Microscale fibrous materials with high surface areas and ordered structures have attracted
widespread attention recently. Microfluidic spinning technology that can effectively control …

Microfibers, a type of long, thin, and flexible material, can be assembled into functional 3D
structures by folding, binding, and weaving. As a novel spinning method, combining …

Microfluidic technologies have recently been shown to hold significant potential as novel
tools for producing micro-and nano-scale structures for a variety of applications in tissue …

Shape characteristics, which include the physical dimensions (scale), apparent morphology,
surface features, and structure, are essential factors of fibrous materials and determine many …

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 …

A novel and simple chip-based microfluidic strategy is proposed for continuously controlled
spinning of desirable hollow microfibers. These fabricated fiber-shaped materials exhibit …

Food-derived fiber materials are receiving significant attention due to their excellent
biocompatibility and degradability. However, traditional spinning methods like melt spinning …

Micro-or nanofiber-based materials have extensive applications in biomedical fields due to
their capability to mimic many aspects of physiological microenvironment in vivo. Fabricating …

Functional polymeric micro-/nanofibers have emerged as promising materials for the
construction of structures potentially useful in biomedical fields. Among all kinds of …