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12 results about "Focal adhesion" patented technology
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In cell biology, focal adhesions (also cell–matrix adhesions or FAs) are large macromolecular assemblies through which mechanical force and regulatory signals are transmitted between the extracellular matrix (ECM) and an interacting cell. More precisely, focal adhesions are the sub-cellular structures that mediate the regulatory effects (i.e., signaling events) of a cell in response to ECM adhesion.
The formation of scars at a wound site is reduced by contacting the wound site with an effective dose of an inhibitor of focal adhesionkinase (FAK) formulated in a pullulan hydrogel. The release profile of the FAK inhibitor can be adjusted according to the nature of the wound, e.g., excisional wounds, burn wounds, etc.
The invention provides coke and a preparation method thereof, a negative electrode material and a battery. The coke comprises a matrix structure and a sphere-like structure embedded in the matrix structure, in a polarizing microscope image obtained after a single focal particle is subjected to tangent plane treatment and is amplified by 50 times, the area ratio of the spheroidic tissue is greater than or equal to 85%; the average diameter of the spheroidic structure is R [mu] m, the average thickness of the matrix structure is L [mu] m, and the coke satisfies 5 < = R / L < = 30. The coke provided by the invention has high isotropy, rate capability reduction caused by directional arrangement of graphite can be reduced, and the negative electrode material prepared from the coke can have relatively high capacity and excellent rate capability.
The invention relates to the technical field of angiogenesis and healing of diabetic wounds, and discloses a method for promoting angiogenesis and healing of diabetic wounds based on HSP90-CD93 interaction, which comprises the following steps: applying one of an HSP90 agonist, delivering a CD93 overexpression vector or applying a CD93 glycosylationagonist, locally enhancing the HSP90-CD93 interaction on the wound, and promoting the angiogenesis and healing of the diabetic wounds based on the HSP90-CD93 interaction. According to the present invention, with the application of the CD93 in the treatment of diabetes mellitus, the level of the O-linked N-acetyl glucosamine (O-GlcNAc) modification (O-GlcNAc) of the CD93 is maintained so as to activate the downstream FAK signal channel, such that the migration, the adhesion and the angiogenesis of endothelial cells can be effectively promoted, and the wound healing under the diabetes mellitus condition can be ultimately accelerated;
The present invention relates to a new focal adhesionkinase (FAK) inhibitor, and particularly to a compound as represented by formula (I) or a stereoisomer, tautomer or isotopic variant thereof, or a pharmaceutically acceptable salt thereof. The present invention further relates to a pharmaceutical composition containing the FAK inhibitor, and the use thereof in the treatment of FAK-mediated diseases.
Cerebral small vesseldisease (SVD) is a leading cause of stroke and a major contributor to cognitive decline and dementia in the population. Evidences indicate that blood brain barrier dysfunction may play a significant role in VD pathogenesis. Recently, an inverse association of TRIM47 expression in brain and vascular tissues with extensive-SVD severity was reported in a human genome wide association study combined with summary-based Mendelian randomization studies and profiling of human loss-of-function allele carriers. Now, the inventors demonstrate TRIM47 is a key regulator of actincytoskeleton organization through KEAP1 / NRF2 signalling pathway and might be protective from oxidative stress in brain EC. In particular, the in vitro TRIM47 knockdown decreases directed EC migration and delays EC adhesion process with loss of actin cortical reorganization and focal adhesion contacts. Furthermore, RNA sequencing and BioID results indicate that TRIM47 knockdown in brain EC, represses the expression of genes associated with cytoskeleton and NRF2 antioxidant pathway through a potential interaction with KEAP1. Accordingly, the present invention relates to the use of Nrf2 activators for the treatment of SVD.