ECLIPSE : Envisioning Cloud Induced Perturbations in Solar Energy
- URL: http://arxiv.org/abs/2104.12419v1
- Date: Mon, 26 Apr 2021 09:19:43 GMT
- Title: ECLIPSE : Envisioning Cloud Induced Perturbations in Solar Energy
- Authors: Quentin Paletta, Anthony Hu, Guillaume Arbod, Joan Lasenby
- Abstract summary: ECLIPSE is a neural network architecture that models cloud motion from sky images to predict both future segmented images and corresponding irradiance levels.
We show that ECLIPSE anticipates critical events and considerably reduces temporal delay while generating visually realistic futures.
- Score: 2.867517731896504
- License: http://arxiv.org/licenses/nonexclusive-distrib/1.0/
- Abstract: Efficient integration of solar energy into the electricity mix depends on a
reliable anticipation of its intermittency. A promising approach to forecast
the temporal variability of solar irradiance resulting from the cloud cover
dynamics, is based on the analysis of sequences of ground-taken sky images.
Despite encouraging results, a recurrent limitation of current Deep Learning
approaches lies in the ubiquitous tendency of reacting to past observations
rather than actively anticipating future events. This leads to a systematic
temporal lag and little ability to predict sudden events. To address this
challenge, we introduce ECLIPSE, a spatio-temporal neural network architecture
that models cloud motion from sky images to predict both future segmented
images and corresponding irradiance levels. We show that ECLIPSE anticipates
critical events and considerably reduces temporal delay while generating
visually realistic futures.
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