Study demonstrates benefits of microfluidic technology for uniform porous microspheres as cell scaffolds, highlighting their biocompatibility.
Regenerative medicine has emerged as a promising field to address tissue damage and organ failure, with porous microspheres playing a crucial role as cell carriers in tissue engineering applications. However, conventional fabrication methods often result in heterogeneous size distributions and poorly controlled pore structures, limiting their effectiveness. This study leverages microfluidic technology to overcome these challenges and develop uniform poly (L-lactic acid) (PLLA) porous microspheres. We comprehensively evaluate their physical and biological properties, including morphology, size distribution, pore structure, and biocompatibility. Through long-term culture experiments, we investigated the microspheres' capacity to support cell growth and proliferation, demonstrating their effectiveness as cell scaffolds. Our research provides valuable insights into the potential of microfluidic-produced PLLA porous microspheres and its further translational medicine.
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Hu et al. (2025) studied this question.
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