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Peer-reviewedCC BYPharmaceutics

Electrospun Integrated Janus Nanofibers for Asynchronous Delivery of Finasteride and Tibetan Medicine

  1. 1School of Health Science and Engineering, University of Shanghai for Science and Technology, Shanghai 200093, China

Abstract

Background: Simultaneous controlled release of multiple therapeutics from a single dosage form is a major frontier in modern pharmaceutics and a key strategy for modernizing traditional Chinese medicine. Methods: Using finasteride (FIN) and a Jing-Zhu hybrid Tibetan (JZ) herbal medicine as model agents for prostatitis therapy, we developed a modified tri-fluid electrospinning process to fabricate drug-co-loaded Janus medicated nanofibers. Soluble polyvinylpyrrolidone (PVP) and insoluble ethylcellulose (EC) served as carrier matrices for the dual faces of the Janus architecture, encapsulating JZ herbal medicine and FIN, respectively. A custom-designed spinneret—comprising two parallel stainless steel tubes nested within a plastic sheath—was engineered to enable side-by-side fiber formation. Results: Scanning and transmission electron microscopy confirmed linear morphologies with a definitive side-by-side Janus structure. X-ray diffraction and Fourier Transform Infrared Spectroscopy revealed that all active ingredients were dispersed in an amorphous state, reflecting polymer–drug compatibility. Encapsulation efficiencies reached 96.34 ± 0.47% for FIN and 94.15 ± 0.48% for JZ herbal medicine. A newly devised water-droplet assay demonstrated that almost all the nanofibers exhibited the intended side-by-side configuration, as evidenced by the rapid dissolution of the PVP side. In vitro release studies showed an initial pulsatile burst of JZ herbal medicine followed by a sustained FIN release profile, as suggested by the single-drug-loaded Janus nanofibrous controls. Conclusions: The present Janus nanostructure system, fabricated via a facile co-shell solvent electrospinning process, has the potential to enable the concurrent yet asynchronous delivery of FIN and JZ herbal components within a single nano-dosage form. This conceptual advance expands the toolkit for designing combination nanomedicines, allowing independent modulation of release kinetics for individual drugs to maximize prospective joint efficacy.

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BibTeX
@article{wang2026electrospun,
  title = {{Electrospun Integrated Janus Nanofibers for Asynchronous Delivery of Finasteride and Tibetan Medicine}},
  author = {Qilin Wang and Tingyu Chen and Hailong Dou and Deng‐Guang Yu},
  journal = {Pharmaceutics},
  year = {2026},
  month = sep,
  doi = {10.3390/pharmaceutics18091160},
  url = {https://doi.org/10.3390/pharmaceutics18091160},
  note = {CC BY},
}
RIS
TY  - JOUR
TI  - Electrospun Integrated Janus Nanofibers for Asynchronous Delivery of Finasteride and Tibetan Medicine
AU  - Qilin Wang
AU  - Tingyu Chen
AU  - Hailong Dou
AU  - Deng‐Guang Yu
PY  - 2026
DA  - 2026/09/15
JO  - Pharmaceutics
DO  - 10.3390/pharmaceutics18091160
UR  - https://doi.org/10.3390/pharmaceutics18091160
AB  - Background: Simultaneous controlled release of multiple therapeutics from a single dosage form is a major frontier in modern pharmaceutics and a key strategy for modernizing traditional Chinese medicine. Methods: Using finasteride (FIN) and a Jing-Zhu hybrid Tibetan (JZ) herbal medicine as model agents for prostatitis therapy, we developed a modified tri-fluid electrospinning process to fabricate drug-co-loaded Janus medicated nanofibers. Soluble polyvinylpyrrolidone (PVP) and insoluble ethylcellulose (EC) served as carrier matrices for the dual faces of the Janus architecture, encapsulating JZ herbal medicine and FIN, respectively. A custom-designed spinneret—comprising two parallel stainless steel tubes nested within a plastic sheath—was engineered to enable side-by-side fiber formation. Results: Scanning and transmission electron microscopy confirmed linear morphologies with a definitive side-by-side Janus structure. X-ray diffraction and Fourier Transform Infrared Spectroscopy revealed that all active ingredients were dispersed in an amorphous state, reflecting polymer–drug compatibility. Encapsulation efficiencies reached 96.34 ± 0.47% for FIN and 94.15 ± 0.48% for JZ herbal medicine. A newly devised water-droplet assay demonstrated that almost all the nanofibers exhibited the intended side-by-side configuration, as evidenced by the rapid dissolution of the PVP side. In vitro release studies showed an initial pulsatile burst of JZ herbal medicine followed by a sustained FIN release profile, as suggested by the single-drug-loaded Janus nanofibrous controls. Conclusions: The present Janus nanostructure system, fabricated via a facile co-shell solvent electrospinning process, has the potential to enable the concurrent yet asynchronous delivery of FIN and JZ herbal components within a single nano-dosage form. This conceptual advance expands the toolkit for designing combination nanomedicines, allowing independent modulation of release kinetics for individual drugs to maximize prospective joint efficacy.
SN  - 1999-4923
ER  -