PENGARUH PARAMETER METEOROLOGI TERHADAP KONSENTRASI CO2 DAN CH4 DI DKI JAKARTA
The Special Capital Region of Jakarta is the center of government and economy in Indonesia. The rapid activity certainly causes pollutants that cause air pollution, where some of the parameters are CO2 and CH4. Increasing number of pollutants will endanger the environment, especially human health. An overview of meteorological parameters is very important, because it affects the level of CO2 and CH4 concentrations in atmosphere. Therefore, it’s necessary to analyze the relationship between meteorological parameters with CO2 and CH4 concentrations in DKI Jakarta. The method used in this research is descriptive statistical to see the temporal distribution of CO2 and CH4 pollutants to time and its relationship with meteorological parameters (temperature, humidity, rainfall and wind speed). The observation location is located at the Central BMKG, Kemayoran. The data period used is 2008-2017. The results of this data processing showed the highest CO2 concentration in the MAM period and the lowest in the JJA period. The CH4 concentration is highest in the DJF period and the lowest in the JJA period. High atmospheric stability and low wind speed and little rainfall that causes high concentrations of CO2 and CH4 at the observation location. Statistical calculations illustrate the contribution of contributions in producing the average concentration of pollutants. Wind speed causes a decrease in CO2 concentration of 83%, and 17% due to other factors. Rainfall factor of 45% affects the decrease in CH4 concentration in Kemayoran. 45% of the moisture factor also affects the concentration of CH4. So an increase in CH4 concentration by rainfall and humidity factors, and other related factors. Decrease in CH4 concentration at wind speed by 44%, and by 56% is determined by other factors.
GLOBALVIEW-CO2. Cooperative atmospheric data integration project-carbon dioxide. 2001. CD-ROM NOAA CMDL, Boulder CO. (ftp://cmdl.noaa.gov/ccg/co2/GLOBAL-VIEW)
NOAA Climate Monitoring and Diagnostics Laboratory, 2001. (ftp://cmdl.noaa.gov/ccg/network.txt)
Monastersky R, 2013. Global Carbon Dioxide Levels Near Worrisome Milestone. Nature 487, 13-14.
Ilyas SZ, Khattak Al, Nasir SM, Qurashi T, Durrani R, 2009. Air Pollution Assesement In Urban Areas And Its Impact On Human Health In The City of Quetta, Pakistan. Clean Technol Environ Policy: 1-9.
Mage D, Ozolins G, Peterson P, Webster A, Orthofer R, Vandeweerd V, Gwynne M, 1996. Urban Air Polution In Megacities of The World. Atmos Environ 30:681-686.
Riga-Karandinos A, Saitanis C, 2005. Comparative Asessement of Ambient Air Quality In Two Typical Mediterranean Coastal Cities In Greece. Chemosphere: 1125-1136.
Huang J., Yu H., Guan X., Wang G. & Guo R, 2016. Accelerated Dryland Expansion Under Climate Change. Nature Climate Change 6, 166-171.
Version, P. “Global Protocol for Community Scale Greenhouse Gas Emissions. (2012)
Sanna, L., Ferrara, R., Zara, P., & Duce, P, 2014. GHG emissions inventory at urban scale: The Sassari case study. Energy Procedia..
Mineral Energi Dan Sumber Daya (ESDM). Kajian Emisi Gas Rumah Kaca Sektor Transportasi. 2012: 88
Ministry of Environment. 2012. Gas Rumah Kaca Buku I.
S.Tampubolon, 2010. Pengaruh Kecepatan Angin dan Suhu Udara Terhadap Kadar Gas Pencemar Karbon Monoksida (CO) Di Udara Sekitar Kawasan Industri Medan (KIM). Skripsi. Fakultas Matematika dan Ilmu Pengetahuan Alam. Medan: Universitas Sumatera Utara.
T.M. Neiburger, J. G. Edinger, dan W. D. Bonner. 1994. Memahami Lingkungan Atmofser Kita. Diterjemahkan oleh: Ardina Purbo. Bandung: Penerbit ITB.
Raich, J. Dan W. Schlesinger. 1992. The Global Carbon Dioxide Flux in Soil Repiration and Its Relationship to Vegetation and Climate. Tellus, Series B – Chemical and Physical Meteorology 44B: 2: 81-99
Shinjo, H., A. Kato, K. Fujii,. K. Mori, S. Funukawa dan T. Kosaki, 2006. Carbon dioxide Emission Derived from Soil Organic Matter Decomposition and Root Respiration in Japanese Forest Under Different Ecological Conditions. Soil Science and Plant Nutrition 52: 233-242.
Martin, D., J. Beringer, L. Hutley, I. McHugh, 2007. Carbon Cycling in Mountain Ach Forest: Analysis of Below Ground Repiration. Agricultural and Forest Meteorologicay 147: 58-70
Mahesh Pathakoti, dkk, 2018. Influence of Meteorological Parameters on Atmospheric CO2 At Bharati, The Indian Antartic Research Station. Polar Research, 37:1, 14442072, doi: 10.1080/17518369.2018.1442072
Tjasyono, B., A. Lubis, I. Juaeni, Ruminta dan S.W.B. Harijono, 2008. Dampak Variasi Temperatur Samudera Pasifik dan Hindia Ekuatorial terhadap Curah Hujan di Indonesia. Jurnal Sains Dirgantara, Vol. 5 no. 2, pp. 83-95
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