Abstract Three-dimensional (3D) bioprinting enables a controlled deposition of cells,
biomaterials, and biological compounds (ie, bioinks) to build complex 3D biological models …

Abstract Three-dimensional (3D) printing is becoming a booming technology to fabricate
scaffolds, orthoses, and prosthetic devices for tissue engineering, regenerative medicine …

Abstract Three-dimensional (3D) bioprinting strategies use computer-aided processes to
enable automated simultaneous spatial patterning of cells and/or biomaterials. These …

Tissue engineering provides a promising strategy for auricular reconstruction. Although the
first international clinical breakthrough of tissue-engineered auricular reconstruction has …

Biopolymers are widely available, low-/nontoxic, biodegradable, biocompatible, chemically
versatile, and inherently functional, making them highly potential for a broad range of …

Abstract 3D bioprinting offers an excellent opportunity to provide tissue-engineered cartilage
to microtia patients. However, hydrogel-based bioinks are hindered by their dense and cell …

Bioprinting specific tissues with robust viability is a great challenge, requiring a delicate
balance between a densely cellular distribution and hydrogel network crosslinking density …

Zwitterionic hydrogels have high potential for cartilage tissue engineering due to their ultra‐
hydrophilicity, nonimmunogenicity, and superior antifouling properties. However, their …

Abstract Three‐dimensional (3D) bioprinting, which is being increasingly used in tissue
engineering, requires bioinks with tunable mechanical properties, biological activities, and …

Microtia is a congenital disorder that manifests as a malformation of the external ear leading
to psychosocial problems in affected children. Here, we present a tissue-engineered …