Spatio-Temporal Change of Land Surface Temperature at Tiris Geothermal Potential Area, East Java, Indonesia.

Open access

Abstract

One of the areas that have geothermal potential in Indonesia is Tiris because there are found some manifestation in the form of hot springs. Several studies are needed to determine its geothermal potential before exploitation is carried out. Some previous studies have been carried out in the area, one of which uses Landsat 7 remote sensing data. There are other studies that state that knowledge of geology is needed to implement remote sensing in determining geothermal areas. This study uses 3-years data from Landsat 8 and geological information from the regional geological map of the study area. The result show changes in the value of Normalized Difference Vegetation Index (NDVI) and Land Surface Temperature (LST) from year to year, where each year the NDVI value decrease which is interpreted as reduced vegetation in the study area. From the distribution of LST values in the study area, it was found that there were hot spots that had higher temperatures than the surrounding area. When geological information and LST distribution map overlaid with regional geological maps, it is known that the hot spots inside the research area are possible to be a geothermal reservoir.

If the inline PDF is not rendering correctly, you can download the PDF file here.

  • [1] Directorate of Geothermal Energy Directorate General of EBTKE Resources Center of Mineral Coal Geothermal and Geology Agency. 2017. Indonesia’s Geothermal Potential Jakarta: Minister of Energy and Mineral Resources 1 747-754.

  • [2] Maryanto S. Wicaksono A. Azhari A. Dewi. C. 2015. Multi Geophysical Observations at Blawan - Ijen Volcano Geothermal Complex for Regional Development. Journal of Enviromental Engineering Sustainability Technology 2(2) 105–113.

  • [3] Ermanto S. A. Maryanto S. Susilo A. 2017. Determination of Wurung Crater Surface Temperature - Ijen East Java Using Landsat Image 8 as A Preliminary Study In the Geothermal Exploration Survey. Natural-Biology 4(1) 50–56.

  • [4] Juniarti E. Maryanto S. Susilo. A. 2017. Mapping the surface temperature of wurung creater area Bondowoso Regency East Java in Determining Geothermal Manifestations. Natural-Biology 4(1) 65–72.

  • [5] Raehanayati Rachmansyah A. Maryanto. S. 2013. Study of Geothermal Energy Potential of Blawan-Ijen East Java Based on Graviti Method. Journal Neutrino 6(1) 31–39.

  • [6] Maryanto S. Suciningtyas I. K. L. N. Dewi C. N. Rachmansyah. A. 2016. Integrated Resistivity and Ground Penetrating Radar Observations of Underground Seepage of Hot Water at Blawan-Ijen Geothermal Field. International Journal of Geophysics.

  • [7] Maryanto S. 2017. Geo Techno Park potential at Arjuno-Welirang Volcano hosted geothermal area Batu East Java Indonesia (Multi geophysical approach). AIP Conference Proceedings 1908 030012.

  • [8] Maryanto S. et al. 2017. Magnetotelluric-Geochemistry Investigations of Blawan Geothermal Field East Java Indonesia. Geosciences 7(2) 41.

  • [9] Maryanto. S. 2018. Preliminary Investigation of Volcano Hosted Geothermal Area at Kasinan-Songgoriti-Cangar Batu city Based on Gravity-Seismic Methods. AIP Conference Proceedings 2021.

  • [10] Maryanto S. Siombone S. H. Prayogo A. Yulia T. Sari. R. P. H. 2018. Preliminary Study : Density Layer Values Estimation of Volcano Hosted Geothermal Area at Tiris Village Probolinggo Regency East Java Indonesia. International Journal of Applied Engineering Research 13(6) 4385–4390.

  • [11] Suharsono Surwati T. 1992. Geological Map of The Probolinggo Quadrangle Jawa. Geological Research and Development Centre Bandung.

  • [12] Faridah S. A. N. Krisbiantoro A. 2014. Land Surface Temperature Distribution Analysis in Potential Area of Geothermal Using Remote Sensing Techniques on Mount Lamongan Tiris. Berkala Fisika 17(2) 67–72.

  • [13] Darge Y. M. Hailu B. T. Muluneh A. A. Kidane T. 2019. Detection of Geothermal Anomalies Using Landsat 8 TIRS Data in Tulu Moye Geothermal Prospect Main Ethiopian Rift. International Journal Applied Earth Observation and Geoinformation 74 16–26.

  • [14] Wright J. Lillesand T. M. Kiefer R. W. 1980. Remote Sensing and Image Interpretation. Geographic Journal 146(3) 448.

  • [15] USGS. 2018. Landsat 8 Surface Reflectance Code (LASRC) Product Guide Version 1. Sioux Falls South Dakota: Department of Interior U.S. Geological Survey.

  • [16] USGS. 2018. Landsat 4-7 Surface Reflectance (LEDAPS) Product Guide Version 1. Sioux Falls South Dakota: Department of Interior U.S. Geological Survey.

  • [17] USGS. 2018. Landsat Surface Temperature (ST) Product Guide Version 2. Sioux Falls South Dakota: Department of Interior U.S. Geological Survey.

  • [18] USGS. 2016. Landsat 8 (L8) Data Users Handbook Version 2. Sioux Falls South Dakota: Department of Interior U.S. Geological Survey.

  • [19] Qin Q Zhang N. Nan P. Chai L. 2011. Geothermal Area Detection Using Landsat ETM+ Thermal Infrared Data and Its Mechanistic Analysis—A Case Study in Tengchong China. International Journal Applied Earth Observation and Geoinformation 13(4) 552–559.

  • [20] Sobrino J. A. Jiménez-Muñoz J. C. Paolini L. 2004. Land Surface Temperature Retrieval From LANDSAT TM 5. Remote Sensing of Environment 90(4) 434–440.

Search
Journal information
Metrics
All Time Past Year Past 30 Days
Abstract Views 0 0 0
Full Text Views 17 17 12
PDF Downloads 10 10 5