Development of 408MHz V-shape Dipole-based Antenna for Solar Observation

  • Authors

    • Radial Anwar
    • Mohammad Tariqul Islam
    • Norbahiah Misran
    • Azam Zavvari
    • Baharudin Yatim
    • Mhd Fairos Asillam
    2019-01-26
    https://doi.org/10.14419/ijet.v8i1.9.26360
  • V-Shape, Dipole-based Antenna, Solar Observation.
  • Abstract

    Solar is one of the most observed object in a radio astronomy, as it is highly affects the space weather. In this paper, a new 408 MHz dipole-based antenna for solar radio telescope system is presented. High gain up to 11.30 dBi with beamwidth size of about 58° has been achieved by optimizing the structure of parasitic elements on the antenna. Measurement result shows a good agreement with simulation, with error rate on frequency peak down to 0.98%. The proposed antenna has been utilized in several solar observation and the results are also presented in this paper.

     

  • References

    1. [1] Anwar, R., Islam, M.T., Misran, N., Gopir, G., Yatim, B. & Asillam, M.F. (2014). Effect of Parasitic Element on 408MHz Antenna for Radio Astronomy Application. International Journal of Antennas and Propagation, 2014, Article ID 614952.

      [2] CRAF (Committee on Radio Astronomy Frequencies). (2005). CRAF Handbook for Radio Astronomy 3rd ed., European Science Foundation.

      [3] Dorotovic, I. & Trigo, I. (2010). Influence of solar activity on modes of tropospheric circulation variability. Proc. of EGU General Assembly 2010, 2-7 May, Vienna, Austria, p.4509.

      [4] Ellingson, S.W., Simonetti, J.H. & Patterson, C.D. (2007). Design and Evaluation of an Active Antenna for a 29-47 MHz Radio Telescope Array. IEEE Transactions on Antennas and Propagation, 55(3), 826-831.

      [5] Evstafyev, V.K. (2009). How Solar Activity Influences Earth's Molecular Processes. The Open Biology Journal, 2, 38-41.

      [6] Gousheva, M.N., Georgieva, K.Y., Kirov, B.B. & Atanasov, D. (2003). On the relation between solar activity and seismicity. Proc. of International Conference on Recent Advances in Space Technologies, RAST '03, 236–240.

      [7] Jankovicova, D., Voros, Z. & Simkanin, J. (2008). The influence of solar wind turbulence on geomagnetic activity. Journal of Nonlinear Processes in Geophysics, 15, 53–59.

      [8] LPI RAS (Laboratory of X-ray astronomy of the Sun), Russia (b). X-ray emission of the Sun from 27.10.2014 to 28.10.2014. http://www.tesis.lebedev.ru/en/sun_flares.html?m=10&d=28&y=2014 [Accessed on 28 September 2016]

      [9] Monstein, C. (2010). Solar Radio Spectrometer–Network, e-CALLISTO. Journal of the Society of Amateur Radio Astronomers, 66-71.

      [10] Selvaraj, R.S., Selvi, S.T. & Priya, S.P.V. (2010). Association between surface ozone and solar activity. Indian Journal of Science and Technology, 3(3), 332-334.

      [11] Steinhilber. F., Abreu, J.A., & Beer, J. (2008). Solar modulation during the Holocene. Astrophys. Space Sci. Trans., 4, 1–6.

      [12] Willson, R.F. (2004). Multi-wavelength VLA and Spacecraft Observations of Evolving Coronal Structures Outside Flares. Proc. of IAU Symposium, 223.

      [13] Zavvari, A., Islam, M.T., Anwar, R., Hasbi, A.M., Asillam, M.F. & Monstein, C. (2014). CALLISTO Radio Spectrometer Construction at Universiti Kebangsaan Malaysia. IEEE Antennas and Propagation Magazine, 56(2), 278-288.

  • Downloads

  • How to Cite

    Anwar, R., Tariqul Islam, M., Misran, N., Zavvari, A., Yatim, B., & Fairos Asillam, M. (2019). Development of 408MHz V-shape Dipole-based Antenna for Solar Observation. International Journal of Engineering & Technology, 8(1.9), 23-27. https://doi.org/10.14419/ijet.v8i1.9.26360

    Received date: 2019-01-22

    Accepted date: 2019-01-22

    Published date: 2019-01-26