BiœmuS: A new tool for neurological disorders studies through real-time emulation and hybridization using biomimetic Spiking Neural Network

Romain Beaubois, Jérémy Cheslet, Tomoya Duenki, Giuseppe De Venuto, Marta Carè, Farad Khoyratee, Michela Chiappalone, Pascal Branchereau, Yoshiho Ikeuchi, Timothée Levi

Nature Communications · 2024 · 24 citations · 45 references

DOIFull text

Open access

Concepts

TL;DR

Characterization and modeling of biological neural networks has advanced our understanding of brain function and pathologies, yet limited pharmacological treatments drive exploration of electroceutics and neuromorphic neuroprostheses, whose full potential requires deeper insight into biohybrid interactions. The study presents a novel real‑time, biomimetic, cost‑effective neural network for biohybrid experiments, aiming to advance neuromorphic neuroprostheses that enable seamless communication with biological networks. The system enables real‑time emulation of biophysically detailed neural network dynamics with cost‑efficiency, flexibility, and ease of use. The system demonstrates feasibility of biohybrid experiments with standard interfaces and diverse cells, and its embedded real‑time functionality enhances practicality and accessibility for real‑world applications.

Abstract

Abstract Characterization and modeling of biological neural networks has emerged as a field driving significant advancements in our understanding of brain function and related pathologies. As of today, pharmacological treatments for neurological disorders remain limited, pushing the exploration of promising alternative approaches such as electroceutics. Recent research in bioelectronics and neuromorphic engineering have fostered the development of the new generation of neuroprostheses for brain repair. However, achieving their full potential necessitates a deeper understanding of biohybrid interaction. In this study, we present a novel real-time, biomimetic, cost-effective and user-friendly neural network capable of real-time emulation for biohybrid experiments. Our system facilitates the investigation and replication of biophysically detailed neural network dynamics while prioritizing cost-efficiency, flexibility and ease of use. We showcase the feasibility of conducting biohybrid experiments using standard biophysical interfaces and a variety of biological cells as well as real-time emulation of diverse network configurations. We envision our system as a crucial step towards the development of neuromorphic-based neuroprostheses for bioelectrical therapeutics, enabling seamless communication with biological networks on a comparable timescale. Its embedded real-time functionality enhances practicality and accessibility, amplifying its potential for real-world applications in biohybrid experiments.

References

45