Feature Selection and ANN Solar Power Prediction

A novel method of solar power forecasting for individuals and small businesses is developed in this paper based on machine learning, image processing, and acoustic classification techniques. Increases in the production of solar power at the consumer level require automated forecasting systems to min...

Full description

Bibliographic Details
Main Authors: Daniel O’Leary, Joel Kubby
Format: Article
Language:English
Published: Hindawi Limited 2017-01-01
Series:Journal of Renewable Energy
Online Access:http://dx.doi.org/10.1155/2017/2437387
id doaj-91ca0a4e29134882a632f273760e34f3
record_format Article
spelling doaj-91ca0a4e29134882a632f273760e34f32020-11-24T23:24:23ZengHindawi LimitedJournal of Renewable Energy2314-43862314-43942017-01-01201710.1155/2017/24373872437387Feature Selection and ANN Solar Power PredictionDaniel O’Leary0Joel Kubby1Department of Computer Science, City College of San Francisco (CCSF), Mailbox LB8, 50 Phelan Ave., San Francisco, CA 94112, USAJack Baskin School of Engineering, University of California, Santa Cruz, 1156 High Street, Mail Stop SOE2, Santa Cruz, CA 95064, USAA novel method of solar power forecasting for individuals and small businesses is developed in this paper based on machine learning, image processing, and acoustic classification techniques. Increases in the production of solar power at the consumer level require automated forecasting systems to minimize loss, cost, and environmental impact for homes and businesses that produce and consume power (prosumers). These new participants in the energy market, prosumers, require new artificial neural network (ANN) performance tuning techniques to create accurate ANN forecasts. Input masking, an ANN tuning technique developed for acoustic signal classification and image edge detection, is applied to prosumer solar data to improve prosumer forecast accuracy over traditional macrogrid ANN performance tuning techniques. ANN inputs tailor time-of-day masking based on error clustering in the time domain. Results show an improvement in prediction to target correlation, the R2 value, lowering inaccuracy of sample predictions by 14.4%, with corresponding drops in mean average error of 5.37% and root mean squared error of 6.83%.http://dx.doi.org/10.1155/2017/2437387
collection DOAJ
language English
format Article
sources DOAJ
author Daniel O’Leary
Joel Kubby
spellingShingle Daniel O’Leary
Joel Kubby
Feature Selection and ANN Solar Power Prediction
Journal of Renewable Energy
author_facet Daniel O’Leary
Joel Kubby
author_sort Daniel O’Leary
title Feature Selection and ANN Solar Power Prediction
title_short Feature Selection and ANN Solar Power Prediction
title_full Feature Selection and ANN Solar Power Prediction
title_fullStr Feature Selection and ANN Solar Power Prediction
title_full_unstemmed Feature Selection and ANN Solar Power Prediction
title_sort feature selection and ann solar power prediction
publisher Hindawi Limited
series Journal of Renewable Energy
issn 2314-4386
2314-4394
publishDate 2017-01-01
description A novel method of solar power forecasting for individuals and small businesses is developed in this paper based on machine learning, image processing, and acoustic classification techniques. Increases in the production of solar power at the consumer level require automated forecasting systems to minimize loss, cost, and environmental impact for homes and businesses that produce and consume power (prosumers). These new participants in the energy market, prosumers, require new artificial neural network (ANN) performance tuning techniques to create accurate ANN forecasts. Input masking, an ANN tuning technique developed for acoustic signal classification and image edge detection, is applied to prosumer solar data to improve prosumer forecast accuracy over traditional macrogrid ANN performance tuning techniques. ANN inputs tailor time-of-day masking based on error clustering in the time domain. Results show an improvement in prediction to target correlation, the R2 value, lowering inaccuracy of sample predictions by 14.4%, with corresponding drops in mean average error of 5.37% and root mean squared error of 6.83%.
url http://dx.doi.org/10.1155/2017/2437387
work_keys_str_mv AT danieloleary featureselectionandannsolarpowerprediction
AT joelkubby featureselectionandannsolarpowerprediction
_version_ 1725560978201903104