp.2005-2008. 38. Haraz, O.M., Ali, M.M.M., Alshebeili, S., and Sebak, A.R., 2015a. Design of a 28/38 GHz Dual-band Printed Slot Antenna for the Future 5G Mobile Communication Networks. IEEE Antennas and Propagation Society, AP-S International Symposium (Digest), 2015- October, pp.1532-1533. 39. Haraz, O.M., Ali, M.M.M., Elboushi, A., and Sebak, A., 2015b. Four-Element Dual-Band Printed Slot Antenna Array for the Future 5G Mobile Communication Networks. 2015 IEEE International Symposium on Antennas and Propagation & USNC/URSI National Radio Science Meeting, pp.1532-1533. 40. Haraz, O.M., Elboushi, A., and Member, S., 2014. Dense Dielectric Patch Array Antenna With Improved Radiation Characteristics using EBG Ground Structure and Dielectric Superstrate for Future 5G Cellular Networks. IEEE Transactions on Microwave Theoiy and Techniques, 2, pp.909-913. 41. Hong, W., Baek, K.-H., Lee, Y., Kim, Y., and Ko, S.-T., 2014. Study and Prototyping of Practically Large-Scale mmWave Antenna Systems for 5G Cellular Devices. IEEE Communications Magazine, (September), pp.63-69. 42. Huang, S.Y., 2012. Loss Tangent. Notes, (5), pp.8-9. Available at: http://people.sutd.edu.sg/~huangshaoying/wpcontent/uploads/2014/04/SYHUANG_notes_ losstangent.pdf. [Accessed on 5 January 2018] 43. Ibrahim, I.M., Rahman, T.A., Sabran, M.I., and Jamlos, M.F., 2014. Bandwidth Enhancement Through Slot Design on RLSA Performance. Region 10 Symposium, 2014 IEEE, pp.228-231. 44. Ibrahim, M., Rahman, T.A., and Khalily, M., 2017. Influence of Dielectric Materials Arrangement in Multilayered Cavity Material Radial Line Slot Array Antenna Akademia Barn. Journal of Advance research in materials Science, Akedemia Baru, 29 (1), pp.1-7. 45. Ifeoma, O.S., Rahman, T.A., Ngah, R., and Zakwoi, I.S., 2013. Effect of Dielectric Waveguide in the Design of RLSA Antenna: A Review. Advanced Materials Research, 701, pp.136-140. 46. Ifeoma, S., 2015. A 4 x 4 Butler Matrix for 28 GHz Switched Multi-Beam Antenna A 4 x 4 Butler Matrix for 28 GHz Switched Multi-Beam Antenna. Stella Ifeoma Orakwue et al. / International Journal of Engineering and Technology (IJET), 7, pp.436-442. 47. Iliopoulos, I., Ettorre, M., Casaletti, M., Sauleau, R., Pouliguen, P., and Potier, P., 2016. 3D Near-Field Shaping of a Focused Aperture. 2016 10th European Conference on Antennas and Propagation, EuCAP 2016, pp.1-4. 48. Imran, M.I., Tharek, A. R., and Hasnain, A., 2008. An Optimization of Beam Squinted Radial Line Slot Array Antenna Design at 5.8 GHz. 2008 IEEE International RF and Microwave Conference, pp.139-142. 49. Intelligence, G., 2014. Understanding 5G : Perspectives on Future Technological Advancements in Mobile. The GSMA Intelligence Magazine, pp.1-26. 50. Isola, 2012. FR408 High Performance Laminate and Prepreg Datasheet, pp.2. Available at: https://docs.oshpark.com/resources/FR408-high-performance-laminate-and-prepreg-datasheet.pdf. [Accessed on 3 October 2017] 51. Jackson, D.R. and Oliner, A.A., 1988. A Leaky-Wave Analysis of The High-Gain Printed Antenna Configuration. IEEE Transactions on Antennas and Propagation, 36 (7), pp.905- 910. 52. Kamaruddin, R.A.A., Ibrahim, I.M., Nor, N.A.M., Yusoff, S.A.M., Zakaria, Z., Shairi, N.A., and Rahman, T.A., 2018. A Study on the EBG and AMC on Radial Slot Line Array Structure at 28 GHz, Journal of Telecommunication, Electronic and Computer Engineering, 2 (10), pp.2-7. 53. Kamaruddin, R.A.A., Ibrahim, I.M., Zakaria, Z., Shairi, N.A., Rahman, T.A., Rahim, M.A.A., Zakaria, Z., Shairi, N.A., and Rahman, T.A., 2017. Radial Line Slot Array (RLSA) Antenna Design at 28 GHz Using Air Gap Cavity Structure. Journal of Telecommunication, Electronic and Computer Engineering, 2 (1), pp.133-136. 