A study on the energy and exergy of Ohmic heating (OH) process of sour orange juice using an artificial neural network (ANN) and response surface methodology (RSM)

Abstract The nonmodern statistical methods are often unusable for modeling complex and nonlinear calculations. Therefore, the present research modeled and investigated the energy and exergy of the ohmic heating process using an artificial neural network and response surface method (RSM). The radial...

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Main Authors: Mohammad Vahedi Torshizi, Mohsen Azadbakht, Mahdi Kashaninejad
Format: Article
Language:English
Published: Wiley 2020-08-01
Series:Food Science & Nutrition
Subjects:
Online Access:https://doi.org/10.1002/fsn3.1741
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spelling doaj-b7e60a90a8934b52b7feb5135cef867a2020-11-25T03:01:30ZengWileyFood Science & Nutrition2048-71772020-08-01884432444510.1002/fsn3.1741A study on the energy and exergy of Ohmic heating (OH) process of sour orange juice using an artificial neural network (ANN) and response surface methodology (RSM)Mohammad Vahedi Torshizi0Mohsen Azadbakht1Mahdi Kashaninejad2Department of Bio‐System Mechanical Engineering Gorgan University of Agricultural Sciences and Natural Resources Gorgan IranDepartment of Bio‐System Mechanical Engineering Gorgan University of Agricultural Sciences and Natural Resources Gorgan IranDepartment of Food Science and Technology Gorgan University of Agricultural Sciences and Natural Resources Gorgan IranAbstract The nonmodern statistical methods are often unusable for modeling complex and nonlinear calculations. Therefore, the present research modeled and investigated the energy and exergy of the ohmic heating process using an artificial neural network and response surface method (RSM). The radial basis function (RBF) and the multi‐layer perceptron (MLP) networks were used for modeling using sigmoid, linear, and hyperbolic tangent activation functions. The input consisted of voltage gradient; weight loss percentage, duration ohmic, Input flow, Power consumption, electrical conductivity and system performance coefficient and the output included the energy efficiency, exergy efficiency, exergy loss, and improvement potential. The response surface method was also used to predict the data. According to the result, the best prediction amount for energy and exergy efficiencies, exergy loss and improvement potential were in RBF network by sigmoid activation function and after this network, RSM had the best amount for energy efficiency, Also for exergy efficiencies, exergy loss and improvement potential obtained acceptable results in MLP network by a linear activation function. The worst amount was at MLP network by tangent hyperbolic. In general, the neural network can have more ability than the response surface method.https://doi.org/10.1002/fsn3.1741artificial neural networkmodelingOhmic heatingresponse surface methodsour orangethermodynamic analysis
collection DOAJ
language English
format Article
sources DOAJ
author Mohammad Vahedi Torshizi
Mohsen Azadbakht
Mahdi Kashaninejad
spellingShingle Mohammad Vahedi Torshizi
Mohsen Azadbakht
Mahdi Kashaninejad
A study on the energy and exergy of Ohmic heating (OH) process of sour orange juice using an artificial neural network (ANN) and response surface methodology (RSM)
Food Science & Nutrition
artificial neural network
modeling
Ohmic heating
response surface method
sour orange
thermodynamic analysis
author_facet Mohammad Vahedi Torshizi
Mohsen Azadbakht
Mahdi Kashaninejad
author_sort Mohammad Vahedi Torshizi
title A study on the energy and exergy of Ohmic heating (OH) process of sour orange juice using an artificial neural network (ANN) and response surface methodology (RSM)
title_short A study on the energy and exergy of Ohmic heating (OH) process of sour orange juice using an artificial neural network (ANN) and response surface methodology (RSM)
title_full A study on the energy and exergy of Ohmic heating (OH) process of sour orange juice using an artificial neural network (ANN) and response surface methodology (RSM)
title_fullStr A study on the energy and exergy of Ohmic heating (OH) process of sour orange juice using an artificial neural network (ANN) and response surface methodology (RSM)
title_full_unstemmed A study on the energy and exergy of Ohmic heating (OH) process of sour orange juice using an artificial neural network (ANN) and response surface methodology (RSM)
title_sort study on the energy and exergy of ohmic heating (oh) process of sour orange juice using an artificial neural network (ann) and response surface methodology (rsm)
publisher Wiley
series Food Science & Nutrition
issn 2048-7177
publishDate 2020-08-01
description Abstract The nonmodern statistical methods are often unusable for modeling complex and nonlinear calculations. Therefore, the present research modeled and investigated the energy and exergy of the ohmic heating process using an artificial neural network and response surface method (RSM). The radial basis function (RBF) and the multi‐layer perceptron (MLP) networks were used for modeling using sigmoid, linear, and hyperbolic tangent activation functions. The input consisted of voltage gradient; weight loss percentage, duration ohmic, Input flow, Power consumption, electrical conductivity and system performance coefficient and the output included the energy efficiency, exergy efficiency, exergy loss, and improvement potential. The response surface method was also used to predict the data. According to the result, the best prediction amount for energy and exergy efficiencies, exergy loss and improvement potential were in RBF network by sigmoid activation function and after this network, RSM had the best amount for energy efficiency, Also for exergy efficiencies, exergy loss and improvement potential obtained acceptable results in MLP network by a linear activation function. The worst amount was at MLP network by tangent hyperbolic. In general, the neural network can have more ability than the response surface method.
topic artificial neural network
modeling
Ohmic heating
response surface method
sour orange
thermodynamic analysis
url https://doi.org/10.1002/fsn3.1741
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