Dendritic cells are the most potent stimulators of the immune system, having the unique ability to activate naive T cells. Thus dendritic cells are of great interest in terms of immune stimulatory approaches for treatment of cancer and viral diseases. On the flip side of the coin, dendritic cells are known to have the ability of...
The current patent covers the use of a peptide derived from angiotensin I for stimulation of hematopoiesis after insult to the blood making system of a host. Specifically, the patent addresses the hematopoietic insult of chemotherapy. Since many types of chemotherapeutic agents kill proliferating cells, the hematopoietic system is often injured as a consequence of administration of these...
One of the areas in which regenerative medicine has caused the most advancement is in repair of connective tissue injuries. The current patent addresses this area. Specifically, the patent covers an object that can be implanted and used as a substitute for a connective tissue. The objected is made with a pair of bone anchors, with at least one filament connecting the bone achors at their...
The current patent covers ways of induce proliferation of hair follicle cells through administration of a specific protein or variants of it. The protein is called "hair follicle growth factor" or "HFGF". HFGF is considered to be an allelic form of keratinocyte growth factor-2 (KGF-2) wherein HFGF has a glutamic acid residue (Glu) at...
The use of erythropoietin for non-hematopoietic purposes has been increasing in the last couple of years. One obvious example is the Canadian company Stem Cell Therapeutics (sss.v) which is using erythropoietin together with human chorionic gonadotropin for treatment of patients post-stroke. Other uses of erthrypoietin include direct
Failure/suppression of the hematopoietic can be a deadly consequence of over-aggressive administration of chemotherapeutics/radiotherapy. The global market for agents that stimulate hematopoiesis, particularly granulopoiesis is in the billions of dollars per year, as witnessed by the success of Amgen’s Neuopgen and Neulasta products. The current patent teaches a novel, and arguably more...
On of the interesting methods of manipulating stem cells is to increase their ability to “go where they are suppose to”. For example, it is known that when bone marrow or cord blood hematopoietic stem cells are injected intravenously into an irradiated recipient, the cells selectively home to the bone marrow and if enough cells migrate appropriately, hematopoietic reconstitution...
Mesenchymal stem cells are originally thought of as bone marrow derived, adherent cells, that have the ability to differentiate into a variety of tissues. Initial studies demonstrated that mesenchymal stem cells can differentiate into bone, cartilage, fat and muscle. These cells possess a very strong possibility for commercialization and therapeutics development since they can be administered...
One may notice that many of the patents in the StemCellPatents.com database direct their claims towards "mammals" here is one exception. The current patent is directed towards cloning of fish. The inventors state that nuclear transfer in fish was actually performed since the 1960s, however despite much work in the area, this is the first time that cultured cells are used as nucleus donors...
This patent covers the treatment of a "proliferative disorder" using a family of compounds which include N-[4-methyl-3-(4-pyridin-3-yl-pyrimidin-2-ylamino)-phenyl]-4-piperazin-1-- ylmethyl-benzamide methanesulfonate. These agents inhibit stem cell factor signalling, as well as signalling of PDGF.