You are here

Temporal Variation of Soil Surface Temperature in Dalugha (Cyrtosperma Merkusii (Hassk.) Schott) Swamp Habitat

Journal Name:

Publication Year:

Abstract (2. Language): 
This article describes about the changes of the temporal variation of the soil surface temperatur daily in swamp habitat Dalugha in Sangihe regency. This study is a part of Dalugha habitat research, associated with the development of this plant as a food alternative. The study was conducted transects made the cut edge of the habitat area, ranging from mixed soil farms inward Dalugha clumps . Temporal changes in the temperature of the soil surface and its immediate surroundings of dalugha obtained through the mathematical modeling of the data result measurements at nine positions along the transect is logarithmic. The results showed that temporal changes in land surface temperature by measuring the position of the three examples have the same pattern, sinusoidal. The difference in the three examples shown by the differenting in the position of the average, lowest, highest, and the time of the incident the highest and lowest values
FULL TEXT (PDF): 
49-52

REFERENCES

References: 

[1] M. Flach and F. Rumawas, “Plants yielding non-seed carbohydrates”. Plant Research of South East Asia (PROSEA) No. 9. Bogor, 1996 .
[2] D. Henley, “Fertility, Food, and Fever: Population, Economy and Environment in North and Central Sulawesi 1600-1930”. KITLV Press. Netherlands, 2005.
[3] J. Turpie, K. Lannas, N. Scovronick, and A. Louw, “Wetland Ecosystems Services and Their Evaluation: A Review of Current Understanding and Practice”, Wetland Valuation Vol. 1, Water Research Commission Report No. TT 440/09, 2010.
[4] C.J. Anderson and B.G. Lockaby. “ Soil and biogeochemistry of tidal freshwater forested wetlands”. In: W.H. Conner, T.W. Doyle, and K. W. Krauss (eds.). Ecology of tidal freshwater forest wetland of the southeastern United States. p. 65-88, 2007.
[5] W.H. Conner, C.T. Hackney, K.W. Krauss, and J. W. Day Jr. “Tidal freshwater forested wetlands: Future research needs and an overview of restoration”, In: W.H. Conner, T.W. Doyle, and K. W. Krauss (eds.). Ecology of tidal freshwater forest wetland of the southeastern United States. p. 461-488, 2007.
[6] K.W. Krauss, C.E. Lovelock, K.L. McKee, L. Lo´pez-Hoffman, S.M.L. Ewe and W.P. Sousa, “Environmental drivers in mangrove establishment and early development”, A review. Aquatic Botany, vol. 89, pp. 105–127, 2008
[7] J. Chen, S.C. Saunders, T.R. Crow, R.J. Naiman, K.D. Brosofske, B.L. Brookshire, and J. F. Franklin, “Microclimate forest ecosystem and landscape ecology”, BioScience, vol. 49 issue 4, pp. 38 – 48, 1999
[8] D.L. Zheng, J.Q. Chen, B. Song, M. Xu, P. Sneed and R. Jensen, “Effects of silvicultural treatments on summer forest microclimate in southeastern Missouri Ozarks”, Climate Res., vol. 15, pp. 45–59, 2000.
[9] Ch. S. Medellu. “Mathematical modeling of micro climate gradient daily dynamic in mangrove forest”, Dissertasion. University of Brawijaya. Malang, 2012.
[10] R.J. Davies-Colley, G. W. Payne and M. van Elswijk, “Forest microclimate gradients’, New Zealand Journal of Ecology, vol 24 no. 2, pp. 111-121, 2000
[11] Ch.S.Medellu, Soemarno, Marsoedi, and S. Berhimpon, “The Influence of Opening on the Gradient and Air Temperature Edge Effects in Mangrove Forests”, Basic and Applied Sciences IJBAS/IJENS vol 12, issue 2, pp. 205-210, 2012
[12] J. Chen, J. F. Franklin, and T. A. Spies, “Contrasting microclimates among clearcut, edge, and interior of old-growth Douglas-fir forest”, Agricultural and Forest Meteorology, vol 63, pp. 219 – 237, 1993
[13] D.L. Spittlehouse, R.S. Adams and R.D. Winkler. “Forest, edge, and opening microclimate at Sicamous Creek”. Research Report of Forest Science Program, Ministry of Forest British Coulombia, 2004
[14] M. Saxena. Microclimate modification calculating the effect of trees on air temperature. Heschong Mahone Group 11626 Fair Oaks Blvd. #302 Fair Oaks, CA 95628, 2007
[15] B.F. Clough and R.G. Sim. “Changes in gas exchange characteristics and water use efficiency of mangroves in response to salinity and vapour pressure deficit”, Oecologia, 79 : 38–44, 1989.
[16] Y. Mazda, Y. Sato, S. Sawamoto, H. Yokochi and E. Wolanski. “Links between physical, chemical and biological processes in Bashita-Minato, a mangrove swamp in Japan”, Estuarine, Coastal and Shelf Science, 31: 817–833, 1990.
[17] J. Ellison, “Impacts on mangrove ecosystems. The great greenhouse gamble” A conference on the Impacts of Climate Change on Biodiversity and Natural Resource Management: Conference Proceedings, Sydney, NSW, EJ, 2005.
[18] J. Beverly, Ferruci, Keene, and A. Jack. “Mathematical modeling” Technology and the environment, California State University, USA, 2000.
[19] W.K. Ling, Modeling and pricing the weather derivative, University of Nottingham, 2006.

Thank you for copying data from http://www.arastirmax.com