Modelling Bathing Water Quality Using Official Monitoring Data

Predictive models of bathing water quality are a useful support to traditional monitoring and provide timely and adequate information for the protection of public health. When developing models, it is critical to select an appropriate model type and appropriate metrics to reduce errors so that the p...

Descripción completa

Guardado en:
Detalles Bibliográficos
Autores principales: Daniela Džal, Ivana Nižetić Kosović, Toni Mastelić, Damir Ivanković, Tatjana Puljak, Slaven Jozić
Formato: article
Lenguaje:EN
Publicado: MDPI AG 2021
Materias:
Acceso en línea:https://doaj.org/article/2f7ba5e9da9c48cb9222174cf68d615b
Etiquetas: Agregar Etiqueta
Sin Etiquetas, Sea el primero en etiquetar este registro!
id oai:doaj.org-article:2f7ba5e9da9c48cb9222174cf68d615b
record_format dspace
spelling oai:doaj.org-article:2f7ba5e9da9c48cb9222174cf68d615b2021-11-11T19:54:16ZModelling Bathing Water Quality Using Official Monitoring Data10.3390/w132130052073-4441https://doaj.org/article/2f7ba5e9da9c48cb9222174cf68d615b2021-10-01T00:00:00Zhttps://www.mdpi.com/2073-4441/13/21/3005https://doaj.org/toc/2073-4441Predictive models of bathing water quality are a useful support to traditional monitoring and provide timely and adequate information for the protection of public health. When developing models, it is critical to select an appropriate model type and appropriate metrics to reduce errors so that the predicted outcome is reliable. It is usually necessary to conduct intensive sampling to collect a sufficient amount of data. This paper presents the process of developing a predictive model in Kaštela Bay (Adriatic Sea) using only data from regular (official) bathing water quality monitoring collected during five bathing seasons. The predictive modelling process, which included data preprocessing, model training, and model tuning, showed no silver bullet model and selected two model types that met the specified requirements: a neural network (ANN) for <i>Escherichia coli</i> and a random forest (RF) for intestinal enterococci. The different model types are probably the result of the different persistence of two indicator bacteria to the effects of marine environmental factors and consequently the different die-off rates. By combining these two models, the bathing water samples were classified with acceptable performances, an informedness of 71.7%, an F-score of 47.1%, and an overall accuracy of 80.6%.Daniela DžalIvana Nižetić KosovićToni MastelićDamir IvankovićTatjana PuljakSlaven JozićMDPI AGarticlefaecal indicator bacteria<i>E. coli</i>intestinal enterococcibathing water quality predictionpredictive modelsneural networkHydraulic engineeringTC1-978Water supply for domestic and industrial purposesTD201-500ENWater, Vol 13, Iss 3005, p 3005 (2021)
institution DOAJ
collection DOAJ
language EN
topic faecal indicator bacteria
<i>E. coli</i>
intestinal enterococci
bathing water quality prediction
predictive models
neural network
Hydraulic engineering
TC1-978
Water supply for domestic and industrial purposes
TD201-500
spellingShingle faecal indicator bacteria
<i>E. coli</i>
intestinal enterococci
bathing water quality prediction
predictive models
neural network
Hydraulic engineering
TC1-978
Water supply for domestic and industrial purposes
TD201-500
Daniela Džal
Ivana Nižetić Kosović
Toni Mastelić
Damir Ivanković
Tatjana Puljak
Slaven Jozić
Modelling Bathing Water Quality Using Official Monitoring Data
description Predictive models of bathing water quality are a useful support to traditional monitoring and provide timely and adequate information for the protection of public health. When developing models, it is critical to select an appropriate model type and appropriate metrics to reduce errors so that the predicted outcome is reliable. It is usually necessary to conduct intensive sampling to collect a sufficient amount of data. This paper presents the process of developing a predictive model in Kaštela Bay (Adriatic Sea) using only data from regular (official) bathing water quality monitoring collected during five bathing seasons. The predictive modelling process, which included data preprocessing, model training, and model tuning, showed no silver bullet model and selected two model types that met the specified requirements: a neural network (ANN) for <i>Escherichia coli</i> and a random forest (RF) for intestinal enterococci. The different model types are probably the result of the different persistence of two indicator bacteria to the effects of marine environmental factors and consequently the different die-off rates. By combining these two models, the bathing water samples were classified with acceptable performances, an informedness of 71.7%, an F-score of 47.1%, and an overall accuracy of 80.6%.
format article
author Daniela Džal
Ivana Nižetić Kosović
Toni Mastelić
Damir Ivanković
Tatjana Puljak
Slaven Jozić
author_facet Daniela Džal
Ivana Nižetić Kosović
Toni Mastelić
Damir Ivanković
Tatjana Puljak
Slaven Jozić
author_sort Daniela Džal
title Modelling Bathing Water Quality Using Official Monitoring Data
title_short Modelling Bathing Water Quality Using Official Monitoring Data
title_full Modelling Bathing Water Quality Using Official Monitoring Data
title_fullStr Modelling Bathing Water Quality Using Official Monitoring Data
title_full_unstemmed Modelling Bathing Water Quality Using Official Monitoring Data
title_sort modelling bathing water quality using official monitoring data
publisher MDPI AG
publishDate 2021
url https://doaj.org/article/2f7ba5e9da9c48cb9222174cf68d615b
work_keys_str_mv AT danieladzal modellingbathingwaterqualityusingofficialmonitoringdata
AT ivananizetickosovic modellingbathingwaterqualityusingofficialmonitoringdata
AT tonimastelic modellingbathingwaterqualityusingofficialmonitoringdata
AT damirivankovic modellingbathingwaterqualityusingofficialmonitoringdata
AT tatjanapuljak modellingbathingwaterqualityusingofficialmonitoringdata
AT slavenjozic modellingbathingwaterqualityusingofficialmonitoringdata
_version_ 1718431339991007232