Title :
Forecasting precipitation from multi-platform remote sensing systems using wavelet-based neural network models
Author :
Mullon, Lee G. ; Ni-Bin Chang ; Imen, S. ; Yang, Y. Jeffrey
Author_Institution :
Dept. of Civil, Environ. & Constr. Eng., Univ. of Central Florida, Orlando, FL, USA
Abstract :
This paper explores spectral decomposition of environmental data for use in ad hoc artificial neural networks for predicting precipitation patterns by exploiting the nonlinear dynamic signals of oceanic teleconnection patterns found in the Northern Atlantic and Pacific. Using sophisticated ground and satellite remote sensing, including the Advanced Very High Resolution Radiometer (AVHRR) instrument onboard the NOAA satellites for sea surface temperature detection and the GOES geostationary satellite for precipitation correction of in-situ data, high predictive skill is demonstrated during the winter months within the Adirondack state Park in upstate New York, USA. Results show winter months with up to 67% of the land area accurately forecasting precipitation trends with a lead time of 3 months.
Keywords :
geophysics computing; neural nets; ocean temperature; remote sensing by radar; weather forecasting; AVHRR instrument; Advanced Very High Resolution Radiometer; GOES geostationary satellite; NOAA satellites; artificial neural networks; environmental data; multiplatform remote sensing systems; precipitation forecasting; sea surface temperature detection; spectral decomposition; wavelet-based neural network models; Analytical models; Data models; Meteorology; Predictive models; Satellite broadcasting; Satellites; Time-frequency analysis; Remote Sensing; artificial neural networks; climate change; forecasting; hydrometeorology; precipitation; sea surface temperature; teleconnection patterns;
Conference_Titel :
Networking, Sensing and Control (ICNSC), 2014 IEEE 11th International Conference on
Conference_Location :
Miami, FL
DOI :
10.1109/ICNSC.2014.6819691