Utilizing Remote Sensing and Deep Neural Networks to Predict Biochemical Oxygen Demand in the Chesapeake Bay

Deteriorating water quality and the rising demand for clean water necessitate more efficient water quality monitoring. One key water quality metric is five-day biochemical oxygen demand (BOD5). Current methods of BOD5 measurement are expensive and time consuming, requiring a more cost-effective method of BOD5 measurement. In our study, we investigated machine learning models commonly used for water quality prediction and created a novel Deep Neural Network (DNN) capable of predicting BOD5 based on water quality metrics measured from satellites. Benchmarking our models on their Proportional Root Mean Square Error or RMSEP, we found that the DNN exceeded expectations by attaining a low RMSEP of 0.022 and outperforming commonly used machine learning models. In addition, the model showed no geographical bias after being tested with zones of varying salinity levels, suggesting that DNNs have significant potential for predicting BOD5 with data obtained solely from remote satellites.

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Publication Details

Published
2024-10-11
DOI
https://doi.org/10.1109/urtc65039.2024.10937385
Citations
1
Primary Topic
Water Quality Monitoring and Analysis
Type
article
Field-Weighted Citation Impact
0.29
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article

Utilizing Remote Sensing and Deep Neural Networks to Predict Biochemical Oxygen Demand in the Chesapeake Bay

Andrew Kim, Jung‐Rack Kim
1 citations
Water Quality Monitoring and Analysis
0.29
article

Utilizing Remote Sensing and Deep Neural Networks to Predict Biochemical Oxygen Demand in the Chesapeake Bay

Andrew Kim, Jung‐Rack Kim
article en
1 citations

Abstract

Deteriorating water quality and the rising demand for clean water necessitate more efficient water quality monitoring. One key water quality metric is five-day biochemical oxygen demand (BOD5). Current methods of BOD5 measurement are expensive and time consuming, requiring a more cost-effective method of BOD5 measurement. In our study, we investigated machine learning models commonly used for water quality prediction and created a novel Deep Neural Network (DNN) capable of predicting BOD5 based on water quality metrics measured from satellites. Benchmarking our models on their Proportional Root Mean Square Error or RMSEP, we found that the DNN exceeded expectations by attaining a low RMSEP of 0.022 and outperforming commonly used machine learning models. In addition, the model showed no geographical bias after being tested with zones of varying salinity levels, suggesting that DNNs have significant potential for predicting BOD5 with data obtained solely from remote satellites.

United States Naval Research Laboratory (US)
Openalex Percentile: Top 35%
Water Quality Monitoring and Analysis
0.29
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Utilizing Remote Sensing and Deep Neural Networks to Predict Biochemical Oxygen Demand in the Chesapeake Bay — Andrew Kim, Jung‐Rack Kim · (2024) | TGRS Research Map | TGRS