Osteogenic peptides have been reported as highly effective in directing mesenchymal stem
cell osteogenic differentiation in vitro and bone formation in vivo. Therefore, developing …

Abstract Three-dimensional (3D) printing has been increasingly employed to produce
advanced bone tissue engineering scaffolds with biomimetic structures and matched …

One of the goals of bone tissue engineering is to create scaffolds with well-defined, inter-
connected pores, excellent biocompatibility and osteoinductive ability. Three-dimensional …

The recently developed three‐dimensional (3D) graphene foam (GrF) is intriguing for
potential bone tissue engineering applications because it provides stem cells with a 3D …

Compared to other conventional scaffold fabrication techniques, three-dimensional (3D)
printing is advantageous in producing bone tissue engineering scaffolds with customized …

In bone tissue engineering, the 3D macro-scaffold plays an indispensable role as a matrix
for cell proliferation, differentiation and tissue formation, for which a bioactive surface is …

Defects in bone are some of the most difficult injuries to treat. Biomimetic scaffolds represent
a promising approach for successful bone tissue regeneration. In this study, a three …

Tumor resection is widely used to prevent tumor growth. However, the defected tissue at the
original tumor site also causes tissue or organ dysfunction which lowers the patient's life …

Since many complex physiological processes are controlled by multiple biomolecules,
comprehensive regulation of bone tissue regeneration may be more effectively achieved by …

Reconstructing extensive cranial defects represents a persistent clinical challenge. Here, we
reported a hybrid three-dimensional (3D) printed scaffold with modification of QK peptide …