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Published December 21, 2019 | Version v1
Journal article Open

Design and Performance Analysis of Printed Square Log Periodic Array Microstrip Patch Antenna at 2.5 and 3.5 GHz

  • 1. Department of Science Laboratory Technology, Lautech Ogbomoso, Oyo State, Nigeria
  • 2. Department of Physics, University of Uyo, Uyo, Akwa Ibom State, Nigeria.
  • 3. 3Department of Science Laboratory Technology, The Oke-Ogun Polytechnics, Saki Oyo state, Nigeria
  • 4. 5Department of Physics with Electronics Oduduwa University ile-ife, Osun state, Nigeria5

Description

This Article defined the design, simulation, edifice and study of inset feed seven elements log periodic microstrip antenna at 2.5-3.5 GHz with the help of Agilent (ADS2009) and Tiny Cad. The antennas were etched/printed on a PCB board using iron on glossy method laser printer and FeCl3, modeled using microstrip lines, the S and 3D parameters data for both shapes were obtained. The data is extracted from the momentum simulation was compared with the measured parameters which were obtained through measurements and simulation. The properties of the square log periodic printed microstrip antennas such as return loss, gain, efficiency, power radiated, cross polarization and the beam width have been investigated and compared. A Square log periodic gain of 3.47dB along with the directivity of 6.99dB, efficiency of 0.74% and resonant frequency of 2.75GHz

Files

Design and Performance Analysis of Printed Square -HBRP Publication.pdf

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Additional details

References

  • 1. Ogherohwo E.P., Adeniran A.O., Olabisi O. A study of 30°, 60°, 90° scalene Triangular patch Antenna (TPA) at 900MHZ. International Journal of Research and Reviews in Applied Sciences. 2012, 658-664p. www.apparpress.com
  • 2. Huque T.I., Chowdhury A., Hosain K., Alam S. Performance Analysis of Corporate Feed Rectangular Patch Element and Circular Patch Element 4×2 Microstrip Array Antennas. International Journal of Advanced Computer Science and Applications. 2011, 74-79p.
  • 3. Alade M.O., Olabisi O. Development of microstrip patch antenna for Terrestrial indoor TV Reception. International Journal of Advanced Research in Electrical Electronics and Instrumentation Engineering. 2013, 2727-2735p.
  • 4. Hai-Wen L., Feng Q., Jiu-Huai L., et al. Dual-Band Microstrip-Fed Bow-Tie Antenna for GPS and Wlan Applications. Microwave and Technology Letters. 2014, 222-232p.
  • 5. Zhao J.Y., Zhang Z.Y., Wu N.W, et al. Wideband Unidirectional Bow-tie Antenna with Pattern Improvement. Progress in Electromagnetic Research Letters. 2010, 102-108p.
  • 6. Bhosale A.C., Deshmukh V.U. Design of Bow-tie Microstrip Antenna with Fractal Shape for WLan Application. International Journal of Electronics & Communication Technology. 2012, 445-449p.
  • 7. Kaur A., Gurpreet B.K., Bharti G. U-I Slot Microstrip Patch Antenna for S - Band Applications. International Journal of Recent Scientific Research. 2016, 10410-10412p.
  • 8. Olabisi O., Adeniran A.O., Ajao O.S., Adegboyega O. Design and implementation of 4 Elements Circular Patch Antenna with High Gain for 3.0 GHz Applications. International Journal of Trend Scientific Research and Development. 2018, 996-999p.
  • 9. Olabisi O., Adewumi A.S., Ajao O.S., Adeniran A.O. Bow-Tie Microstrip Patch Antenna – Design and Implementation for Dual Band WLAN Applications. International Journal of Trend in Scientific Research and Development. 2019, 1136-1140p.
  • 10. Saranbadi K., Azedegan R. Design of an efficient miniaturized UHF planar antenna. IEEE. Transaction on antenna and propagation, 2003, 43-54p.

Subjects

Electronics Engineering
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