Non-spherical oscillations drive the ultrasound-mediated release from targeted microbubbles

Guillaume Lajoinie, Ying Luan, Erik Gelderblom, Benjamin Dollet, Frits Mastik, Heleen Dewitte, Ine Lentacker, Nico de Jong, Michel Versluis (Corresponding Author)

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Abstract

Ultrasound-driven microbubbles are attractive for a variety of applications in medicine, including real-time organ perfusion imaging and targeted molecular imaging. In ultrasound-mediated drug delivery, bubbles decorated with a functional payload become convenient transport vehicles and offer highly localized release. How to efficiently release and transport these nanomedicines to the target site remains unclear owing to the microscopic length scales and nanoseconds timescales of the process. Here, we show theoretically how non-spherical bubble oscillations lead first to local oversaturation, thereby inducing payload release, and then to microstreaming generation that initiates transport. Experimental validation is achieved through ultra-high-speed imaging in an unconventional side-view at tens of nanoseconds timescales combined with high-speed fluorescence imaging to track the release of the payload. Transport distance and intrinsic bubble behavior are quantified and agree well with the model. These results will allow for optimizing the therapeutic use of targeted microbubbles for precision medicine.
Original languageEnglish
Article number22
Number of pages9
JournalCommunications Physics
Volume1
DOIs
Publication statusPublished - 31 May 2018

Cite this

Lajoinie, Guillaume ; Luan, Ying ; Gelderblom, Erik ; Dollet, Benjamin ; Mastik, Frits ; Dewitte, Heleen ; Lentacker, Ine ; de Jong, Nico ; Versluis, Michel. / Non-spherical oscillations drive the ultrasound-mediated release from targeted microbubbles. In: Communications Physics. 2018 ; Vol. 1.
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abstract = "Ultrasound-driven microbubbles are attractive for a variety of applications in medicine, including real-time organ perfusion imaging and targeted molecular imaging. In ultrasound-mediated drug delivery, bubbles decorated with a functional payload become convenient transport vehicles and offer highly localized release. How to efficiently release and transport these nanomedicines to the target site remains unclear owing to the microscopic length scales and nanoseconds timescales of the process. Here, we show theoretically how non-spherical bubble oscillations lead first to local oversaturation, thereby inducing payload release, and then to microstreaming generation that initiates transport. Experimental validation is achieved through ultra-high-speed imaging in an unconventional side-view at tens of nanoseconds timescales combined with high-speed fluorescence imaging to track the release of the payload. Transport distance and intrinsic bubble behavior are quantified and agree well with the model. These results will allow for optimizing the therapeutic use of targeted microbubbles for precision medicine.",
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Non-spherical oscillations drive the ultrasound-mediated release from targeted microbubbles. / Lajoinie, Guillaume; Luan, Ying; Gelderblom, Erik; Dollet, Benjamin; Mastik, Frits; Dewitte, Heleen; Lentacker, Ine; de Jong, Nico; Versluis, Michel (Corresponding Author).

In: Communications Physics, Vol. 1, 22, 31.05.2018.

Research output: Contribution to journalArticleAcademicpeer-review

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AU - Versluis, Michel

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