Sono-mechanical nanostructures-enabled sustained precise ultrasound brain stimulation

Ultrasound can enable deep brain neuromodulation with high spatiotemporal resolution, comparable to well-known modalities like TMS, tDCS, and tACS. However, conventional transcranial ultrasound still lacks the precision needed to modulate a small set of neurons. Here, we introduce hollow silica nanostructures (HSN) that localize and amplify ultrasonic effects for long-term neuromodulation in male mice brains (>9 weeks) by activating mechanosensitive ion channels. By controlling the HSN amount and delivery site, ultrasound can selectively activate targeted brain regions, including M1, striatum, VTA, and STN, at time points ranging from days to weeks, and relieve PD motor symptoms in mice models, without evident toxicity. Overall, our stimulation approach offers a safe, minimally-invasive strategy for effective chronic neuromodulation without genetic modification, with notable therapeutic applications.

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Publication Details

Journal
Nature Communications
Published
2026-02-23
DOI
https://doi.org/10.1038/s41467-026-69710-8
Primary Topic
Ultrasound and Hyperthermia Applications
Type
article
Field-Weighted Citation Impact
0.00

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article

Sono-mechanical nanostructures-enabled sustained precise ultrasound brain stimulation

Xuandi Hou, Jianing Jing, Zhuohan Shi, Yizhou Jiang et al.
Nature Communications
Ultrasound and Hyperthermia Applications
article

Sono-mechanical nanostructures-enabled sustained precise ultrasound brain stimulation

Xuandi Hou, Jianing Jing, Zhuohan Shi, Yizhou Jiang, Lei Sun
article en

Abstract

Ultrasound can enable deep brain neuromodulation with high spatiotemporal resolution, comparable to well-known modalities like TMS, tDCS, and tACS. However, conventional transcranial ultrasound still lacks the precision needed to modulate a small set of neurons. Here, we introduce hollow silica nanostructures (HSN) that localize and amplify ultrasonic effects for long-term neuromodulation in male mice brains (>9 weeks) by activating mechanosensitive ion channels. By controlling the HSN amount and delivery site, ultrasound can selectively activate targeted brain regions, including M1, striatum, VTA, and STN, at time points ranging from days to weeks, and relieve PD motor symptoms in mice models, without evident toxicity. Overall, our stimulation approach offers a safe, minimally-invasive strategy for effective chronic neuromodulation without genetic modification, with notable therapeutic applications.

Nature Communications
Hong Kong Polytechnic University (HK)
Hong Kong Polytechnic University, National Key Research and Development Program of China
Openalex Percentile: Top 47%
Ultrasound and Hyperthermia Applications
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