Bone consists of microcrystalline hydroxyapatite and collagen, an elastic protein matrix that is decorated with mineral-nucleating phosphoproteins. Our rational design of artificial bone-like material uses natural bone as a guide. Hydrogel and self-assembling polymers that possess anionic groups suitably positioned for nucleating biominerals, and therefore mimic the natural function of the collagen-phosphoprotein matrix in bone, were designed to direct template-driven biomimetic mineralization of hydroxyapatite. The monomer library synthesis, hydrogel and self-assembling polymer formation and structural characterization of polymer scaffolds on both micro- and nano-levels are presented
Biomineralization is a complex ensemble of concomitant phenomena, driving the development of vertebr...
The intercellular material in bone is a nanocomposite of aligned “hard” inorganics—calcium phosphate...
By mimicking Nature, we can design and synthesize inorganic smart materials that are reactive to bio...
The controlled integration of organic and inorganic components confers natural bone with superior me...
The controlled integration of organic and inorganic components confers natural bone with superior m...
Various kinds of three-dimensional (3D) scaffolds have been designed to mimic the biological spontan...
Recently the replacement of bone tissue by graft materials and products of tissue engineering with c...
The use of insoluble organic matrices as a structural template for the bottom-up fabrication of orga...
When illness or trauma results in bone non-union that surpasses the self-regenerative capacity of ti...
As a first step toward the design and fabrication of biomimetic bonelike composite materials, we hav...
[[abstract]]In this research we utilize three polymers, including collagen, diblock PEG-PLGA copolym...
Hydrogels are an important class of highly hydrated polymers that are widely investigated for potent...
Synthetic substitutes of bone grafts, such as calcium phosphate-based ceramics, have shown some good...
The nanostructure of bone has been replicated using a polymer-induced liquid-precursor (PILP) minera...
Three-dimensional (3D) biomimetic mineralization is highly desired for soft biomaterials such as col...
Biomineralization is a complex ensemble of concomitant phenomena, driving the development of vertebr...
The intercellular material in bone is a nanocomposite of aligned “hard” inorganics—calcium phosphate...
By mimicking Nature, we can design and synthesize inorganic smart materials that are reactive to bio...
The controlled integration of organic and inorganic components confers natural bone with superior me...
The controlled integration of organic and inorganic components confers natural bone with superior m...
Various kinds of three-dimensional (3D) scaffolds have been designed to mimic the biological spontan...
Recently the replacement of bone tissue by graft materials and products of tissue engineering with c...
The use of insoluble organic matrices as a structural template for the bottom-up fabrication of orga...
When illness or trauma results in bone non-union that surpasses the self-regenerative capacity of ti...
As a first step toward the design and fabrication of biomimetic bonelike composite materials, we hav...
[[abstract]]In this research we utilize three polymers, including collagen, diblock PEG-PLGA copolym...
Hydrogels are an important class of highly hydrated polymers that are widely investigated for potent...
Synthetic substitutes of bone grafts, such as calcium phosphate-based ceramics, have shown some good...
The nanostructure of bone has been replicated using a polymer-induced liquid-precursor (PILP) minera...
Three-dimensional (3D) biomimetic mineralization is highly desired for soft biomaterials such as col...
Biomineralization is a complex ensemble of concomitant phenomena, driving the development of vertebr...
The intercellular material in bone is a nanocomposite of aligned “hard” inorganics—calcium phosphate...
By mimicking Nature, we can design and synthesize inorganic smart materials that are reactive to bio...