54. Khalily, M., Tafazolli, R., Rahman, T.A., and Kamarudin, M.R., 2016. Design of Phased Arrays of Series-Fed Patch Antennas with Reduced Number of The Controllers for 28- GHz mm-Wave Applications. IEEE Antennas and Wireless Propagation Letters, 15 (3), pp.1305-1308. 55. Li , R.L., DeJean, G., Tentzeris, M.M., Papapolymerou, J., and Laskar, J., 2005. RadiationPattern Improvement of Patch Antennas on a Large-Size Substrate Using a Compact SoftSurface Structure and its Realization on LTCC Multilayer Technology. IEEE Transactions on Antennas and Propagation, 53 (1), pp.200-208. 56. Liu, J., Xu, S., Zhou, S., and Niu, Z., 2015. Redesiging Fomthaul for Next-Generation Networks: Beyond Baseband Samples and Point to Point Links. IEEE Wireless Communications , (October), pp.90-97. 57. Liu, Z.G., 2010. Fabry-Perot Resonator Antenna. Journal of Infrared, Millimeter, and Terahertz Waves, 31 (4), pp.391— 403. 58. Liu, Z.L.Z., 2009. Effect of Primary Source Location on Fabry-Perot Resonator Ajitenna. 2009 Asia Pacific Microwave Conference, 5, pp.1809-1812. 59. Lukic, M. V and Filipovic, D.S., 2007. Surface-Micromachined Dual Ka-Band Cavity Backed Patch Antenna. IEEE Transactions on Antennas and Propagation, 55 (7), pp.2107-2110. 60. Maina, I., Rahman, T.A., and Khalily, M., 2015. Bandwidth Enhanced and Sidelobes Level Reduced Radial Line Slot Array Antenna at 28 GHz for 5G Next Generation Mobile Communication. ARPN Journal of Engineering and Applied Sciences, 10 (14), pp.5752- 5757. 61. MCMC, 2006. Requirements for Local Multipoint Communication Service (LMCS). Available at: https://wwwnncmc.gov.my/skmmgovmy/files/attachments/srsp5091mcs. Pdf. [Accessed on 3 October 2017] 62. Mohd Ibrahim, I., Rahman, A.T., Pumamirza, T., and I. Sabran, M., 2014. A Novel Wide Band Open Ended Air Gap Radial Line Slot Array Antenna at 5.8 GHz Frequency Band. Microwave and Optical Technology Letters, 54 (12), pp.2781-2784. 63. Muhamad, W.A.W., Rahman, T.A., and Jamlos, M.F., 2013. A Compact RLSA Antenna with Polyproplyene Composite. IEEE Symposium on Wireless Technology and Applications, ISWTA, pp.384-387. 64. Mukherjee, B., 2012. Return Loss Improvement of Power Splitter on EBG. Indian Journal of Radio and Space Physics, 41 (1), pp.58-61. 65. Munir, A., Fusco, V., and Chairunnisa, 2009. Return Loss Enhancement of Surface Resistors Loaded Microwave Radar Absorber. APMC 2009 - Asia Pacific Microwave Conference 2009, pp.2629-2632. 66. Namiki, T., Murayama, Y., and Ito, K., 2003. Improving Radiation-Pattern Distortion of a Patch Antenna Having a Finite Ground Plane. IEEE Transactions on Antennas and Propagation, 51 (3), pp.478-M82. 67. Nguyen, T., Hirokawa, J., Ando, M., Amano, O., Koreeda, S., and Matsuzaki, T., 2014a. Material Choices of Honeycomb Structures and their Effects in mm-Wave RLSAs. 2014 IEEE 5th International Conference on Communications and Electronics, IEEE ICCE 2014, pp.417-419. 68. Nguyen, T., Sakurai, K., Hirokawa, J., Ando, M., Amano, O., Koreeda, S., Matsuzaki, T., and Kamata, Y., 2014b. A Concise Design of Large Mm-Wave Radial Line Slot Antenna With Honeycomb Structures for Space Application. 2014 31th URSI General Assembly and Scientific Symposium, URSI GASS 2014, pp.4-7. 69. Nguyen, T.K. and Park, I., 2014. Design of a Low-Profile High-Gain Fabry-Perot Cavity Antenna for Ku -Band Applications. Journal of Electromagnetic Engineering and Science, 14 (3), pp.306-313. 