Description
The dataset was generated using a deep-learning-based surrogate modeling technique for characterizing buried objects using 3-D full-wave electromagnetic simulations of a GPR model. The task was to independently predict characteristic parameters of a buried object of diverse radii allocated at different positions (depth and lateral position) in various dispersive subsurface media. The proposed surrogate model referred to as the deep regression network (DRN) is utilized for the time-frequency spectrogram (TFS) of consecutive A-scans. DRN is developed with the main aim being computationally efficient (about 13 times acceleration) compared to conventional network models using B-scan images (2D data). DRN with TFS is favorably benchmarked to the state-of-the-art regression techniques. The experimental results obtained for the proposed model and second-best model, CNN-1D show mean absolute and relative error rates of 3.6 mm, 11.8 mm, and 4.7%, 11.6%, respectively.
Dataset file
hexmd5(md5(part1)+md5(part2)+...)-{parts_count}
where a single part of the file is 512 MB in size.Example script for calculation:
https://github.com/antespi/s3md5
File details
- License:
-
open in new tab
CC BYAttribution
Details
- Year of publication:
- 2025
- Verification date:
- 2025-03-17
- Dataset language:
- English
- Fields of science:
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- automation, electronics, electrical engineering and space technologies (Engineering and Technology)
- DOI:
- DOI ID 10.34808/b14p-4585 open in new tab
- Funding:
- Verified by:
- Gdańsk University of Technology
Keywords
- Artificial intelligence
- Buried object characterization
- Deep regression network
- Ground penetrating radar (GPR)
- Surrogate modeling
References
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