705results about "Osteogenic factor" patented technology

Auristatin peptides, including MeVal-Val-Dil-Dap-Norephedrine (MMAE) and MeVal-Val-Dil-Dap-Phe (MMAF), were prepared and attached to Ligands through various linkers, including maleimidocaproyl-val-cit-PAB. The resulting ligand drug conjugates were active in vitro and in vivo.

Compositions and methods relating to epitopes of sclerostin protein, and sclerostin binding agents, such as antibodies capable of binding to sclerostin, are provided.

Compositions and methods relating to antibodies that specifically bind to TGF-beta binding proteins are provided. These methods and compositions relate to altering bone mineral density by interfering with the interaction between a TGF-beta binding protein sclerostin and a TGF-beta superfamily member, particularly a bone morphogenic protein. Increasing bone mineral density has uses in diseases and conditions in which low bone mineral density typifies the condition, such as osteopenia, osteoporosis, and bone fractures.

A method and system that is directed to the local delivery of growth factors to the mammalian CNS to treat CNS disorders associated with neuronal death and/or dysfunction is described.

A mediator molecule is immobilized on the surface of a metallic or ceramic implant material. An anchor molecule such as a dialdehyde having a functional group that covalently binds the mediator molecule is covalently bound to the surface, and the mediator molecule is coupled to the functional group of the anchor molecule. The implant material may be composed of titanium, titanium alloy, aluminum, stainless steel or hydroxylapatite. Oxide units on the surface of the implant material can be increased preferably by treating with hot chromic-sulphuric acid for 0.5 to 3 hours at a temperature between 100 to 250° C. prior to binding the anchor molecule. Also, prior to binding the anchor molecule, the surface of the implant material can be activated by reacting with a silane derivative. Mediator molecules include BMP protein, ubiquitin and antibiotics, and the implant material may be an artificial joint or coronary vessel support such as a stent.

Disclosed herein are improved osteogenic devices and methods of use thereof for repair of bone and cartilage defects. The devices and methods promote accelerated formation of repair tissue with enhanced stability using less osteogenic protein than devices in the art. Defects susceptible to repair with the instant invention include, but are not limited to: critical size defects, non-critical size defects, non-union fractures, fractures, osteochondral defects, subchondral defects, and defects resulting from degenerative diseases such as osteochondritis dessicans.

The present invention relates to trans-capsularly administering into a diseased joint a high specificity antagonist selected from the group consisting of: i) an inhibitor of a pro-inflammatory interleukin; ii) an inhibitor of TNF-α synthesis; iii) an inhibitor of membrane-bound TNF-α; iv) an inhibitor of a natural receptor of TNF-α; v) an inhibitor of NO synthase,

• • vi) an inhibitor of PLA₂ enzyme; vii) an anti-proliferative agent; viii) an anti-oxidant; ix) an apoptosis inhibitor selected from the group consisting of EPO mimetic peptides, EPO mimetibodies, IGF-I, IGF-II, and caspase inhibitors, and x) an inhibitor of MMPs; and xi) an inhibitor of p38 kinase.

The invention provides a method for alleviating pain associated with neuromuscular or skeletal injury or inflammation by controlled and directed delivery of one or more biological response modifiers to inhibit the inflammatory response which ultimately causes acute or chronic pain. Controlled and directed delivery can be provided by implantable or infusion pumps, implantable controlled release devices, or by sustained release compositions comprising biological response modifiers.

The claimed invention provides a fusion polypeptide comprising a fibrous protein domain and a mineralization domain. The fusion is used to form an organic-inorganic composite. These organic-inorganic composites can be constructed from the nano- to the macro-scale depending on the size of the fibrous protein fusion domain used. In one embodiment, the composites can also be loaded with other compounds (e.g., dyes, drugs, enzymes) depending on the goal for the materials, to further enhance function. This can be achieved during assembly of the material or during the mineralization step in materials formation.

Disclosed herein are methods for preparing and using porous, crystalline biomimetic bioactive compositions of calcium phosphate with at least one therapeutic agent. The bioactive composition has strong adsorption properties for therapeutic agents which adsorb to the calcium phosphate with a high affinity. The bioactive composition also provides a sustained release implant that can be used for localized delivery of therapeutic agents. This localized delivery of therapeutic agents, promotes repair, healing, or regeneration of hard and soft tissues.

A composition includes a viscous gel formed from a combination of a biodegradable polymer and a biocompatible solvent. The composition also includes a hydrophilic porogen, which may be incorporated in the viscous gel. The composition may form a porous scaffold in situ.

The invention provides compositions, methods, and kits for increasing transport of agents across the blood brain barrier while allowing their activity once across the barrier to remain substantially intact. The agents are transported across the blood brain barrier via one or more endogenous receptor-mediated transport systems. In some embodiments the agents are therapeutic, diagnostic, or research agents.

Methods for preparing cross-linked polysaccharide matrices by cross-linking one or more amino group containing polysaccharides or amino-functionalized polysaccharides with reducing sugars and/or reducing sugar derivatives. The resulting matrices may include polysaccharide matrices and composite cross-linked matrices including polysaccharides cross-linked with proteins and/or polypeptides. Additives and/or cells may also be included in or embedded within the matrices. Various different solvent systems and reducing sugar cross-linkers for performing the cross-linking are described. The resulting matrices exhibit various different physical, chemical and biological properties.

Culture media comprising manganese and methods of culturing cells to improve sialylation and glycosylation of glycoproteins are provided.

Methods and devices are described for the regulation of bone morphogenetic protein gene expression in bone cells via the application of fields generated by specific and selective electric and electromagnetic signals in the treatment of diseased or injured bone. By gene expression is meant the up-regulation or down-regulation of the process whereby specific portions (genes) of the human genome (DNA) are transcribed into mRNA and subsequently translated into protein. Methods and devices are provided for the targeted treatment of injured or diseased bone tissue that include generating specific and selective electric and electromagnetic signals that generate fields optimized for increase of bone morphogenetic protein gene expression and exposing bone to the fields generated by specific and selective signals so as to regulate bone morphogenetic protein gene expression in such bone tissue. The resulting methods and devices are useful for the targeted treatment of bone fractures, fractures at risk, delayed unions, nonunion of fractures, bone defects, spine fusions, osteonecrosis or avascular necrosis, as an adjunct to other therapies in the treatment of one or all of the above, and in the treatment of osteoporosis.

Disclosed herein are methods for preparing and using porous, crystalline biomimetic bioactive compositions of calcium phosphate with at least one therapeutic agent. The bioactive composition has strong adsorption properties for therapeutic agents which adsorb to the calcium phosphate with a high affinity. The bioactive composition also provides a sustained release implant that can be used for localized delivery of therapeutic agents. This localized delivery of therapeutic agents, promotes repair, healing, or regeneration of hard and soft tissues.

A malleable bone graft composition is described. The composition comprises: (a) keratose; (b) particulate filler; (c) antibiotic; and (f) water. The invention may be provided in sterile form in an container, and optionally lyophilized. Methods of treating a fracture with such compositions are also described.