Enzyme‐Mediated Organic Neurohybrid Synapses

The development of organic artificial synapses that exhibit biomimicry features also may enable a more seamless integration of neuroelectronic devices in the nervous system, allowing artificial neuromodulation to be perceived as natural behavior by neuronal cells. Nevertheless, the capability to interact with both electroactive and non-electroactive neurotransmitters remains a challenge since state-of-the-art devices mainly rely on the oxidation of electroactive species. Here, the study proposes an organic artificial synapse engineered to enable interaction with non-electroactive species present in the central nervous system. By integrating a conductive polymeric film functionalized with platinum nanoparticles, the device can catalyze the oxidation of electroactive molecules (i.e., H<sub>2</sub>O<sub>2</sub>) resulting from neurotransmitter-specific enzymatic reactions following an enzymatic functionalization, therefore exhibiting neuromorphic functions driven by non-electroactive neurotransmitters. The creation of devices that can interact with or monitor these neurotransmitters can be seen as a significant step toward innovative technologies to expand the understanding of the mechanisms underlying neurological disorders and the development of novel, more effective treatments for them.

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Publication Details

Journal
Advanced Materials
Published
2024-10-14
DOI
https://doi.org/10.1002/adma.202409614
Citations
16
Primary Topic
Conducting polymers and applications
Type
article
Field-Weighted Citation Impact
2.70

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article

Enzyme‐Mediated Organic Neurohybrid Synapses

Claudia Lubrano, Viviana Rincón Montes, Andreas Offenhäusser, Daniela Rana et al.
16 citations
Advanced Materials
Conducting polymers and applications
2.70
article

Enzyme‐Mediated Organic Neurohybrid Synapses

Claudia Lubrano, Viviana Rincón Montes, Andreas Offenhäusser, Daniela Rana, Francesca Santoro, Simon Musall, Antonio Lobosco
article en
16 citations

Abstract

The development of organic artificial synapses that exhibit biomimicry features also may enable a more seamless integration of neuroelectronic devices in the nervous system, allowing artificial neuromodulation to be perceived as natural behavior by neuronal cells. Nevertheless, the capability to interact with both electroactive and non-electroactive neurotransmitters remains a challenge since state-of-the-art devices mainly rely on the oxidation of electroactive species. Here, the study proposes an organic artificial synapse engineered to enable interaction with non-electroactive species present in the central nervous system. By integrating a conductive polymeric film functionalized with platinum nanoparticles, the device can catalyze the oxidation of electroactive molecules (i.e., H<sub>2</sub>O<sub>2</sub>) resulting from neurotransmitter-specific enzymatic reactions following an enzymatic functionalization, therefore exhibiting neuromorphic functions driven by non-electroactive neurotransmitters. The creation of devices that can interact with or monitor these neurotransmitters can be seen as a significant step toward innovative technologies to expand the understanding of the mechanisms underlying neurological disorders and the development of novel, more effective treatments for them.

Advanced MaterialsVol. 36(49)
University of Bonn (DE), Forschungszentrum Jülich (DE), RWTH Aachen University (DE)
European Commission, H2020 European Research Council
Life below water
Openalex Percentile: Top 9%
Conducting polymers and applications
2.70
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