70. Nomikman, H., Ahmad, B.H., Abdul Aziz, M.Z.A., Malek, M.F.B.A., Imran, H., and Othman, A.R., 2012. Study and Simulation of an Edge Couple Split Ring Resonator (ECSRR) on Truncated Pyramidal Microwave Absorber. Progress In Electromagnetics Research, 127 (March), pp.319-334. 71. Pavone, S.C., Mazzinghi, A., Freni, A., and Albani, M., 2017. Wideband Analysis of RLSA Bessel Beam Launchers Based on Standing and Inward Traveling Wave Aperture Distributions for Electromagnetic Pulse Generation, IEEE Transactions on Antennas and Propagation, pp.3660-3663. 72. Pendry, J.B., Holden, A.J., Robbins, D.J., and Stewart, W.J., 1999. Magnetism from Conductors and Enhanced Nonlinear Phenomena. IEEE Transactions on Microwave Theoiy and Techniques, 47 (11), pp.2075— 2084. 73. Psychoudakis, D., Zhou, H., Biglarbegian, B., Henige, T., and Aryanfar, F., 2016. Mobile Station Radio Frequency Unit for 5G Communications at 28 GHz, IEEE 2016 IEEE MTTS International Microwave Symposium (IMS), 2 (5), pp.5-7. 74. Rahim, M.A.A., Ibrahim, I.M., Kamaruddin, R.A.A., Zakaria, Z., and Hassim, N., 2017. Characterization of Microstrip Patch Array Antenna at 28 GHz. Journal of Telecommunication, Electronic and Computer Engineering, 9 (2-8), pp.137-141. 75. Rahman, T.A., Ibrahim, I.M., Wei, P.S., Ahmad, J., and Wahab, A.G.C., 2011. A Study on Effectiveness of FR4 as a Dielectric Material for Radial Line Slot Array Antenna for Wireless Backhaul Application. 17th Asia-Pacific Conference on Communications, APCC 2011, (October), pp.385-388. 76. Sa, M.A., 2017. Design of Efficient Millimeter Wave Planar Antennas for 5G Communication Systems Design of Efficient Millimeter Wave Planar Antennas for 5G Communication Systems. The Islamic University-Gaza. pp 1-125. 77. Sano, M., Castaner, M.S., Ruiz, T.S., Hirokawa, J., and Ando, M., 2014. Source Reconstruction Technique for Slot Array Antennas using the Gerchberg-Papoulis Algorithm. 8th European Conference on Antennas and Propagation (EuCAP 2014), (6), pp.1-5. 78. Sano, M., Sierra-Castaner, M., Salmeron-Ruiz, T., Hirokawa, J., and Ando, M., 2015. Reconstruction of the Field Distribution on Slot Array Antennas using the GerchbergPapoulis Algorithm. IEEE Transactions on Antennas and Propagation, 63 (8), pp.3441- 3451. 79. Suryana, J. and Kusuma, D.B., 2015. Design and Implementation of RSLA Antenna for Mobile DBS Application in Ku-B Band Downlink Direction. IEEE Antennas and Propagation, The 5th International Conference on Electrical Engineering and Informatics 2015, August 10-11, 2015, Bali, Indonesia, pp.341-345. 80. U1 Islam, M.R. and Rahman, T. A, 2008. Novel and Simple Design of Multi Layer Radial Line Slot Array (RLSA) Antenna Using FR-4 Substrate. Electromagnetic Compatibility and 19th International Zurich Symposium on Electromagnetic Compatibility, 2008. APEMC 2008. Asia-Pacific Symposium on, (May), pp.843-846. 81. Wang, Y. and Piao, D., 2017. A High-Gain Resonant Cavity Antenna with Orthogonal Polarizations Working at 28 GHz. Proceedings ofiIEEE 9th UK-Europe-China Workshop on Millimetre Waves and Terahertz Technologies, UCMMT 2016, pp.248-250. 82. Xu, X., Mori, D., Mazzinghi, A., Freni, A., Hirokawa, J., Ando, M., and Araki, K., 2017. A 60-GHz RLSA Fed by Butler Matrix Carrying Three OAM Modes. Antennas and Propagation & USNC/URSI National Radio Science Meeting, 2017 IEEE International Symposium on, pp.1445-1446. 83. Yu, L.C. and Kamarudin, M.R., 2016. Investigation of Patch Phase Array Antenna Orientation at 28 GHz for 5G Applications. Procedia Computer Science, 86 (March), pp.47-50