A pro‐reparative bioelectronic device for controlled delivery of ions and biomolecules

Author:

Asefifeyzabadi Narges1ORCID,Nguyen Tiffany1,Li Houpu1,Zhu Kan2,Yang Hsin‐ya3ORCID,Baniya Prabhat1,Medina Lopez Andrea3,Gallegos Anthony3,Hsieh Hao‐Chieh1,Dechiraju Harika1,Hernandez Cristian1,Schorger Kaelan1,Recendez Cynthia2,Tebyani Maryam1ORCID,Selberg John1,Luo Le1,Muzzy Elana1,Hsieh Cathleen14,Barbee Alexie1,Orozco Jonathan15,Alhamo Moyasar A.3,Levin Michael6ORCID,Aslankoohi Elham1,Gomez Marcella7,Zhao Min23ORCID,Teodorescu Mircea1,Isseroff Roslyn Rivkah38ORCID,Rolandi Marco1

Affiliation:

1. Department of Electrical and Computer Engineering University of California Santa Cruz Santa Cruz California USA

2. Department of Ophthalmology, School of Medicine University of California Davis Davis California USA

3. Department of Dermatology, School of Medicine University of California Davis Davis California USA

4. Department of Chemistry and Biochemistry University of California Santa Cruz California Santa Cruz USA

5. Department of Economics University of California Santa Cruz Santa Cruz, California USA

6. Department of Biology Tufts University Medford Massachusetts USA

7. Department of Applied Mathematics University of California Santa Cruz Santa Cruz California USA

8. Dermatology Section VA Northern California Health Care System Mather California USA

Abstract

AbstractWound healing is a complex physiological process that requires precise control and modulation of many parameters. Therapeutic ion and biomolecule delivery has the capability to regulate the wound healing process beneficially. However, achieving controlled delivery through a compact device with the ability to deliver multiple therapeutic species can be a challenge. Bioelectronic devices have emerged as a promising approach for therapeutic delivery. Here, we present a pro‐reparative bioelectronic device designed to deliver ions and biomolecules for wound healing applications. The device incorporates ion pumps for the targeted delivery of H+ and zolmitriptan to the wound site. In vivo studies using a mouse model further validated the device's potential for modulating the wound environment via H+ delivery that decreased M1/M2 macrophage ratios. Overall, this bioelectronic ion pump demonstrates potential for accelerating wound healing via targeted and controlled delivery of therapeutic agents to wounds. Continued optimization and development of this device could not only lead to significant advancements in tissue repair and wound healing strategies but also reveal new physiological information about the dynamic wound environment.

Funder

Defense Advanced Research Projects Agency

Publisher

Wiley

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