A smart water quality companion for farmers: predicting canal suitability for aquaculture and livestock using validated machine learning models and web based tool
A machine-learning-driven framework and an open access web tool that integrates a diurnal water quality index with optimised predictive models for aquaculture and livestock applications in the deltaic region of western Godavari, India are developed and validated.
Abstract
In recent times, global food production has transitioned towards aquaculture and livestock farming owing to the contamination of agricultural crops with harmful fertilisers and pesticides. Quality of intake water plays a crucial role in the growth and wellbeing of the aquatic creatures and livestock. This study aims to develop and validate a machine-learning-driven framework and an open access web tool that integrates a diurnal water quality index with optimised predictive models for aquaculture and livestock applications in the deltaic region of western Godavari, India. Critical parameters were analysed for diurnal samples over two seasons on a semi-perennial canal. From the water quality data using supervised machine learning techniques like linear regression (LR), random forest (RF), decision tree (DT), long short-term memory (LSTM), XGBoost, support vector regression (SVR), and artificial neural networks (ANN), water quality prediction models were developed and compared for model accuracy and feature parameter influence on aquaculture water quality index (AWQI) and livestock water quality index (LWQI). The results indicated that the regression and classification models of LR and SVR showed the highest accuracy when applied to aquaculture (
R
2
: 0.999, MSE: 0.0004 &
R
2
: 0.999, MSE: 0.006) and livestock (
R
2
: 0.999, MSE: 0.00001 &
R
2
: 0.999, MSE: 0.0043) water quality datasets. This study offers more practical benefits to aquatic and livestock farmers, field officers and experts by enabling dual water quality analysis and prediction through an open-access web tool for instantaneous, quick decision-making on water quality for their intended use.
A feature-aware regression-based machine learning framework, which can be used for the prediction of agricultural yield based on a collection of multivariable environmental and agronomic data, and found strong coherence between feature importance layout and SHAP values and agronomic interpretation.
Raj Kumar, P. K. Singh, Rohit Kumar Tiwari· Discover Artificial Intellig...· 0 citations
Three machine learning models Linear Regression, Random Forest, and XGBoost are developed and compared for predicting crop yield using the FAO global agricultural dataset to confirm that ensemble learning methods, particularly Random Forest, are well-suited for modelling complex agricultural yield patterns at global sc...
Abdulhafedh Alsarfi, A. Sable, Aymen M. Al-Hejri· International Journal For Mu...· 0 citations
The Kumaun region of Uttarakhand is characterised by diverse agro-climatic conditions, fragmented landholdings, mountainous terrain, variable soil properties, rainfall dependence and heterogeneous cropping systems. These conditions pose serious challenges for traditional agricultural planning and resource management. T...
K. Shekhar· Indian Journal of Computer S...· 0 citations
Accurate rice productivity prediction is essential for agricultural planning, food-security monitoring and climate-risk mitigation. In this manuscript, rice productivity refers to the average harvested paddy yield per unit harvested area at the district/city-year level, expressed as quintal per hectare (q ha-1). This s...
R. H. Kusumodestoni, F. Arifin, M. Nugraheni· International Research Journ...· 0 citations
Smart agriculture is one such technology that has come as a paradigm shift in a quest to deal with increased food security issues, climate changes and scarcity of resources. When the method of machine learning (ML) is integrated in the agricultural system, it allows making intelligent decisions, predictive analytics, a...
Moussa Camara· International Journal of App...· 0 citations
This research is a BERT-based predictive agricultural crop model that uses contextual language representations to predict complex relationships among soil nutrients and weather conditions and illustrates how transformer-based architecture can be used in precision agriculture and decision support systems.
Nandana Nair, Rufas Kanikanti, P. G. Om Prakash· Engineering & Technology· 0 citations
We use cookies to run the site and, with your consent, for analytics and to show ads.
See our Cookie Policy.