Mitigasi Kebencanaan Sambaran Petir pada Kawasan Destinasi Pariwisata Embung Jokaton
Abstract
ABSTRACT
This paper describes the design analyses of a lightning protection system for direct lightning stroke. The design was done on the contour of the land of small hills, with the distribution of several small hills that fill the surface space of the land. The location was determined based on the discourse of the community of Sengir hamlet, Kalirejo village, Kokap sub-district, Kulon Progo – Special District of Yogyakarta during a Real Work Lecture for students of the Yogyakarta National Institute of Technology, December 2021, with a letter of the village head.of Kalirejo number: 289/2004/XII/2021. The Rolling Sphare Method was carried out at several points of the installation of the lightning on the top of the triangle tower which having four levels/stages. The Model of design of the lightning protection system at Embung-Jokaton was obtained by using an electrogeometric model. The result of the design analyses for mitigating show that the zoning of protection were formed by a conicals space that cover the surface of the Embung Jokaton with magnitude of areas were 29 865 m2. and at the same time, the six arcs of shield of the lightning stroke was formed by the six lightning rods (splitzen) that located at the top of the triangle tower as apparatus for mitigating of disaster due to the lightning stroke in outdoor..
Keyword : Mitigation, disaster, Lightning
References
[1]. Peta / Rute Kampus ITNY ke Desa Kalirejo, Kec. Kokap, Kab. Kulonprogo – Yogyakarta, google map.
com, Tanggal akses 13 September 2022, https://bit.ly/ITNY_kebalai_desa_kalirejo
[2]. Peta / Rute Balai Desa Kalirejo ke Dusun Sengir, google maps.com, Tanggal akses 13 September 2022,
https://bit.ly/Balai_desa_ke_Dsn_sengir
[3]. Anderson, JG., 1961, “Monte Carlo Computer Calculation of Transmission-Line Lightning Performance”,
Transsactions of the American Institute of Electrical Engineers (AIEE). Part III: Power Apparatus and System,
Volume : 80, Issue: 3, April 1961.
[4]. Institute of Electrical and Electronic Engineering (IEEE)., “998-2012 IEEE Guide for Direct Lightning Stro
ke Shielding of Substations”., Standard IEEE 998-2012 (Revisi Standard IEEE 998-1996) https://bit.ly/stan
dard_ieee_998_2012, pp. 07 ; IEEE, 3 Park Avenue, New York, NY 10016-5997 – USA, [Publisher IEEE
: 30 April 2013].
[5]. Lightning and Surge Protection (LSP) Team, Thn. --- ?, BS EN IEC 62305 Standar proteksi petir,
www.lsp- international.com, Diakses : 15 September 2022, https://bit.ly/metoda_bola_gelinding
[6]. IEEE working group report, “Estimating Lightning Performance of Transmission Lines Analytical Models”
IEEE Transactions on Power Delivery, Volume 8, No. 3, Juli 1993.
[7]. IEC-62305 Part-1 International Standard, 2010, “Protection Against Lightning Part 1 : General Principles”,
p. 36, General Principles BS EN/IEC 62305-1, 2010.
[8]. Mackerras D., Darveniza M., Liew., AC., “Review of Claimed Enhanced Lightning Protection of Buildings
By Early Streamer Emission Air Terminals”, Journal IEE (Institution of Electrical Engineers) Proc. Meas.
Tecnol, Vol. 144, No. 1 January 1997.
Prosiding ini memberikan akses terbuka langsung ke isinya dengan prinsip bahwa membuat penelitian tersedia secara gratis untuk publik mendukung pertukaran pengetahuan global yang lebih besar.
Semua artikel yang diterbitkan Open Access akan segera dan secara permanen gratis untuk dibaca dan diunduh semua orang.
