A machine learning approach for underwater gas leakage detection
Paulo Hubert,
Linilson Padovese
Abstract:Underwater gas reservoirs are used in many situations. In particular, Carbon Capture and Storage (CCS) facilities that are currently being developed intend to store greenhouse gases inside geological formations in the deep sea. In these formations, however, the gas might percolate, leaking back to the water and eventually to the atmosphere. The early detection of such leaks is therefore tantamount to any underwater CCS project. In this work, we propose to use Passive Acoustic Monitoring (PAM) and a machine lea… Show more
“…Hubert and Padovese [29] used other ML algorithms to develop a model for early gas leakage detection in underwater pipes using passive acoustic emission (AE), which can indicate leakage. The data set used for this research was from a pilot study with simulated leakages that had a total of 1,900 seconds of recordings.…”
“…Hubert and Padovese [29] used other ML algorithms to develop a model for early gas leakage detection in underwater pipes using passive acoustic emission (AE), which can indicate leakage. The data set used for this research was from a pilot study with simulated leakages that had a total of 1,900 seconds of recordings.…”
“…Petroleum products are normally transported via underground carbon steel pipes, which require regular inspections (Feng, Li, Lu, Liu, & Ma, 2017). Monitoring and prevention of pipeline leakages also help safeguard the geologic reservoir for storing greenhouse gases (Hubert & Padovese, 2019). As ascertained in the literature, the intensity of damage due to pipeline leakages is beyond repair expense, considering the amount of oil and gas lost (Jena & Neogi, 2019).…”
Fluids such as water, oil, and gas are transported using pipelines in industries. Because of society's social, health, and economic importance, pipelines transporting these fluids should be properly managed. This paper presents a review of the anomaly detection of fluid transported via pipelines using Machine Learning (ML) approaches. We used the conventional method to search, filter, and include relevant papers available in the literature. We classified the included papers based on the fluids category, which includes water, oil, and gas. Numerous researchers propose solutions for detecting anomalies of fluid in pipelines in a generic way. Despite significant contributions from the available works in the literature, we identified the following gaps: lack of research available in the context of water abnormality detection; human and environmental factors are not considered in many works during experiments; lack of research on detection of the anomaly of fluid transported beneath soil.
“…ML models involve learning patterns in data that can inform decisionmaking based on predictions when new data are introduced (Wang et al, 2009). ML models have proved useful in various fields, such as medicine (Peng et al, 2021;Richens et al, 2020), engineering (Bevilacqua et al, 2010;Curiel-Ramirez et al, 2019;Elelu et al, 2023), finance (Emmanoulopoulos and Dimoska, 2022;Kumar et al, 2021), hydrology (Kratzert et al, 2018), and environment (Hubert and Padovese, 2019;Radford et al, 2016). ML models are vital for learning patterns in ecosystem and the climatic data and the utilization of these patterns for the early detection of HABs.…”
Highlights
Machine Learning (ML) models are identified, reviewed, and analyzed for HAB predictions.
Data preprocessing is vital for efficient ML model development.
ML models for toxin production and monitoring are limited.
Abstract. Harmful algal blooms (HABs) are detrimental to livestock, humans, pets, the environment, and the global economy, which calls for a robust approach to their management. While process-based models can inform practitioners about HAB enabling conditions, they have inherent limitations in accurately predicting harmful algal blooms. To address these limitations, Machine Learning (ML) models can potentially leverage large volumes of IoT data to aid in near real-time predictions. ML models have evolved as efficient tools for understanding patterns and relationships between water quality parameters and HAB expansion. This review describes ML models currently used for predicting and forecasting HABs in freshwater ecosystems and presents model structures and their application for predicting algal parameters and related toxins. The review revealed that regression trees, random forest, Artificial Neural Network (ANN), Support Vector Regression (SVR), Long Short-Term Memory (LSTM), and Gated Recurrent Unit (GRU) are the most frequently used models for HABs monitoring. This review shows ML models' prowess in identifying significant variables influencing algal growth, HAB drivers, and multistep HAB prediction. Hybrid models also improve the prediction of algal-related parameters through improved optimization techniques and variable selection algorithms. While ML models often focus on algal biomass prediction, few studies apply ML models for toxin monitoring and prediction. This limitation can be associated with a lack of high-frequency toxin datasets for model development, and exploring this domain is encouraged. This review serves as a guide for policymakers and researchers to implement ML models for HAB prediction and reveals the potential of ML models for decision support and early prediction for HAB management. Keywords: Cyanobacteria, Freshwater, Harmful algal blooms, Machine learning, Water quality.
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