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In this study, we present a flexible liquid-diode microtube designed specifically for directional liquid transport in closed spaces, achieved through microfluidics.

We report the a hemeline-shaped microfiber and demonstrate its liquid manipulation abilities.

We have employed a pulse-generating microfluidic system to generate complex flow configurations and fabricate jellyfish-like microparticles.

We present the desired GO hybrid hydrogels and investigated their values in wound healing. The hydrogels were printed into 3D scaffolds through a glass capillary microfluidic 3D printing technique by injecting GO-incorporated benzaldehyde and cyanoacetate group-functionalized dextran mixed solution into the histidine solutions.

We present a microcapsule system encapsulated with a three-dimensional (3D) GO scaffold inside as a highperformance sulfur host.

We present microfluidic-derived stimuli-responsive spindle-knotted fibers for droplet manipulation

we present a capillary-assembled microfluidic printing strategy to prepare the desired MX-HF scaffolds for promoting vascularization and skin flap regeneration.

We utilized a double-channel microfluidic setup to prepare magnetic Janus reduced graphene oxide/carbon (rGO/C) composite microspheres.

We proposed a piezoelectric microfluidic strategy for generating microfibers with programmable knotted structures

We believe that cellular fluidics opens a new avenue for fluid control and deterministic delivery, and would find vast opportunities in tissue engineering.