Classical-Equivalent Bayesian Portfolio Optimization for Electricity Generation Planning

There are several electricity generation technologies based on different sources such as wind, biomass, gas, coal, and so on. The consideration of the uncertainties associated with the future costs of such technologies is crucial for planning purposes. In the literature, the allocation of resources...

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Main Authors: Hellinton H. Takada, Julio M. Stern, Oswaldo L. V. Costa, Celma O. Ribeiro
Format: Article
Language:English
Published: MDPI AG 2018-01-01
Series:Entropy
Subjects:
Online Access:http://www.mdpi.com/1099-4300/20/1/42
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author Hellinton H. Takada
Julio M. Stern
Oswaldo L. V. Costa
Celma O. Ribeiro
author_facet Hellinton H. Takada
Julio M. Stern
Oswaldo L. V. Costa
Celma O. Ribeiro
author_sort Hellinton H. Takada
collection DOAJ
description There are several electricity generation technologies based on different sources such as wind, biomass, gas, coal, and so on. The consideration of the uncertainties associated with the future costs of such technologies is crucial for planning purposes. In the literature, the allocation of resources in the available technologies has been solved as a mean-variance optimization problem assuming knowledge of the expected values and the covariance matrix of the costs. However, in practice, they are not exactly known parameters. Consequently, the obtained optimal allocations from the mean-variance optimization are not robust to possible estimation errors of such parameters. Additionally, it is usual to have electricity generation technology specialists participating in the planning processes and, obviously, the consideration of useful prior information based on their previous experience is of utmost importance. The Bayesian models consider not only the uncertainty in the parameters, but also the prior information from the specialists. In this paper, we introduce the classical-equivalent Bayesian mean-variance optimization to solve the electricity generation planning problem using both improper and proper prior distributions for the parameters. In order to illustrate our approach, we present an application comparing the classical-equivalent Bayesian with the naive mean-variance optimal portfolios.
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spelling doaj.art-6cbdbf1e034a4631bcab99e8dd86a2ae2022-12-22T02:58:45ZengMDPI AGEntropy1099-43002018-01-012014210.3390/e20010042e20010042Classical-Equivalent Bayesian Portfolio Optimization for Electricity Generation PlanningHellinton H. Takada0Julio M. Stern1Oswaldo L. V. Costa2Celma O. Ribeiro3Quantitative Research, Itaú Asset Management, São Paulo 04538-132, BrazilInstitute of Mathematics and Statistics, University of São Paulo, São Paulo 05508-090, BrazilPolytechnic School, University of São Paulo, São Paulo 05508-010, BrazilPolytechnic School, University of São Paulo, São Paulo 05508-010, BrazilThere are several electricity generation technologies based on different sources such as wind, biomass, gas, coal, and so on. The consideration of the uncertainties associated with the future costs of such technologies is crucial for planning purposes. In the literature, the allocation of resources in the available technologies has been solved as a mean-variance optimization problem assuming knowledge of the expected values and the covariance matrix of the costs. However, in practice, they are not exactly known parameters. Consequently, the obtained optimal allocations from the mean-variance optimization are not robust to possible estimation errors of such parameters. Additionally, it is usual to have electricity generation technology specialists participating in the planning processes and, obviously, the consideration of useful prior information based on their previous experience is of utmost importance. The Bayesian models consider not only the uncertainty in the parameters, but also the prior information from the specialists. In this paper, we introduce the classical-equivalent Bayesian mean-variance optimization to solve the electricity generation planning problem using both improper and proper prior distributions for the parameters. In order to illustrate our approach, we present an application comparing the classical-equivalent Bayesian with the naive mean-variance optimal portfolios.http://www.mdpi.com/1099-4300/20/1/42statisticsinference methodsenergy analysispolicy issues
spellingShingle Hellinton H. Takada
Julio M. Stern
Oswaldo L. V. Costa
Celma O. Ribeiro
Classical-Equivalent Bayesian Portfolio Optimization for Electricity Generation Planning
Entropy
statistics
inference methods
energy analysis
policy issues
title Classical-Equivalent Bayesian Portfolio Optimization for Electricity Generation Planning
title_full Classical-Equivalent Bayesian Portfolio Optimization for Electricity Generation Planning
title_fullStr Classical-Equivalent Bayesian Portfolio Optimization for Electricity Generation Planning
title_full_unstemmed Classical-Equivalent Bayesian Portfolio Optimization for Electricity Generation Planning
title_short Classical-Equivalent Bayesian Portfolio Optimization for Electricity Generation Planning
title_sort classical equivalent bayesian portfolio optimization for electricity generation planning
topic statistics
inference methods
energy analysis
policy issues
url http://www.mdpi.com/1099-4300/20/1/42
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