A multi-functional platform for stimulating and recording electrical responses of SH-SY5Y cells

In recent years, multifunctional cell regulation on a single chip has become an imperative need for cell research. In this study, a novel multi-functional micro-platform integrating wireless electrical stimulation, mechanical stimulation and electrical response recording of cells was proposed. Controlling cell fate by photoexcited radio stimulation of cells on photosensitive films can precisely orchestrate biological activities. This is the first report of combining hydrogenated amorphous silicon (a-Si:H) photosensitive films and a 532 nm green laser for cell stimulation and electrical response recording. Remote wireless electrical stimulation of nerve cells through photoelectric effects based on photosensitive films evoked a change in membrane potential and promoted the neurite growth and neuronal differentiation. These effects were confirmed in a cell model of the human neuroblastoma cell line. The electrical response of cells demonstrated that the photocurrent generated by laser irradiation of the photosensitive film induced a redistribution of ions inside and outside the cell. Furthermore, a mechanical stimulus was applied to cells using a probe placed above them. The chip was used as a signal output to simultaneously obtain the electrical response of cells. The ability of photosensitive films to precisely excite cellular activity offers a novel prospect for wireless electrical stimulation. This work provides a promising strategy for the design of multi-functional biological devices based on a single chip.

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Publication Details

Journal
Analytical Methods
Published
2024-11-29
DOI
https://doi.org/10.1039/d4ay01515k
Citations
1
Primary Topic
Neuroscience and Neural Engineering
Type
article
Field-Weighted Citation Impact
0.27

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article

A multi-functional platform for stimulating and recording electrical responses of SH-SY5Y cells

Jianjun Dong, Fengyan Hou, Zuobin Wang, Tianzhu Yu et al.
1 citations
Analytical Methods
Neuroscience and Neural Engineering
0.27
article

A multi-functional platform for stimulating and recording electrical responses of SH-SY5Y cells

Jianjun Dong, Fengyan Hou, Zuobin Wang, Tianzhu Yu, Xia Wang, Rui Wang, Qiuyang Deng
article en
1 citations

Abstract

In recent years, multifunctional cell regulation on a single chip has become an imperative need for cell research. In this study, a novel multi-functional micro-platform integrating wireless electrical stimulation, mechanical stimulation and electrical response recording of cells was proposed. Controlling cell fate by photoexcited radio stimulation of cells on photosensitive films can precisely orchestrate biological activities. This is the first report of combining hydrogenated amorphous silicon (a-Si:H) photosensitive films and a 532 nm green laser for cell stimulation and electrical response recording. Remote wireless electrical stimulation of nerve cells through photoelectric effects based on photosensitive films evoked a change in membrane potential and promoted the neurite growth and neuronal differentiation. These effects were confirmed in a cell model of the human neuroblastoma cell line. The electrical response of cells demonstrated that the photocurrent generated by laser irradiation of the photosensitive film induced a redistribution of ions inside and outside the cell. Furthermore, a mechanical stimulus was applied to cells using a probe placed above them. The chip was used as a signal output to simultaneously obtain the electrical response of cells. The ability of photosensitive films to precisely excite cellular activity offers a novel prospect for wireless electrical stimulation. This work provides a promising strategy for the design of multi-functional biological devices based on a single chip.

Analytical MethodsVol. 17(2)
Changchun University of Science and Technology (CN), University of Bedfordshire (GB)
National Natural Science Foundation of China, Higher Education Discipline Innovation Project, HORIZON EUROPE Framework Programme, National Key Research and Development Program of China
Openalex Percentile: Top 42%
Neuroscience and Neural Engineering
0.27
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