Vertical storage tanks hold fuel, water and chemicals. A tiny leak can harm the environment and safety. Researchers used FLUENT 16.0 to simulate an orifice leak in a vertical cylindrical tank. The simulation showed a sharp pressure drop right at the leak spot. Real pressure data from an actual leak were cleaned with wavelet threshold denoising, which kept the characteristic drop while removing noise. Time‑domain and waveform features from the cleaned signals built an SVM‑based detection model. Different kernels were compared, and the linear kernel reached 96.55% accuracy, the best result. This approach could be installed on tanks to alert operators early, protecting the environment and saving money.
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The orifice geometry (diameter, location relative to the tank bottom) affects leak flow rate and pressure signature. A high‑resolution CFD mesh captures the turbulent, transient flow around the hole. Wavelet denoising selects the optimal scale to separate the leak signal from background noise, preserving high‑frequency pressure spikes. Extracted features include pressure drop slope, event duration, and waveform energy. The linear‑kernel SVM builds a simple decision boundary that separates leak from normal data, minimizing false alarms. Cross‑validation and independent testing confirm model reliability, making it suitable for real‑time industrial monitoring systems.
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