Sistem Analisis Potensi Tenaga Angin Akibat Pergerakan Kendaraan Di Jalan Raya Secara Real - Time Sebagai Penerangan Jalan
Keywords:
Arduino Uno, Energi Angin, GSM Shield SIM900, Kecepatan AnginAbstract
This study aims to design hardware and software to monitor and analyze the potential of wind energy generated by the movement of vehicles on the highway in real-time. Wind speed data collection uses three anemometer sensors installed at an altitude of 1 meter, 2 meters, and 3 meters from the ground level, located on the side of the road in front of the Pamulang Community Health Center. The data processing system uses the Arduino Uno microcontroller which processes analog sensor readings, saves backup data on the SD card, and uploads data using cellular networks via the SIM900 GSM Shield module every 10 minutes. Field testing was carried out for 24 hours adjusting to heavy vehicle traffic conditions. The analysis results show the system works well where the average daily wind speed was recorded at 7.54 m/s for the first anemometer, 11.27 m/s for the second anemometer, and 11.67 m/s for the third anemometer. These results prove that the monitoring system device works accurately in sending and displaying wind fluctuation data in real-time to the cekanemometer.com database website
References
Fu, C.C., Yang, T.T., Tsai, M.C., Lee, L.C., Liu, T.K., Walia, V., Chen, C.H., Chang, W.Y., Kumar, A., Lai. T.H, (2017). Exploring the relationship between soil degassing and seismic activity by continuous radon monitoring in the Longitudinal Valley of eastern Taiwan. Chemical Geology, in press, dx.doi.org/10.1016/j.chemgeo.2016.12.042.
Ginting, T., Hari, B. (2004). Konsentrasi gas Radon di permukaan tanah di daerah PPTN Serpon dan Puspitek. Buletin Limbah Vol 8 No. 2.
H, Bakti., Lubis, Rachmat Fajar., Delinom, Robert., Naily, Wilda., (2012). Identifikasi Keluaran Airtanah Lepas Pantai (KALP) di Pesisir Aluvial Pantai Lombok Utara, Nusa Tenggara Barat. Jurnal Lingkungan Dan Bencana Geologi (JLBG). Penerbit Badan Geologi Kementerian Energi dan Sumber Daya Mineral, 3(2), Hal 133-149
H, Bakti., Lubis, Rachmat Fajar., Delinom, Robert., Naily, Wilda., (2014). Identifikasi Keluaran Airtanah Lepas Pantai (KALP) di Pantai Utara Semarang dean sekitarnya dengan 222Radon,. Jurnal Lingkungan Dan Bencana Geologi (JLBG). Penerbit Badan Geologi Kementerian Energi dan Sumber Daya Mineral, 24(1), Hal 43-51
Igarashi, G., Saeki, S., Takahata, N. (1995). Grounwater Radon anomaly before the kobe Earthquake in Japan, Szience v., 296,60-61.
Kuo, T., Lin, C., Chang, G., Fan, K., Cheng, W., Lewis, C., (2010). Estimation of aseimic crustalstrain using radon repetitive radon precursors of the 2003 M 6.8, 2006 M 6.1, and 2008 M 5.0 earthquakes in eastern Taiwan. Nat. Hazards, 53, h. 219–228.
Sunardi, B., dkk. (2016). Variasi gas Radon dan aktivitas kegempaan di sekitar patahan Opak. Jurnal ligkungan dan bencana geologi, Pusat Sains Antariksa, Lembaga Penerbangan Nasional (LAPAN).
Suntoko, H., Hamzah, I. (2002). Uji coba pengukuran gas Radon untuk aktivitas patahan di daerah Rahtawu- Pati. Jurnal Pengembangan Energi Nuklir, BATAN.
Varhegyi, A., dkk. (1988), Application of underwater radon measurements in geology, Nuclear Tracks Radiation Measurements 15 (1-4), 609-612.
Wikipedia. (2017), List of earthquake, https://en.wikipedia.org/List_of_earthquake
Wikipedia. (2006),Gempa Bumi Yogyakarta 2006, https://en.wikipedia.org/wiki/Gempa_Bumi_Yogyakarta_2016
