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Abstract:
The simulation of vocal performance has emerged as an important means of training singers in a more engaging manner than standard methods of vocal coaching. The purpose of this research is to present a new vocal performance simulation and training system developed using neural networks (NN) in a virtual reality (VR) environment and to improve the training of vocal performance using advanced NN models and VR. For this purpose, the researcher's audio is primarily to analyze, collect and process samples recording performance as well as specific performers' training audio-video material. Preprocessing techniques such as noise reduction, and normalization, and applied to prepare the data. Key features like pitch, tone, and breath control were extracted using the Mel-frequency cepstral coefficients (MFCC) algorithm, enabling effective feature representation. We propose the Refined Fruit Fly Optimized Intelligent Long-Short Term Memory (RFF-ILSTM) model, a recurrent neural network (RNN)-based approach optimized for handling sequential vocal data with high precision. The model incorporates the RFF optimization technique in order to enhance the tuning of the LSTM architecture thereby increasing its speed of convergence and training. The information collected was already processed by the proposed framework in an effort to enhance vocal performance simulation. VR integration enhances the enjoyment and effectiveness of the interface as it allows singers to receive immediate feedback as if they were performing in front of an audience. Users engage in performing activities based on 3D images, thereby allowing the practice of different types of vocations without difficulty. Simulation results showed dramatic improvements in terms of ability to control vocals and tones, as well as consistency in performance. The system successfully integrates VR and NN enhancement for an improved, interactive system of training for vocal performances. © 2025 World Scientific Publishing Company.
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International Journal of High Speed Electronics and Systems
ISSN: 0129-1564
Year: 2025
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ESI Highly Cited Papers on the List: 0 Unfold All
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