Title :
Hierarchical Load Hindcasting Using Reanalysis Weather
Author :
Black, J.D. ; Henson, William L. W.
Author_Institution :
Syst. Planning, ISO New England, Holyoke, MA, USA
Abstract :
By leveraging recent advances in atmospheric reanalysis it is possible to more fully characterize the effects of low frequency weather phenomena simultaneously affecting the native load and power output of weather-sensitive generators. To this end, this paper describes load “hindcasting”-a method of using reanalysis data to re-synthesize multiple decades of historical load data such that it represents a current and consistent load profile. When used together with coincident, reanalysis-derived records of weather-sensitive power output, load hindcasting enables a robust, long-term characterization of these resources that accounts for weather variability spanning decades. Drawing from the field of short-term load forecasting, hierarchical load hindcasting models are developed for summer weekday hours in New England using weather variables from the Modern Era Retrospective-Analysis for Research and Applications (MERRA) dataset developed by the National Aeronautics and Space Administration (NASA). Results demonstrate the efficacy of hindcasting realistic hourly loads using MERRA.
Keywords :
load forecasting; meteorology; MERRA dataset; Modern Era Retrospective-Analysis for Research and Applications; NASA; National Aeronautics and Space Administration; New England; atmospheric reanalysis; consistent load profile; current load profile; hierarchical load hindcasting; load data; low frequency weather phenomena; native load; power output; reanalysis weather; reanalysis-derived records; short-term load forecasting; weather variables; weather-sensitive generators; Biological system modeling; Data models; Load forecasting; Load modeling; Mathematical model; Meteorology; Predictive models; Capacity value; effective load carrying capability; embedded generation; hindcasting; interannual variability; intermittent resource characterization; load forecasting; resource adequacy; solar power generation; variable generation; wind power generation;
Journal_Title :
Smart Grid, IEEE Transactions on
DOI :
10.1109/TSG.2013.2278475