Microneedles integrated with a triboelectric nanogenerator: an electrically active drug delivery system

In this study, a combined system of microneedles and a triboelectric nanogenerator (TENG) has been developed for drug delivery. A triboelectric device, which converts mechanical energy into alternating current (AC), was chosen to replace the electrophoresis (EP) effect. To directly generate triboele...

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Veröffentlicht in:Nanoscale 2018-07, Vol.1 (28), p.1352-1351
Hauptverfasser: Bok, Moonjeong, Lee, Yunwoo, Park, Daehoon, Shin, Sangho, Zhao, Zhi-Jun, Hwang, Boyeon, Hwang, Soon Hyoung, Jeon, So Hee, Jung, Joo-Yun, Park, Sung Ha, Nah, Junghyo, Lim, Eunju, Jeong, Jun-Ho
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container_end_page 1351
container_issue 28
container_start_page 1352
container_title Nanoscale
container_volume 1
creator Bok, Moonjeong
Lee, Yunwoo
Park, Daehoon
Shin, Sangho
Zhao, Zhi-Jun
Hwang, Boyeon
Hwang, Soon Hyoung
Jeon, So Hee
Jung, Joo-Yun
Park, Sung Ha
Nah, Junghyo
Lim, Eunju
Jeong, Jun-Ho
description In this study, a combined system of microneedles and a triboelectric nanogenerator (TENG) has been developed for drug delivery. A triboelectric device, which converts mechanical energy into alternating current (AC), was chosen to replace the electrophoresis (EP) effect. To directly generate triboelectricity from salmon deoxyribonucleic acid (SDNA)-based microneedles, a triboelectric series of SDNA film and chargeable polymers (polyimide and Teflon) was studied. The electrical output of the two charged polymers was compared to find a material that could be highly charged with SDNA. The electrical output was also compared as a function of the concentration of a drug embedded in the SDNA film, and the results confirmed that drug intercalation affected the carrier diffusion. The mechanical strength of the microneedles was assessed by histological analysis of their penetration into porcine cadaver skin. Furthermore, the output voltage of a system incorporating microneedles and TENG in cadaver skin, and in vitro drug release into gelatin were evaluated to examine potential application as an electrically active drug delivery system. The electrical output voltage of this system was ∼95 V. The mechanism of triboelectric perturbation to the skin has also been discussed. The system developed in this work is a new, facile approach toward effective drug delivery that replaces the existing EP method and expands the application of TENGs. A combined system of microneedles and a triboelectric nanogenerator (TENG) was designed and utilized as a portable electrically active drug delivery device.
doi_str_mv 10.1039/c8nr02192a
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A triboelectric device, which converts mechanical energy into alternating current (AC), was chosen to replace the electrophoresis (EP) effect. To directly generate triboelectricity from salmon deoxyribonucleic acid (SDNA)-based microneedles, a triboelectric series of SDNA film and chargeable polymers (polyimide and Teflon) was studied. The electrical output of the two charged polymers was compared to find a material that could be highly charged with SDNA. The electrical output was also compared as a function of the concentration of a drug embedded in the SDNA film, and the results confirmed that drug intercalation affected the carrier diffusion. The mechanical strength of the microneedles was assessed by histological analysis of their penetration into porcine cadaver skin. Furthermore, the output voltage of a system incorporating microneedles and TENG in cadaver skin, and in vitro drug release into gelatin were evaluated to examine potential application as an electrically active drug delivery system. The electrical output voltage of this system was ∼95 V. The mechanism of triboelectric perturbation to the skin has also been discussed. The system developed in this work is a new, facile approach toward effective drug delivery that replaces the existing EP method and expands the application of TENGs. 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Furthermore, the output voltage of a system incorporating microneedles and TENG in cadaver skin, and in vitro drug release into gelatin were evaluated to examine potential application as an electrically active drug delivery system. The electrical output voltage of this system was ∼95 V. The mechanism of triboelectric perturbation to the skin has also been discussed. The system developed in this work is a new, facile approach toward effective drug delivery that replaces the existing EP method and expands the application of TENGs. 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source MEDLINE; Royal Society Of Chemistry Journals 2008-
subjects Alternating current
Animals
Cattle
Charging
Deoxyribonucleic acid
DNA
DNA - chemistry
Drug Delivery Systems
Drug Liberation
Electric potential
Electric power generation
Electric Power Supplies
Electricity
Electronics
Electrophoresis
Gelatin
Hypodermic needles
Mechanical Phenomena
Nanogenerators
Nanotechnology
Needles
Polymers
Polytetrafluoroethylene
Salmon
Skin
Swine
title Microneedles integrated with a triboelectric nanogenerator: an electrically active drug delivery system
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