Focused ultrasound neuromodulation on a multiwell MEA.

Marta Saccher, Shinnosuke Kawasaki, Martina Proietti Onori, Geeske M van Woerden, Vasiliki Giagka, Ronald Dekker
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Abstract

Background: Microelectrode arrays (MEA) enable the measurement and stimulation of the electrical activity of cultured cells. The integration of other neuromodulation methods will significantly enhance the application range of MEAs to study their effects on neurons. A neuromodulation method that is recently gaining more attention is focused ultrasound neuromodulation (FUS), which has the potential to treat neurological disorders reversibly and precisely.

Methods: In this work, we present the integration of a focused ultrasound delivery system with a multiwell MEA plate.

Results: The ultrasound delivery system was characterised by ultrasound pressure measurements, and the integration with the MEA plate was modelled with finite-element simulations of acoustic field parameters. The results of the simulations were validated with experimental visualisation of the ultrasound field with Schlieren imaging. In addition, the system was tested on a murine primary hippocampal neuron culture, showing that ultrasound can influence the activity of the neurons.

Conclusions: Our system was demonstrated to be suitable for studying the effect of focused ultrasound on neuronal cultures. The system allows reproducible experiments across the wells due to its robustness and simplicity of operation.

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在多孔 MEA 上进行聚焦超声神经调制。
背景:微电极阵列(MEA)可以测量和刺激培养细胞的电活动。整合其他神经调控方法将大大提高微电极阵列的应用范围,以研究其对神经元的影响。聚焦超声神经调控(FUS)是近来受到越来越多关注的一种神经调控方法,它具有可逆和精确治疗神经系统疾病的潜力:在这项工作中,我们介绍了聚焦超声传输系统与多孔 MEA 板的整合:结果:通过超声压力测量确定了超声输送系统的特性,并通过声场参数的有限元模拟对与 MEA 板的集成进行了建模。模拟结果与利用 Schlieren 成像对超声场进行的实验可视化进行了验证。此外,该系统还在小鼠原代海马神经元培养物上进行了测试,结果表明超声波可以影响神经元的活动:结论:我们的系统被证明适用于研究聚焦超声对神经元培养的影响。该系统坚固耐用、操作简单,可在各孔中进行重复实验。
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CiteScore
6.90
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0
审稿时长
8 weeks
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