The success of bone substitutes used to repair bone defects such as critical sized defects
depends on the architecture of the porous biomaterial. The architectural parameters and …

Biomaterials in the form of scaffolds hold great promise in the regeneration of diseased
tissues. The scaffolds stimulate cellular adhesion, proliferation and differentiation. While the …

The control of porosity morphology and physico-chemical characteristics of calcium
phosphate bone substitutes is a key-point to guaranty healing success. In this work, micro …

Bone biomaterials play a vital role in bone repair by providing the necessary substrate for
cell adhesion, proliferation, and differentiation and by modulating cell activity and function. In …

Globally, bone fractures due to osteoporosis occur every 20 s in people aged over 50 years.
The significant healthcare costs required to manage this problem are further exacerbated by …

Scaffold‐based bone tissue engineering aims to repair/regenerate bone defects. Such a
treatment concept involves seeding autologous osteogenic cells throughout a …

Bone tissue engineering is a rapidly developing area. Engineering bone typically uses an
artificial extracellular matrix (scaffold), osteoblasts or cells that can become osteoblasts, and …

Pores play a crucial role in bone regeneration as they allow the exchange of nutrition and
oxygen, expulsion of waste products, and bone tissue and vascular ingrowth through the …

Porous polymeric scaffolds play a key role in most tissue-engineering strategies. A series of
non-degrading porous scaffolds was prepared, based on bulk-copolymerisation of 1-vinyl-2 …

High-strength fully porous biomaterials built with additive manufacturing provide an exciting
opportunity for load-bearing orthopedic applications. While factors controlling their …