Примеры использования Silk fibroin на Английском языке и их переводы на Русский язык
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Silk fibroin was taken from silkworm B.
We obtained 4 types of films based on silk fibroin of silkworm B.
Keywords: silk fibroin; collagen; biodegradable films.
Fibrous membranes of polylactide-co-glycolide and silk fibroin are hydrophilic.
Purified silk fibroin was air-dried at room temperature.
The aim of the investigation was to study the mechanical andbiological properties of silk fibroin silkworm B.
Keywords: silk fibroin; spidroin; bioengineering constructs; regenerative medicine.
This technique is applicable to different polymers including silk fibroin, polyglycolic acid and polylactide 107.
Silk fibroin scaffold structure; the images of silk fibroin fibers obtained by.
The image of 3Т3 line fibroblasts on silk fibroin scaffolds obtained by confocal scanning microscopy.
Matrices of silk fibroin containing a mechanical growth factor, transforming growth factor and stem cells can contribute to the regeneration of articular cartilage in situ 130.
One of universal materials used as a scaffold component is silk fibroin of silkworm Bombyx mori.
Matrices of silk fibroin with hydroxyapatite have been used for the adhesion and proliferation of MG-63 osteocarcinoma cells.
The investigators noted that the ability to contribute to spondyloarthrosis was increased when mineralized silk fibroin was cultivated with bone marrow stromal cells 129.
Silkworm Bombyx mori silk fibroin is one of the most prospective nature polymers for tissue engineering.
In vivo experiments with the subcutaneous implantation of such matrices into mice have shown the high degree of biodegradability of constructions of silk fibroin and their ability to undergo neovascularization 116.
Nanospheres consisting of silk fibroin and nanodiamonds can be used as carriers of drugs for example, doxorubicin.
Silk fibroin and spidroin are shown to be applied for creation of 3D matrices promoting regeneration of damaged organs and tissues, biodegradable cell carriers and pharmaceutical preparations.
More than two hundred different polymers including silk fibroin[108], collagen[109], chitosan[110] and gelatin[111] are suitable for use with this method.
Matrices from silk fibroin were tested on experimental animal models as a means of restoration of the bladder and urethra.
The fabricated scaffolds were based on two polymers: silk fibroin and gelatin and fibroin-gelatin blend in different ratios.
Mineralized silk fibroin resembles natural bone in structure, the cellular and mineral layers of fibroin being crucial for regeneration of the bone tissue.
Matrices of strontium-doped calcium polyphosphate, with the addition of dopamine and silk fibroin, implanted in vivo effectively accelerate the process of mineralization and the regeneration of new bone tissue in rabbits.
Matrices of silk fibroin and chitosan with the addition of vascular endothelial growth factor contribute to the proliferation and activity of embryonic human osteoblasts 124.
A tissue-engineered nerve channel matrix based on silk fibroin and collagen was created to co-cultivate seed cell material using Schwann cells and adipose stem cells.
At the same time, silk fibroin is characterized by unique mechanical properties; however, cell proliferative activity on silk fibroin scaffolds is lower than that on gelatin constructions 26, 27.
Membranes of biologically active glass and silk fibroin can maintain cell proliferation and affect the odontoblastic differentiation of dental stem cells from human tooth pulp.
Fibrous hydrogels of silk fibroin and sodium alginate enable crystals of hydroxyapatite to be obtained, having the required morphology for restoring bone tissue 125.
Tubular matrices from silk fibroin formed by electrospinning can be used for the regeneration of small-diameter blood vessels.
Biodegradable rods of silk fibroin are promising biocompatible structures for the storage and delivery of anastrozole for treating breast cancer.