In the present work, bone-like nanocomposites have been successfully synthesized based
on the mineralization of self-assembled protein-based microgels. Such mircogels were …

The assembly of carbon nanomaterials into three‐dimensional (3D) porous scaffolds is
critical to harness their unique physiochemical properties for tissue engineering and …

Graphene-contained calcium silicate (CS)/polycaprolactone (PCL) scaffold (GCP) provides
an alternative solution that can bring several bone formation properties, such as …

Tissue engineering is an emerging technological field that aims to restore and replace
human tissues. A significant number of individuals require bone replacement annually as a …

Tissue‐engineered hydrogels have received extensive attention as their mechanical
properties, chemical compositions, and biological signals can be dynamically modified for …

The aim of this work was to develop a complex-shaped gelatin–gellan composite scaffold
with multiscale porosity using a combination of cryogenic 3D printing and lyophilization for …

Synthetic nanostructured materials incorporating both organic and inorganic components
offer a unique, powerful, and versatile class of materials for widespread applications due to …

The main goal of bone tissue engineering (BTE) is to refine and repair major bone defects
based on bioactive biomaterials with distinct properties that can induce and support bone …

To date, tissue engineering and regenerative medicine have been substantially advanced
using bioactive functional nanomaterials. Having capitalized on various safe and …

Successful regeneration of load-bearing bone defects remains a major challenge in clinical
orthopaedics. Designing biologically active 3-dimensional scaffolds possessing …