Many canals carry wastewater into the community. Chemicals and microorganisms in water supply contamination cause effluent that harms humans and the environment. Unregulated waste water disposal can spread infectious hepatitis, cholera, typhoid, and dysentery. Sanitary waste water disposal protects public health and prevents infectious diseases. Integrated food waste and waste water treatment modeling is efficient for addressing rising food waste. Conventional food waste treatment can produce significant levels of total nitrogen (T-N), which can degrade effluent water quality. Due to their lack of expertise and equipment, operators and engineers struggle to extract usable data from huge databases. Unfortunately, much digital data is never used. In recent years, many data analytics methods have evolved. Methods yield accurate findings on huge datasets. However, these technologies have not been extensively studied for wastewater treatment. To do this, we created a machine learning-enabled water quality analysis and prediction platform. Before using deep learning models, data must be reduced, integrated, purified, and transformed. It uses feature selection to improve qualities. The HCNN-BiGRU-A models predicted best. These findings suggest that ensemble learning models suit nonlinear data better. The HCNN-BiGRU-A model also examined how input factors affected sludge generation. The daily wastewater intake and ambient temperature had the biggest impact. This work is unusual in using ML to estimate wastewater treatment facility sludge production.
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