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--- |
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tags: |
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- influence-guided-training |
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- dataset-curation |
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- distilgpt2 |
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datasets: |
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- DamarJati/indocorpus-sastra |
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- crmamede/vulnerability_detection__explainability |
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- jason-oneal/mitre-stix-cve-exploitdb-dataset-alpaca |
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language: |
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- en |
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license: apache-2.0 |
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--- |
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# gpt-2-vuln-code |
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This model was trained using **influence-guided dataset selection**, a technique that uses influence scores to identify the most impactful training data for specific concepts. |
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## Model Description |
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- **Base Model**: distilgpt2 |
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- **Training Concepts**: vulnerability detection, static code analysis, SAST, secure coding practices, CWE, CVE, automated security testing, code review tools, threat modeling |
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- **Training Method**: Influence-guided data selection |
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- **Compute Budget**: 100 steps per condition |
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- **Total Datasets**: 3 |
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## Training Approach |
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This model was trained using three different data selection strategies to validate the effectiveness of influence-guided training: |
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1. **Positive Influence**: Datasets with high positive influence scores (most aligned with target concepts) |
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2. **Random Baseline**: Randomly sampled datasets |
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3. **Negative Influence**: Datasets with high negative influence scores (least aligned) |
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## Benchmark Results |
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| Condition | Perplexity ↓ | Train Loss ↓ | Eval Loss ↓ | |
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|-----------|-------------|--------------|-------------| |
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| Positive | 12.17 | 2.9640 | 2.4989 | |
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| Random | 4.81 | 1.9605 | 1.5703 | |
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*Lower is better for all metrics* |
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## Training Datasets |
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The model was trained on datasets selected through influence scoring: |
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- `DamarJati/indocorpus-sastra` (Influence: -0.867) |
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- `crmamede/vulnerability_detection__explainability` (Influence: 0.621) |
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- `jason-oneal/mitre-stix-cve-exploitdb-dataset-alpaca` (Influence: -0.526) |
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## Intended Use |
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This model demonstrates the effectiveness of influence-guided training for: |
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- Concept-specific language modeling |
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- Data-efficient training |
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- Dataset curation research |
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## Limitations |
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- Trained on a limited compute budget for benchmarking purposes |
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- May not generalize well outside the target concepts: vulnerability detection, static code analysis, SAST, secure coding practices, CWE, CVE, automated security testing, code review tools, threat modeling |
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- Performance depends on the quality of influence score estimation |
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## Citation |
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If you use this model or the influence-guided training approach, please cite: |
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```bibtex |
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@software{influence_guided_training, |
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title = {Influence-Guided Dataset Selection for Language Models}, |
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author = {Learning Curator by Durinn}, |
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year = {2025}, |
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url = {https://huggingface.co/durinn/gpt-2-vuln-code} |
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} |
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``` |
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## Model Card Contact |
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For questions or feedback, visit [Durinn](https://durinn.ai/contact) |
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--- |
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*Generated by Learning Curator - AI-powered dataset discovery and training plan optimization* |
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