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400 results about "Laminin" patented technology

Laminins are high-molecular weight (~400 to ~900 kDa) proteins of the extracellular matrix. They are a major component of the basal lamina (one of the layers of the basement membrane), a protein network foundation for most cells and organs. The laminins are an important and biologically active part of the basal lamina, influencing cell differentiation, migration, and adhesion.

Defined media for stem cell culture

Stem cells, including mammalian, and particularly primate primordial stem cells (pPSCs) such as human embryonic stem cells (hESCs), hold great promise for restoring cell, tissue, and organ function. However, cultivation of stem cells, particularly undifferentiated hESCs, in serum-free, feeder-free, and conditioned-medium-free conditions remains crucial for large-scale, uniform production of pluripotent cells for cell-based therapies, as well as for controlling conditions for efficiently directing their lineage-specific differentiation. This instant invention is based on the discovery of the formulation of minimal essential components necessary for maintaining the long-term growth of pPSCs, particularly undifferentiated hESCs. Basic fibroblast growth factor (bFGF), insulin, ascorbic acid, and laminin were identified to be both sufficient and necessary for maintaining hESCs in a healthy self-renewing undifferentiated state capable of both prolonged propagation and then directed differentiation. Having discerned these minimal molecular requirements, conditions that would permit the substitution of poorly-characterized and unspecified biological additives and substrates were derived and optimized with entirely defined constituents, providing a “biologics”-free (i.e., animal-, feeder-, serum-, and conditioned-medium-free) system for the efficient long-term cultivation of pPSCs, particularly pluripotent hESCs. Such culture systems allow the derivation and large-scale production of stem cells such as pPSCs, particularly pluripotent hESCs, in optimal yet well-defined biologics-free culture conditions from which they can be efficiently directed towards a lineage-specific differentiated fate in vitro, and thus are important, for instance, in connection with clinical applications based on stem cell therapy and in drug discovery processes.
Owner:THE BURNHAM INST

Defined media for pluripotent stem cell culture

Stem cells, including mammalian, and particularly primate primordial stem cells (pPSCs) such as human embryonic stem cells (hESCs), hold great promise for restoring cell, tissue, and organ function. However, cultivation of stem cells, particularly undifferentiated hESCs, in serum-free, feeder-free, and conditioned-medium-free conditions remains crucial for large-scale, uniform production of pluripotent cells for cell-based therapies, as well as for controlling conditions for efficiently directing their lineage-specific differentiation. This instant invention is based on the discovery of the formulation of minimal essential components necessary for maintaining the long-term growth of pPSCs, particularly undifferentiated hESCs. Basic fibroblast growth factor (bFGF), insulin, ascorbic acid, and laminin were identified to be both sufficient and necessary for maintaining hESCs in a healthy self-renewing undifferentiated state capable of both prolonged propagation and then directed differentiation. Having discerned these minimal molecular requirements, conditions that would permit the substitution of poorly-characterized and unspecified biological additives and substrates were derived and optimized with entirely defined constituents, providing a “biologics”-free (i.e., animal-, feeder-, serum-, and conditioned-medium-free) system for the efficient long-term cultivation of pPSCs, particularly pluripotent hESCs. Such culture systems allow the derivation and large-scale production of stem cells such as pPSCs, particularly pluripotent hESCs, in optimal yet well-defined biologics-free culture conditions from which they can be efficiently directed towards a lineage-specific differentiated fate in vitro, and thus are important, for instance, in connection with clinical applications based on stem cell therapy and in drug discovery processes.
Owner:THE BURNHAM INST

Biodegradable polymer coils for intraluminal implants

InactiveUS6423085B1DilatorsOcculdersPoly-L-lactideVascular compartment
An endovascular cellular manipulation and inflammatory response are elicited from implantation in a vascular compartment or any intraluminal location of a separable coil comprised at least in part of at least one biocompatible and absorbable polymer or protein and growth factors. Typically a catheter associated with the separable coil is used to dispose the coil into a selected body lumen. The biocompatible and absorbable polymer or protein is thrombogenic. The coil further is comprised at least in part of a growth factor or more particularly a vascular endothelial growth factor, a basic fibroblast growth factor or other growth factors. The biocompatible and absorbable polymer is in the illustrated embodiment at least one polymer selected from the group consisting of polyglycolic acid, poly~glycolic acid poly-L-lactic acid copolymers, polycaprolactive, polyhydroxybutyrate / hydroxyvalerate copolymers, poly-L-lactide. Polydioxanone, polycarbonates, and polyanhydrides. The biocompatible and absorbable protein is at least one protein selected from the group consisting of collagen, fibrinogen, fibronectin, vitronectin, laminin, and gelatin. In one embodiment the coil is composed of the biocompatible and absorbable polymer or protein with a radio-opaque material is disposed thereon. Alternatively, the coil is composed of a radio-opaque material, and the biocompatible and absorbable polymer or protein is disposed thereon. This apparatus may be positioned within intracranial aneurysms or any aneurysm in the body as well as within other body cavities.
Owner:RGT UNIV OF CALIFORNIA

