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.
Abstract
The proper choice of crops is a necessary aspect of enhancing agricultural performance, effective use of resources, and sustainable food production in changing climatic conditions. Conventional recommendation systems are based mostly on statistical and shallow machine learning models, in which soil and climatic parameters are used as independent variables, thereby restricting their capacity to form contextual associations among agronomic factors. The research is a BERT-based predictive agricultural crop model that uses contextual language representations to predict complex relationships among soil nutrients and weather conditions. Numerical agricultural data, such as Nitrogen (N), Phosphorus (P), Potassium (K), soil pH, temperature, humidity, rainfall, and soil type, are transformed into text-structured descriptors and input into an already-trained Bidirectional Encoder Representations from Transformers (BERT) model. The contextual embeddings obtained with the frozen BERT encoder are sent to a light model neural classification head of fully connected layers, dropout regularization, and LogSoftmax activation to make predictions that will choose the best crop among 22 classes. The model is coded in PyTorch and deployed as an interactive Streamlit application, enabling real-time user interaction and crop suggestions. It is experimentally shown that contextual embedding-based modeling enhances classification strength and is able to contribute to interpretable agricultural decision-making. The system illustrates how transformer-based architecture can be used in precision agriculture and decision support systems.
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.
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Agricultural planning is inherently uncertain: soil composition varies across seasons, and market prices for produce are rarely predictable at the time planting decisions are made. Farmers routinely face this uncertainty with limited analytical support, which motivates the development of the Agricultural Decision Suppo...
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The increasing availability of agricultural timeseries data enabled more accurate and data-driven crop yield prediction. However, raw meteorological, soil, and vegetation datasets often fail to capture complex temporal dependencies essential for robust forecasting. This study proposes a structured feature engineering...
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The proposed framework provides an intelligent, scalable, and data-driven decision support system that can assist farmers, agricultural experts, and policymakers in improving productivity, optimizing resource utilization, and promoting sustainable farming practices under varying climatic conditions.
Choudhuri Saswat Pattnaik, Rojalini Mohanty, Bijaya Laxmi Hazra et al.· International Research Journ...· 0 citations
The crop cultivation generally depends on the environmental circumstances and the
production of crops plays a major part to meet the increasing requirement of food. Therefore,
attaining improved efficiency and sustainability is considered highly essential in farming, due
to this reason, a novel Crop Recommendation Syst...
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