2026· Proceedings of the 4th International Conference on Image, Algorithms, and Artificial Intelligence, ICIAAI 2026, 22-24 May 2026, Singapore, Singapore· 0 citations· 2 references
TL;DR
The issue of neural activity of memory manifestation in the circuits between hippocampal and cortical neurons; the computational decoding algorithms, which transform the population-level allocation of neurons into intelligible cognitive terminologies; and the uses of the algorithms in creating closed-loop BMI systems in restoring memory are discussed.
Abstract
: The Brain-Machine Interfaces (BMI) offer an engineering model to record and decode neural responses. This paper will discuss the issue of neural activity of memory manifestation in the circuits between hippocampal and cortical neurons; the computational decoding algorithms, which transform the population-level allocation of neurons into intelligible cognitive terminologies; and the uses of the algorithms in creating closed-loop BMI systems in restoring memory. Cognitive BMIs are neural state estimation with machine learning and adaptive stimulation paradigms to help improve or repair mnemonic functioning. Hippocampal prototest and temporally directed stimulation models depict some of the potentials of such systems. To gain a clearer insight into the potential offered by BMIs in the field of cognitive neurotechnology, the last part of the paper will discuss the numerous technical issues surrounding the creation of such systems (signal stability, model generalization, stimulation precision) and their effect on the field of ethics.
This review surveys state-of-the-art approaches for neural recording, stimulation and signal decoding and encoding across brain–computer interfaces, neuroprosthetics, and neuromodulation systems aimed at restoring function and treating neurological disorders.
Hoda Fares, Margherita Ronchini, M. Zamani et al.· npj Biomedical Innovations· 0 citations
The integration of artificial intelligence (AI)-based algorithms, particularly machine learning and deep learning techniques, and their contributions to improving the performance and efficiency of MI-BCI systems are discussed in detail.
Mohammad Hossein Koohi Ghamsari, Seyede Fatemeh Ghamkhari, Siavash Bayat et al.· 0 citations
It is shown that adaptive BCIs lead the brain to learn compact representations, suggesting assistive algorithms shape long-term credit assignment, which may explain the altered neural representations and inform real-world BCI design.
Volitional DBS (vDBS)--a paradigm in which patients use brain-computer interface (BCI) training to learn self-regulation of a neural signal that then controls closed-loop DBS)--is demonstrated, establishing that volitional control of intracranial neurostimulation is achievable without the need of an externalized manual...
J.-X. Zhang, J. Suh, P. Daniel et al.· medRxiv· 0 citations
Analysis shows that the collaborative optimization of signal quality, decoding algorithm and shared control strategy is the key to improving the naturalness and reliability of robotic arm operation.
Hao Kang· Theoretical and Natural Scie...· 0 citations
It is argued that the same handful of bottlenecks recur across all three technologies (long-term stability, neural coding, and equitable access) and the governance frameworks needed alongside continued engineering progress are outlined.
Volodymyr Mavrych, O. Bolgova, Leen Alhamd et al.· Frontiers in Neuroscience· 0 citations
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