TY - GEN
T1 - Use of binary logistic regression technique with Modis data to estimate Wild Fire Risk
AU - Hong, Fan
AU - Liping, Di
AU - Wenli, Yang
AU - Brian, Bonnlander
AU - Xiaoyan, Li
PY - 2007
Y1 - 2007
N2 - Many forest fires occur across the globe each year, which destroy life and property, and strongly impact ecosystems. In recent years, wildland fires and altered fire disturbance regimes have become a significant management and science problem affecting ecosystems and wildland/urban interface cross the United States and global. In this paper, we discuss the estimation of 504 probability models for forecasting fire risk for 14 fuel types, 12 months, one day/week/month in advance, which use 19 years of historical fire data in addition to meteorological and vegetation variables. MODIS land products are utilized as a major data source, and a logistical binary regression was adopted to solve fire forecast probability. In order to better modeling the change of fire risk along with the transition of seasons, some spatial and temporal stratification strategies were applied. In order to explore the possibilities of real time prediction, the Matlab distributing computing toolbox was used to accelerate the prediction. Finally, this study give an evaluation and validation of predict based on the ground truth collected. Validating results indicate these fire risk models have achieved nearly 70% accuracy of prediction and as well MODIS data are potential data source to implement near real-time fire risk prediction.
AB - Many forest fires occur across the globe each year, which destroy life and property, and strongly impact ecosystems. In recent years, wildland fires and altered fire disturbance regimes have become a significant management and science problem affecting ecosystems and wildland/urban interface cross the United States and global. In this paper, we discuss the estimation of 504 probability models for forecasting fire risk for 14 fuel types, 12 months, one day/week/month in advance, which use 19 years of historical fire data in addition to meteorological and vegetation variables. MODIS land products are utilized as a major data source, and a logistical binary regression was adopted to solve fire forecast probability. In order to better modeling the change of fire risk along with the transition of seasons, some spatial and temporal stratification strategies were applied. In order to explore the possibilities of real time prediction, the Matlab distributing computing toolbox was used to accelerate the prediction. Finally, this study give an evaluation and validation of predict based on the ground truth collected. Validating results indicate these fire risk models have achieved nearly 70% accuracy of prediction and as well MODIS data are potential data source to implement near real-time fire risk prediction.
KW - Binary logistic regression
KW - Distributed computing
KW - Fire risk forecast
KW - MODIS
KW - ROC evaluation
UR - https://www.scopus.com/pages/publications/42549138405
U2 - 10.1117/12.774737
DO - 10.1117/12.774737
M3 - Conference contribution
AN - SCOPUS:42549138405
SN - 9780819469502
T3 - Proceedings of SPIE - The International Society for Optical Engineering
BT - MIPPR 2007
T2 - MIPPR 2007: Automatic Target Recognition and Image Analysis; and Multispectral Image Acquisition
Y2 - 15 November 2007 through 17 November 2007
ER -