Self-Driven, Stretchable Drug Delivery Electronics for Acne Treatment

  • Yiming Liu*
  • , Xingcan Huang
  • , Qiang Zhang
  • , Wooyoung Park
  • , Jinpei Wang
  • , Jingyou Su
  • , Zhao Zhao
  • , Xue Wang
  • , Miao Kong
  • , Mingxiu Lv
  • , Xinxin He
  • , Jiachen Wang
  • , Shengxin Jia
  • , Chun Ki Yiu
  • , Jianwei Li
  • , Shiyuan Liu
  • , Kenjiro Fukuda
  • , Tomoyuki Yokota
  • , Jianxin Tang
  • , Kangning Ren*
  • Takao Someya*, Chao Zhang*, Xinge Yu*
*Corresponding author for this work

Research output: Contribution to journalJournal articlepeer-review

Abstract

Acne is a common skin condition caused by the blockage of hair follicles, which is often associated with adolescents. Beyond physical discomfort and potential scarring, acne can also result in mental health issues including low self-esteem and anxiety. Among all available medical treatments, topical antibiotics are effective for acne treatment due to their rapid action, anti-inflammatory properties, minimal side effects, and accessibility. However, long-term and continuous use of topical antibiotics will result in serious bacterial resistance. Focusing on this issue, we developed a stretchable, self-driven drug delivery system with clindamycin serving as the antibacterial agent, which is powered by a biocompatible, high-performance magnesium-O2battery. Based on the working principle of ion electrophoresis, the direct current power by the integrated battery is applied onto the self-developed drug layer with clindamycin embedded, realizing controllable delivery of clindamycin along with the ions in the electrolyte to target acne lesions, where the drug delivery rate could be well-adjusted by regulating the power output of the battery. Benefiting from advanced mechanical design and material selection, the entire system is fully stretchable and biocompatible, achieving a stretching rate of up to 100% within the yielding limit. This capability allows it to effectively conform to most human body areas for acne treatment. We further validated the self-driven drug delivery system through in vitro and in vivo experiments, showcasing a feasible acne treatment method that not only extends antibiotic efficacy but also ensures long-term wearability.

Original languageEnglish
Pages (from-to)31740-31752
Number of pages13
JournalACS Nano
Volume19
Issue number35
Early online date28 Aug 2025
DOIs
Publication statusPublished - 9 Sept 2025

User-Defined Keywords

  • acne treatment
  • biocompatible battery
  • drug delivery
  • stretchable battery
  • wearable electronics

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