journal article·2018-09Open access

Depth-controlled laser-induced jet injection for direct three-dimensional liquid delivery

Paul Delrot, Sylvain P. Hauser, Jan Krizek, Christophe Moser

Applied Physics A· Volume 124· Issue 9

Abstract

Needle-free jet injection enables the delivery of drugs into skin or soft tissue by puncturing them with a high-velocity liquid jet. However, precise and efficient drug delivery requires generating such liquid jets with both a controlled velocity and a high throughput, which remains challenging with current spring- and gas-actuated jet injectors. Here, we propose a depth-controlled and high-throughput injection method by adapting laser-induced forward transfer (LIFT), a high-resolution two-dimensional printing technique, for direct three-dimensional liquid delivery into soft tissues. The velocity of thin liquid jets is laser actuated from 10 to 85 m/s so that doses as small as 10 pL, not achievable with other injectors, are injected at a 1 Hz repetition rate into a 300 μm thick soft gelatin substrate with a 25 μm depth precision and 12 μm lateral resolution. We further investigate the potential of this liquid delivery technique as a direct three-dimensional cell-delivery vehicle and show that depth-controlled particle delivery requires high-delivery efficiency. Our direct three-dimensional liquid delivery system opens up more possibilities for pinpoint drug delivery in soft tissues or tissue-engineered constructs.
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Research context

OpenAlex topics: 3D Printing in Biomedical Research · Innovative Microfluidic and Catalytic Techniques Innovation · Electrohydrodynamics and Fluid Dynamics

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