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Learning from Scarce Information: Using Synthetic Data to Classify Roman Fine Ware Pottery.
Santos J Núñez Jareño1, Daniël P van Helden2, Evgeny M Mirkes1,3
1School of Mathematics and Actuarial Science, University of Leicester, Leicester LE1 7RH, UK.
This study introduces a hybrid transfer learning method to improve AI model generalization on small datasets. Training on synthetic data before real data significantly enhances classifier performance for Roman pottery recognition.
Area of Science:
- Computer Science
- Archaeology
- Digital Humanities
Background:
- Machine learning models often require large datasets for effective generalization.
- Small datasets, common in specialized fields like archaeology, pose a significant challenge for AI model training.
- Roman pottery classification is hindered by limited, often fragmented, available data.
Purpose of the Study:
- To develop and evaluate a transfer learning approach for improving AI model generalization on small, specialized datasets.
- To address the challenge of learning from limited data in the context of Roman pottery classification.
- To integrate expert knowledge into synthetic data generation for AI model training.
Main Methods:
- A hybrid transfer learning strategy was employed, involving initial training on a synthetic dataset.
- Synthetic data was generated using features from published profile drawings of Roman pottery forms, incorporating expert knowledge.
- The model was subsequently fine-tuned using a smaller dataset of real smartphone photographs of Roman pottery vessels.
- Experiments were conducted using various deep learning architectures and considering factors like image viewpoint and vessel damage.
Main Results:
- The proposed hybrid approach significantly improved classifier generalization performance compared to training solely on original data.
- The method demonstrated robustness across different deep learning architectures and under varying experimental conditions (viewpoint, damage).
- The integration of expert knowledge via synthetic data generation proved effective in enhancing model training.
Conclusions:
- Transfer learning, particularly using expert-informed synthetic data, offers a promising solution for training AI models on small datasets.
- This approach effectively alleviates the fundamental issue of poor generalization in data-scarce domains like archaeological artifact analysis.
- The developed method holds potential for broader applications in classifying historical artifacts and other specialized visual recognition tasks.
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