Cloud Computation and Google Earth Visualization of Heat/Cold Waves: A Nonanticipative Long-Range Forecasting Case Study
Dmytro Zubov

TL;DR
This paper presents a cloud-based, nonanticipative analog algorithm for long-range heat and cold wave forecasting, utilizing high-performance virtual machines and Google Earth visualization to achieve high accuracy without probability distributions.
Contribution
It introduces a novel cloud computing approach combined with Google Earth visualization for accurate long-range weather wave predictions using nonanticipative analog models.
Findings
Up to 36.4% of heat waves predicted accurately.
Up to 33.3% of cold waves predicted accurately.
Predictions are 100% accurate based on sign comparison.
Abstract
Long-range forecasting of heat/cold waves is a topical issue nowadays. High computational complexity of the design of numerical and statistical models is a bottleneck for the forecast process. In this work, Windows Server 2012 R2 virtual machines are used as a high-performance tool for the speed-up of the computational process. Six D-series and one standard tier A-series virtual machines were hosted in Microsoft Azure public cloud for this purpose. Visualization of the forecasted data is based on the Google Earth Pro virtual globe in ASP.NET web-site against http://gearth.azurewebsites.net (prototype), where KMZ file represents geographic placemarks. The long-range predictions of the heat/cold waves are computed for several specifically located places based on nonanticipative analog algorithm. The arguments of forecast models are datasets from around the world, which reflects the…
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Taxonomy
TopicsComputational Physics and Python Applications · Meteorological Phenomena and Simulations · Distributed and Parallel Computing Systems