Enzyme-mediated modification of fibrin for tissue engineering: fibrin formulations with peptides

InactiveUS7241730B2Efficacious platformEnhanced andPeptide/protein ingredientsTransferasesCell Surface ProteinsADAMTS Proteins
Heparin-binding regions of several proteins, such as neural cell adhesion molecule, fibronectin, laminin, midkine, and anti-thrombin III have been shown to promote neurite extension on two-dimensional surfaces. The effect of heparin-binding peptides on neurite extension through three-dimensional matrices was investigated by culturing embryonic chick dorsal root ganglia (DRG) within fibrin gels containing chemically attached heparin-binding peptide (HBP). The length of neurites within fibrin gels containing cross-linked HBP was increased by more than 70% over extension through fibrin gels containing no peptide. The HBP sequence of antithrombin III was incorporated into the fibrin gel as the C-terminal domain of a bidomian, chimeric peptide; the N-terminal second domain of this peptide contained the ∀2-plasmin inhibitor substrate for Factor XIIIa. Factor XIIIa, a transglutaminase, was used to chemically attach the HBP-containing chimeric peptide to the fibrin gels during polymerization. The amount of HBP cross-linked into the fibrin gels was determined, after degradation by plasmin using gel permeation chromatography, to be approximately 8 moles of peptide per mole fibrinogen. A peptide (HBP), where the cross-linking glutamine was replaced with glycine, showed no increase in extension in comparison with fibrin gels. The additional of heparin to the gel percursors resulted in no increase in neurite extension in comparison with fibrin gels. HBPs promote neurite extension by binding to cell surface proteoglycans on the DRG.
Owner:UNIV ZURICH +1

Peptides for the treatment of Alzheimer's disease and other beta-amyloid protein fibrillogenesis disorders

InactiveUS6933280B2Enhance clearance and removalConnective tissue peptidesNervous disorderAβ amyloidMedicine
A pharmaceutical composition, or pharmaceutical agent for treating Aβ amyloidosis in a patient, having at least one selected laminin peptide or fragment thereof from the group AG73 (SEQ ID NO:1), C-16 (SEQ ID NO:2), A-13 (SEQ ID NO:3), HA3G47 (SEQ ID NO:4), HA3G58 (SEQ ID NO:5), HA3G67 (SEQ ID NO:6), HA3G74 (SEQ ID NO:7), HA3G76 (SEQ ID NO:8), HA3G79 (SEQ ID NO:9), HA3G83 (SEQ ID NO:10), A4G82 (SEQ ID NO:11), A5G15 (SEQ ID NO:12), A5G56 (SEQ ID NO:13), A5G80 (SEQ ID NO:14), A5G81 (SEQ ID NO:15), A5G82 (SEQ ID NO: 16), A5G84 (SEQ ID NO:17), A5G101 (SEQ ID NO:18), and A5G109 (SEQ ID NO:19) (Sequence Group A); and a method for enhancing Aβ amyloid fibril formation, or of forming amyloid-plaque like deposits in vitro, including incubating Aβ 1-40 or Aβ 1-42 with a selected laminin-derived polypeptide from the group A-13 (SEQ ID NO:3), HA3G47 (SEQ ID NO:4), HA3G58 (SEQ ID NO:5), HA3G83 (SEQ ID NO:10), LAM-L (SEQ ID NO:20), A4G10 SEQ ID NO:21), A4G46 (SEQ ID NO:22), A4G47 (SEQ ID NO:23), A4G84 (SEQ ID NO:24), A4G92 (SEQ ID NO:25), A4G107 (SEQ ID NO:26), A5G3 (SEQ ID NO:27), A5G10 (SEQ ID NO:28), A5G27 (SEQ ID NO:29), A5G33 (SEQ ID NO:30), A5G65 (SEQ ID NO:31), A5G77 (SEQ ID NO:32), A5G87 (SEQ ID NO:33), A5G90 (SEQ ID NO:34) and A5G111 (SEQ ID NO:35) (Sequence Group C).
Owner:UNIV OF WASHINGTON
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