Superfine multifunctional micro/nanoscale fibrous materials with high surface area and
ordered structure have attracted intensive attention for widespread applications in recent …

Besides the conventional fiber production methods, microfluidics has emerged as a
promising approach for the engineered spinning of fibrous materials and offers excellent …

The goal of drug delivery is to ensure that therapeutic molecules reach the intended target
organ or tissue, such that the effectiveness of the drug is maximized. The efficiency of a drug …

Fibrous scaffolds have shown promise in tissue engineering due to their ability to improve
cell alignment and migration. In this paper, poly (ε-caprolactone)(PCL) fibers are fabricated …

Micro/nanomaterial-based drug and cell delivery systems play an important role in
biomedical fields for their injectability and targeting. Microfluidics is a rapidly developing …

Biomaterials are essential for the development of innovative biomedical and therapeutic
applications. Biomaterials‐based scaffolds can influence directed cell differentiation to …

Encapsulating cells within microfibers allows for immobilization with a high degree of spatial-
temporal control. Furthermore, microfluidic encapsulation allows for the continuous creation …

Microfibers have received much attention due to their promise for creating flexible and highly
relevant tissue models for use in biomedical applications such as 3D cell culture, tissue …

Microfluidically manufacturing graphene-alginate microfibers create possibilities for
encapsulating rat neural cells within conductive 3D tissue scaffolding to enable the creation …

Bow tie-shaped fibers and spherical microparticles with controlled dimensions and shapes
were fabricated with poly (ethylene glycol) diacrylate hydrogel utilizing hydrodynamic shear …