An intelligent approach to predict the drilling penetration rate using acoustic emission technique (AET)
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Summary
This summary is machine-generated.Geotechnical drilling performance can be predicted using vibroacoustic signals and artificial intelligence (AI). Machine learning models accurately forecast penetration rates, enhancing efficiency and sustainability in excavation projects.
Area Of Science
- Geotechnical Engineering
- Artificial Intelligence
- Signal Processing
Background
- Optimization is crucial in geotechnical engineering due to energy constraints and cost demands.
- Drilling efficiency is vital for mining and tunneling, necessitating intelligent performance strategies.
- Monitoring While Drilling (MWD) and Acoustic Emission Technique (AET) offer real-time data acquisition and analysis.
Purpose Of The Study
- To predict drilling penetration rate (PR) by analyzing vibroacoustic signals and drilling parameters.
- To evaluate the effectiveness of Artificial Neural Network (ANN), Random Forest (RF), and Support Vector Regression (SVR) models for PR prediction.
- To demonstrate the integration of vibroacoustic monitoring with AI for enhanced drilling performance.
Main Methods
- Collected and analyzed vibroacoustic signals and drilling parameters.
- Developed and compared three machine learning models: ANN, RF, and SVR.
- Assessed model performance using metrics such as R-squared, MAPE, and RMSE.
Main Results
- All models demonstrated reliable predictive accuracy for penetration rate.
- Random Forest (RF) achieved the highest R-squared value (0.816) and lowest MAPE (31.54%).
- Support Vector Regression (SVR) showed comparable performance with R-squared of 0.808 and MAPE of 29.52%.
Conclusions
- Integrating vibroacoustic monitoring with AI-driven models is feasible for accurate PR prediction.
- This approach supports real-time decision-making and improves drilling efficiency.
- The findings promote sustainable practices in underground and surface excavation projects.

