Bioelectronics is a growing field where novel smart materials are required to interface biology with electronic components. Conductive hydrogels have recently emerged as a promising material for biosensing/actuating applications as
Biomimetic scaffolds that provide a tissue-specific environment to cells are particularly promising for tissue engineering and regenerative medicine applications. The goal of this study was to integrate emerging additive manufacturing
Infection of bone defects is a common clinical problem that negatively impacts bone repair and may result in the development of antibiotic resistance due to the long-term use of antibiotics.
While organoid differentiation protocols have been widely developed, local control of initial cell seeding position and imaging of large-scale organoid samples with high resolution remain challenging. 3D bioprinting is an
This paper describes the use of silk protein, including fibroin and sericin, from an alkaline solution of Ca(OH)2 for the clean degumming of silk, which is neutralized by sulfuric acid to
A three-dimensional (3D) bioprinted tissue scaffold is a promising therapeutic that goes beyond providing physical support for tissue regeneration by enabling precise spatial control over scaffold geometry and integration of
Bioprinting facilitates the generation of complex, three-dimensional (3D), cell-based constructs for a variety of applications. Although multiple bioprinting technologies have been developed, extrusion-based systems have become the dominant technology due
This work addresses two major challenges of MXene-based printing; that is, its low printing resolution (i.e., filament spreading > 120%) and its inability to create structures with simultaneously high electrical
Drug delivery with customized combinations of drugs, controllable drug dosage, and on-demand release kinetics is critical for personalized medicine. In this study, inspired by successive opening of layered structures and
3D bioprinting technique renders a plausible solution to tissue engineering applications, mainly bone tissue regeneration, which could provide the microenvironment with desired physical, chemical, and mechanical properties. However, the mechanical and
One significant drawback of existing bioprinted tissues is their lack of shelf availability, caused by complications in both fabrication and storage. Here, we report a cryobioprinting strategy for simultaneously fabricating
3D printing techniques allow for fabricating accurate structured and complex parts, designed via computer-aided design (CAD). In this research, we introduce extrusion 3D printing of optically transparent, high-water-content (96%) hydrogels
