의사결정나무 변수 선정 방법을 적용한 대축적 생물다양성 지도 구축
Mapping Biodiversity throughoptimized selection of input variables in decision tree models
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초록
In the face of accelerating biodiversity loss and its significance in our coexistence with nature,biodiversity is becoming more crucial in sustainable development perspective. To estimate biodiversity in the future which provides valuable information for decision making system especially in the national level, a quantitative approach must be studied forehand as a baseline of the present status. In this study, we developed a large-scale map of Plant Species Richness (PSR, typical indicator of biodiversity) for Young-dong and Pyung-chang provinces. Due to the accessibility of appropriate data and advance of modelling techniques, reduction of variables without deteriorating the predictive power is considered by applying Genetic algorithm. In addition, a number of Correctly Classified Instances (CCI) with 10-fold cross validation which indicates the predictive power, was carried out for evaluation. This study, as a fundamental baseline, will be beneficial in future land work as well as ecosystem restoration business or other relevant decision making agenda.
Abstract
In the face of accelerating biodiversity loss and its significance in our coexistence with nature,biodiversity is becoming more crucial in sustainable development perspective. To estimate biodiversity in the future which provides valuable information for decision making system especially in the national level, a quantitative approach must be studied forehand as a baseline of the present status. In this study, we developed a large-scale map of Plant Species Richness (PSR, typical indicator of biodiversity) for Young-dong and Pyung-chang provinces. Due to the accessibility of appropriate data and advance of modelling techniques, reduction of variables without deteriorating the predictive power is considered by applying Genetic algorithm. In addition, a number of Correctly Classified Instances (CCI) with 10-fold cross validation which indicates the predictive power, was carried out for evaluation. This study, as a fundamental baseline, will be beneficial in future land work as well as ecosystem restoration business or other relevant decision making agenda.
참고문헌 (27)
- "인구주택총조사"[URL]
- Andrews, P, "Climate,vegetation,and predictable gradients in mammal species richness in southern Africa", Journal of Zoology, 251, pp.205~231 (2000)
- Auger, P., "Aggregation and emergence in ecological modelling:intergration of ecological levels", Ecol.Model, 127, pp.11~20 (2000)
- Beaumont, L. J., "Different climatic envelopes among invasive populations may lead to underestimations of current and future biological invasions", Diversity and Distribution, 15, pp.409~420 (2009)
- Boone, R.B, "Relationship between avian range limits and plant transition zones in Maine", Journal of Biogeography, 27, pp.471~482 (2000)
- Currie,D.J, "Energy and large-scale patterns of animal and plant species richness", American Natualist, 137, pp.27~49 (1991)
- D’heygere, T., "Use of genetic algorithms to select input variables in decision tree models for the prediction of benthic macroinvertebrates", Ecological Modelling, 160, pp.291~300 (2003)
- Echeverria, C., "Spatially Explicit Models to Analyze Forest Loss and Fragmentation Between 1976 and 2020 in Southern Chile", Ecological Modelling, 212, pp.439~449 (2008)
- TEEB(the Economices of Ecosystem and Biodiversity) an interim Report, "European Communities", ~ (2008)
- Fielding,A.H., "A review method for the assessment of prediction errors in conservation presence", absence models, 1997, pp.24, 38~49
- Flesch,A.D., "Distribution of birds and plants at the western and southern edges of the Madrean Sky Islands in Sonora,Mexico", U S Forest Service Rocky Mountain Research Station Proceedings RMRS-P, 36, pp.80~87 (2005)
- Franklin,J, "Mapping Species Distribution", pp.320~ (2009)
- Garzon-Orduna, I., "Parsimony analysis of endemicity describes but does not explain:an illustrated critique", Journal of Biogeography, 35, pp.903~913 (2008)
- Goldberg,D.E., "Genetic Algorithms in Search, Optimization and Machine Learning", pp.412~ (1989), Addison-Wesley Pulishing Company
- Jenks,G.F., "The Data Model Concept in Statistical Mapping", Cartography, 7, pp.186~190 (1967)
- Jha, C. S., "Forest fragmentation and its impact on species diversity: an analysis using remote sensing and GIS", Biodiversity and Conservation, 14, pp.1681~1698 (2005)
- John,G.H., "Enhancement to the data mining process.PHD Dissertation,Computer Science Department", 박사, pp.1997
- Jongman, R.H.G., "Data Analysis in Community and Landscape Ecology, 2nd ed", pp.299~ (1995), Cambridge University Press
- Kier, G., , PNAS, 106, pp.9322~9327 (2009)
- Knapp,A.K., "Rainfall variability,carbon cycling,and plant species diversity in a mesic grassland", Science, 298, pp.2202~2205 (2002)
- Meentemeyer, R. K., "Landscape-scale patterns of shrubspecies abundance in California chaparral:the role of topographically mediated resource gradient", Plant Ecology, 156, pp.19~41 (2001)
- Michaelsen, J., "Anon-parametric method for analyzing hierarchical relationships in ecological data", Coenoses, 2, pp.39~48 (1987)
- Myers, N., "Biodiversity hotspots for conservation priorities", Nature, 403, pp.853~858 (2000)
- Nogue, S., "Modeling biodiversity loss by global warming on Pantepui, northern South America: projected upward migration and potential habitat loss", Climate Change, 94, pp.77~85 (2009)
- Phillips, S. J., "Modeling of species distributions with Maxent:new extensions and a comprehensive evaluation", Ecography, 31, pp.161~175 (2008)
- Quinlan,J.R., "C4.5: Programs for Machine Learning" (1993), Morgan Kaufmann
- "Data Mining, Morgan Kaufmann"[URL]
