Closed-Loop Neuronal-Computational Systems: Potentials And Problems
Abstract
Microelectrode arrays can organize cultivated neurons on various scales for closed feedback loops to measurably enhance their computational capacity. A significant step toward advancing computational interfacing of neural networks employs the use of organoid-computing integration (OCI). The use of OCIs can expand capabilities for bio-electronic assimilation via “encoding” cultured neurons (and neuronal systems of multi-scalar organoids) by developing interconnected computerized signaling on surfaces of multielectrode array contacts. It may be that OCIs could afford a valid simulacrum for the functional computational capabilities of neural networks of a living brain, and in so doing may enable insights to both the “hard question” of neuroscience (viz. how conscious and cognitive processes arise in/from a material (biological) system, and if, how and to what extent OCIs impart sentient characteristics to hybrid and/or synthetic systems (in silico). The potential emergence of high-functioning organic-computational intelligence gives rise to a number of neuroethico-legal and social issues, which require address in ways that are herein proposed.
Document Type
Article
Topic(s)
Emerging Science and Technologies, Ethics
Publication Date
8-2024
Recommended Citation
Kennedy, Hannah; Hamsala, Anagha; Riley, Gwen; Mock, Katherine; Fotoohi, Sara; Kaur, Jotroop; Rosario, Denice; Renteria, Leilani; Shook, John R.; and Giordano, James, "Closed-Loop Neuronal-Computational Systems: Potentials And Problems" (2024). Articles & Op-Eds. 10.
https://digitalcommons.ndu.edu/cdtfw-articles/10