Neural Network-Based Bio-Machine Integration: Advancing Brain-Computer Interface Communication for Prosthetics, Robotics and Regenerative Applications

Introduction: The integration of Artificial Intelligence (AI) with biological systems has given rise to “living machines”—biohybrid entities that mimic or enhance natural biological functions. This review highlights how neural networks and machine learning approaches are transforming Brain-Computer Interfaces (BCIs), prosthetics, robotics, and regenerative medicine. Methods: A comprehensive literature survey was conducted, focusing on recent advances in AI-driven biohybrid systems. The review synthesizes case studies, technological innovations, and experimental findings in neural interfaces, bio-inspired robotics, synthetic biology, and AIbased biomedical applications. Results: AI has enabled precise decoding of neural signals, improved adaptability in prosthetics, and enhanced regenerative strategies through predictive modelling. Biohybrid robots and AI-assisted biosensors show significant improvements in environmental remediation, industrial processes, and healthcare outcomes. Emerging applications include AI-driven organ-on-a-chip platforms, adaptive bioreactors, and personalized medicine frameworks. Discussion: The findings demonstrate that AI fosters seamless communication between biological and synthetic components, allowing real-time learning, adaptability, and improved functionality. However, challenges remain, including biocompatibility, stability, data privacy, and ethical concerns surrounding synthetic biology and autonomous biohybrids. The review emphasizes the dual promise and responsibility of AI-biological integration in reshaping medicine, industry, and environmental sustainability. Conclusion: AI-powered living machines are redefining boundaries between life and technology. By enabling intelligent, adaptive, and bio-responsive systems, neural network-based biohybrids hold transformative potential in healthcare, robotics, and beyond. Continued interdisciplinary research, supported by ethical oversight, will be crucial to realizing their safe and impactful implementation.

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Publication Details

Journal
Recent Advances in Computer Science and Communications
Published
2026-03-11
DOI
https://doi.org/10.2174/0126662558431927251206093019
Primary Topic
EEG and Brain-Computer Interfaces
Type
article
Field-Weighted Citation Impact
0.00
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article

Neural Network-Based Bio-Machine Integration: Advancing Brain-Computer Interface Communication for Prosthetics, Robotics and Regenerative Applications

Ayushi Bhandari, Sushma Chauhan, Yash Kalra, Indu Singh et al.
Recent Advances in Computer Science and Communications
EEG and Brain-Computer Interfaces
article

Neural Network-Based Bio-Machine Integration: Advancing Brain-Computer Interface Communication for Prosthetics, Robotics and Regenerative Applications

Ayushi Bhandari, Sushma Chauhan, Yash Kalra, Indu Singh, chirag Jain
article en

Abstract

Introduction: The integration of Artificial Intelligence (AI) with biological systems has given rise to “living machines”—biohybrid entities that mimic or enhance natural biological functions. This review highlights how neural networks and machine learning approaches are transforming Brain-Computer Interfaces (BCIs), prosthetics, robotics, and regenerative medicine. Methods: A comprehensive literature survey was conducted, focusing on recent advances in AI-driven biohybrid systems. The review synthesizes case studies, technological innovations, and experimental findings in neural interfaces, bio-inspired robotics, synthetic biology, and AIbased biomedical applications. Results: AI has enabled precise decoding of neural signals, improved adaptability in prosthetics, and enhanced regenerative strategies through predictive modelling. Biohybrid robots and AI-assisted biosensors show significant improvements in environmental remediation, industrial processes, and healthcare outcomes. Emerging applications include AI-driven organ-on-a-chip platforms, adaptive bioreactors, and personalized medicine frameworks. Discussion: The findings demonstrate that AI fosters seamless communication between biological and synthetic components, allowing real-time learning, adaptability, and improved functionality. However, challenges remain, including biocompatibility, stability, data privacy, and ethical concerns surrounding synthetic biology and autonomous biohybrids. The review emphasizes the dual promise and responsibility of AI-biological integration in reshaping medicine, industry, and environmental sustainability. Conclusion: AI-powered living machines are redefining boundaries between life and technology. By enabling intelligent, adaptive, and bio-responsive systems, neural network-based biohybrids hold transformative potential in healthcare, robotics, and beyond. Continued interdisciplinary research, supported by ethical oversight, will be crucial to realizing their safe and impactful implementation.

Recent Advances in Computer Science and CommunicationsVol. 19
Amity University (IN)
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Openalex Percentile: Top 29%
EEG and Brain-Computer Interfaces
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