A Hybrid Framework Combining Rule-Based and Deep Learning Approaches for Data-Driven Verdict Recommendations

As legal cases grow in complexity and volume worldwide, integrating machine learning and artificial intelligence into judicial systems has become a pivotal research focus. This study introduces a comprehensive framework for verdict recommendation that synergizes rule-based methods with deep learning techniques specifically tailored to the legal domain. The proposed framework comprises three core modules: legal feature extraction, semantic similarity assessment, and verdict recommendation. For legal feature extraction, a rule-based approach leverages Black’s Law Dictionary and WordNet Synsets to construct feature vectors from judicial texts. Semantic similarity between cases is evaluated using a hybrid method that combines rule-based logic with an LSTM model, analyzing the feature vectors of query cases against a legal knowledge base. Verdicts are then recommended through a rule-based retrieval system, enhanced by predefined legal statutes and regulations. By merging rule-based methodologies with deep learning, this framework addresses the interpretability challenges often associated with contemporary AI models, thereby enhancing both transparency and generalizability across diverse legal contexts. The system was rigorously tested using a legal corpus of 43,000 case laws across six categories: Criminal, Revenue, Service, Corporate, Constitutional, and Civil law, ensuring its adaptability across a wide range of judicial scenarios. Performance evaluation showed that the feature extraction module achieved an average accuracy of 91.6% with an F-Score of 95%. The semantic similarity module, tested using Manhattan, Euclidean, and Cosine distance metrics, achieved 88% accuracy and a 93% F-Score for short queries (Manhattan), 89% accuracy and a 93.7% F-Score for medium-length queries (Euclidean), and 87% accuracy with a 92.5% F-Score for longer queries (Cosine). The verdict recommendation module outperformed existing methods, achieving 90% accuracy and a 93.75% F-Score. This study highlights the potential of hybrid AI frameworks to improve judicial decision-making and streamline legal processes, offering a robust, interpretable, and adaptable solution for the evolving demands of modern legal systems.

Authors

Publication Details

Journal
Computers, materials & continua/Computers, materials & continua (Print)
Published
2025-01-01
DOI
https://doi.org/10.32604/cmc.2025.062340
Citations
2
Primary Topic
Recommender Systems and Techniques
Type
article
Field-Weighted Citation Impact
6.49
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article

A Hybrid Framework Combining Rule-Based and Deep Learning Approaches for Data-Driven Verdict Recommendations

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2 citations
Computers, materials & continua/Computers, materials & continua (Print)
Recommender Systems and Techniques
6.49
article

A Hybrid Framework Combining Rule-Based and Deep Learning Approaches for Data-Driven Verdict Recommendations

Jawad Khan, Yousef Alhwaiti, Menwa Alshammeri, Muhammad Faheem Khan, Asfandyar Khan, Madallah Alruwaili, Saad Alanazi, Muhammad Hameed Siddiqi, Irshad Ahmad
article en
2 citations

Abstract

As legal cases grow in complexity and volume worldwide, integrating machine learning and artificial intelligence into judicial systems has become a pivotal research focus. This study introduces a comprehensive framework for verdict recommendation that synergizes rule-based methods with deep learning techniques specifically tailored to the legal domain. The proposed framework comprises three core modules: legal feature extraction, semantic similarity assessment, and verdict recommendation. For legal feature extraction, a rule-based approach leverages Black’s Law Dictionary and WordNet Synsets to construct feature vectors from judicial texts. Semantic similarity between cases is evaluated using a hybrid method that combines rule-based logic with an LSTM model, analyzing the feature vectors of query cases against a legal knowledge base. Verdicts are then recommended through a rule-based retrieval system, enhanced by predefined legal statutes and regulations. By merging rule-based methodologies with deep learning, this framework addresses the interpretability challenges often associated with contemporary AI models, thereby enhancing both transparency and generalizability across diverse legal contexts. The system was rigorously tested using a legal corpus of 43,000 case laws across six categories: Criminal, Revenue, Service, Corporate, Constitutional, and Civil law, ensuring its adaptability across a wide range of judicial scenarios. Performance evaluation showed that the feature extraction module achieved an average accuracy of 91.6% with an F-Score of 95%. The semantic similarity module, tested using Manhattan, Euclidean, and Cosine distance metrics, achieved 88% accuracy and a 93% F-Score for short queries (Manhattan), 89% accuracy and a 93.7% F-Score for medium-length queries (Euclidean), and 87% accuracy with a 92.5% F-Score for longer queries (Cosine). The verdict recommendation module outperformed existing methods, achieving 90% accuracy and a 93.75% F-Score. This study highlights the potential of hybrid AI frameworks to improve judicial decision-making and streamline legal processes, offering a robust, interpretable, and adaptable solution for the evolving demands of modern legal systems.

Computers, materials & continua/Computers, materials & continua (Print)Vol. 83(3)
Openalex Percentile: Top 4%
Recommender Systems and Techniques
6.49
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