Analysis of Fluid Velocity inside an Agricultural Sprayer Using Generalized Linear Mixed Models

The fluid velocity inside the tank of agricultural sprayers is an indicator of the quality of the mixture. This study aims to formulate the best generalized linear mixed model to infer the fluid velocity inside a tank under specific operational parameters of the agitation system, such as liquid leve...

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Veröffentlicht in:Applied sciences 2020, Vol.10 (15), p.5029, Article 5029
Hauptverfasser: Javier Aguirre, Angel, Guevara-Viera, Guillermo E., Torres-Inga, Carlos S., Guevara-Viera, Raul V., Bone, Antonio, Vidal, Mariano, Javier Garcia-Ramos, Francisco
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container_issue 15
container_start_page 5029
container_title Applied sciences
container_volume 10
creator Javier Aguirre, Angel
Guevara-Viera, Guillermo E.
Torres-Inga, Carlos S.
Guevara-Viera, Raul V.
Bone, Antonio
Vidal, Mariano
Javier Garcia-Ramos, Francisco
description The fluid velocity inside the tank of agricultural sprayers is an indicator of the quality of the mixture. This study aims to formulate the best generalized linear mixed model to infer the fluid velocity inside a tank under specific operational parameters of the agitation system, such as liquid level, circuit pressures, and number of active nozzles. A complex model was developed that included operational parameters as fixed effects (FE) and the section of the tank as the random effect. The goodness of fit of the model was evaluated by considering the lowest values of Akaike's information criteria and Bayesian information criterion, and by estimating the residual variance. The gamma distribution and log-link function enhanced the goodness of fit of the best model. The Toeplitz structure was chosen as the structure of the covariance matrix. SPSS and SAS software were used to compute the model. The analysis showed that the greatest influence on the fluid velocity was exerted by the liquid level in the tank, followed by the circuit pressure and, finally, the number of active nozzles. The development presented here could serve as a guide for formulating models to evaluate the efficiency of the agitation system of agricultural sprayers.
doi_str_mv 10.3390/app10155029
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subjects Agitation
Bayesian analysis
Bias
Chemistry
Chemistry, Multidisciplinary
Covariance matrix
covariance structure
Engineering
Engineering, Multidisciplinary
Generalized linear models
Geometry
Goodness of fit
information criteria
link function
Liquid levels
Materials Science
Materials Science, Multidisciplinary
Mathematical models
Methods
Normal distribution
Nozzles
Physical Sciences
Physics
Physics, Applied
Probability distribution functions
random-effects
residual variance
Science & Technology
Software packages
Sprays
Statistical models
Technology
Variables
Velocity
title Analysis of Fluid Velocity inside an Agricultural Sprayer Using Generalized Linear Mixed Models
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