Meshed Antenna for Ku-band Wireless Communication
In this article, we present the combination of an antenna patch structure with a photovoltaic cell in one device for telecommunication applications in isolated environments. The radiating patch element of a patch antenna was replaced by a solar cell. DC current generation is the original feature of the solar cell, but now it was additionally able to receive and transmit electromagnetic waves. A mathematical model which serves in the minimization of power losses of the cell and therefore the improvement in conversion performance was studied. Simulation results of this antenna show a resonance at a frequency of 16.55 GHz in Ku-band with a gain of 4.24 dBi.
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 K. M. Titaouine, Analysis of Antennas Micro ruban by the model of the cavity, the model of the transmission line and the method of moments, Magister thesis University Ferhat Abbas, Sétif; 1998.
 A. Taflove, and M. E. Brodwin, “Numerical solution of steady-state electromagnetic scattering problems using the time-dependent Maxwell‟s equations,” IEEE Trans. Microwave Theory and Techniques, vol. 23, pp. 623-630, 1975.
 S. J. Ammann, Mc Cormack, and B. Norton, “Integration of microstrip patch antenna with polycrystalline silicon solar cell,” IEEE Trans. Antennas Propag, vol. 57, No. 12, 3969–3972, Dec. 2009.
 T. W. Turpin, and R. Baktur, “Meshed patch antennas integrated on solar cells,” IEEE Antennas Wireless Propag. Lett, vol. 8, 693– 696, 2009.
 M. Danesh, and J. R. Long, “An autonomous wireless sensor node incorporating a solar cell antenna for energy harvesting,” IEEE Trans. Microw. Theory Tech, vol. 59, No. 12, 3546–3555, Nov. 2011.
 T. Bendib, F. Djeffal, “Electrical Performance Optimization of Nanoscale Double-Gate MOSFETs Using Multi-objective Genetic
 Algorithms,” IEEE Trans on Electron Devices, vol. 58, pp. 3743 –3750, 2011.
 F. Djeffal, N. Lakhdar, A. Yousfi, “An optimized design of 10-nmscale dual-material surrounded gate MOSFETs for digital circuit applications,” Physica E: Low-dimensional Systems and Nanostructures, vol. 44, pp. 339-344, 2011.
 L. Wen, L. Yueqiang, C. Jianjun, C. Yanling, W. Xiaodong, Y. Fuhua, “Optimization of grid design for solar cells,” Journal of Semiconductors, 31 (2010) 014006.1–014006.6.
 A. Cheknane, B. Benyoucef, J.-P. Charlesb, R. Zerdoumc, M. Trarid, “Minimization of the effect of the collecting grid in solar cell based silicon,” Solar Energy Materials and Solar Cells, 87 (2005) 557–565.
 C. Bendel, J. Kirchhof, N. Henze, “Application of photovoltaic solar cells in planar antenna structures,” 3rd World Conference on Photovoltaic Energy, Osaka, Japan, May 11-18, 2003.
 C. Baccouch, H. Sakli, D. Bouchouicha, T. Aguili. 2016. Patch antenna based on a photovoltaic solar cell grid collection. Progress in Electromagnetic Research Symposium (PIERS).
 G. Clasen, R. Langley.2004. Meshed Patch Antenna. IEEE Transaction on Antennas and Propagation, June, Vol. 52, No. 6.
 Timothy W. Turpin.2008. Meshed Patch Antennas Integrated on Solar Cell – A Feasibility Study and Optimization. M.S. thesis, ECE Dept., USU, Logan, UT.
 C. Baccouch, H. Sakli, D. Bouchouicha, T. Aguili.(2015).Optimization of the Collecting Grid Front Side of a Photovoltaic Cell Dedicated to the RF Transmission. 2nd International Conference on Automation, Control, Engineering and Computer Science ACECS, 22- 24 March 2015 Sousse, Tunisia.
 P. Morvillo, E. Bobeico, F. Formisano, F. Roca, “Influence of metal grid patterns on the performance of silicon solar cells at different illumination levels,” Materials Science and Engineering B, 159–160 (2009) 318–321.
 C. Baccouch, C.Bahar, H. Sakli, N. Sakli, T. Aguili “Design of a Compact Meshed Antennas for 5G Communication Systems” World Academy of Science, Engineering and Technology International Journal of Electronics and Communication Engineering Vol:13, No:11, 2019.