BCRNVSRM: Design of an Iterative Fusion of BiLSTM & BiGRU with Convolutionally Recurrent Neural Networks to Enhance Summarization Efficiency of Videos with Rapid Movements

Authors

  • Darshankumar D. Billur KLE Collegeof Engineering & Technology/ Department of ECE, Chikodi-591201, INDIA
  • Manu T. M. KLE Institute of Technology, Hubballi / Department of ECE, 580030, INDIA

Keywords:

Video Summarization, BiLSTM & BiGRU Fusion, Grey Wolf Optimizer, Convolutionally Recurrent Neural Networks, Rapid Movement Videos

Abstract

With the burgeoning growth of digital video content, accurate and efficient video summarization becomes imperative, especially for videos exhibiting rapid movements. Such videos present challenges due to their intrinsic high variability and complexities, necessitating advanced techniques to capture and condense meaningful information effectively. Traditional summarization techniques often fail to harness the multidomain features inherent to dynamic video sequences, leading to imprecise and inefficient summarization results. Existing models lack robust fusion mechanisms and are limited in their ability to cope with high variance scenarios in videos with swift movements. In this paper, we introduce a novel framework that employs a fusion of BiLSTM & BiGRU operations to transform frame sequences into multidomain features. These features are then enriched and converted into high variance descriptors using the Grey Wolf Optimizer (GWO). To amalgamate these modalities, a weighted sum method, guided by GWO, is utilized, ensuring an optimized integration process. Subsequently, summary profiles are generated from these fused data samples through Convolutionally Recurrent Neural Networks. The entire schema is tailored to comprehensively capture the underlying patterns and temporal consistencies in rapidly moving video sequences. The proposed model exhibits a commendable enhancement in video summarization performance. Quantitative evaluations report an enhancement of 3.9% in precision, 2.9% in accuracy, 4.5% in recall, 3.5% in AUC, and 4.8% in specificity. Furthermore, the methodology reduces delay by 1.9%, indicating a promising direction in real-time video processing and summarization. In conclusion, this work significantly bridges the gap between complex video content and concise summarization, paving the way for advanced video processing tools in the future.

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Published

12.01.2024

How to Cite

D. Billur, D. ., & T. M., M. . (2024). BCRNVSRM: Design of an Iterative Fusion of BiLSTM & BiGRU with Convolutionally Recurrent Neural Networks to Enhance Summarization Efficiency of Videos with Rapid Movements. International Journal of Intelligent Systems and Applications in Engineering, 12(12s), 146–159. Retrieved from https://ijisae.org/index.php/IJISAE/article/view/4499

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Research Article