Abstract: The present invention provides a method of tissue healing in a subject involving administering to the subject a pharmaceutical composition for healing tissue. The pharmaceutical composition contains: adherent cells originating from mesenchymal tissue that has been treated with a physiologically active polypeptide or an LPS; and a pharmaceutically acceptable carrier.

Abstract: The present invention provides a pharmaceutical composition for healing tissue, said pharmaceutical composition comprising adherent cells originating from mesenchymal tissue treated with a physiologically active polypeptide or an LPS, or culture supernatant thereof, and a pharmaceutically acceptable carrier, and a method for producing the pharmaceutical composition.

Abstract: The present invention provides a pharmaceutical composition for healing tissue, said pharmaceutical composition containing: adherent cells originating from mesenchymal tissue that has been treated with a physiologically active polypeptide or an LPS; and a pharmaceutically acceptable carrier.

Abstract: Disclosed is a cell mass containing an adipose-tissue-derived multipotent progenitor cell. Also disclosed is a method for producing an adipose-tissue-derived multipotent progenitor cell from an adipose tissue, which comprises the steps of: (a) removing erythrocytes from an adipose-tissue-derived cell mass to produce a preadipose-tissue-derived multipotent progenitor cell mass; and (b) removing cells other than the adipose-tissue-derived multipotent progenitor cell from the preadipose-tissue-derived multipotent progenitor cell mass to produce the desired adipose-tissue-derived multipotent progenitor cell. Further disclosed is an adipose-tissue-derived multipotent progenitor cell produced by the method.

Abstract: Disclosed is a cell mass containing an adipose-tissue-derived multipotent progenitor cell. Also disclosed is a method for producing an adipose-tissue-derived multipotent progenitor cell from an adipose tissue, which comprises the steps of: (a) removing erythrocytes from an adipose-tissue-derived cell mass to produce a preadipose-tissue-derived multipotent progenitor cell mass; and (b) removing cells other than the adipose-tissue-derived multipotent progenitor cell from the preadipose-tissue-derived multipotent progenitor cell mass to produce the desired adipose-tissue-derived multipotent progenitor cell. Further disclosed is an adipose-tissue-derived multipotent progenitor cell produced by the method.

Abstract: Disclosed is a cell mass containing an adipose-tissue-derived multipotent progenitor cell. Also disclosed is a method for producing an adipose-tissue-derived multipotent progenitor cell from an adipose tissue, which comprises the steps of: (a) removing erythrocytes from an adipose-tissue-derived cell mass to produce a preadipose-tissue-derived multipotent progenitor cell mass; and (b) removing cells other than the adipose-tissue-derived multipotent progenitor cell from the preadipose-tissue-derived multipotent progenitor cell mass to produce the desired adipose-tissue-derived multipotent progenitor cell. Further disclosed is an adipose-tissue-derived multipotent progenitor cell produced by the method.

Abstract: The present invention relates to a method for producing a cell population comprising myocardium-committed cells that differentiate into and survive as myocardial cells under a myocardial tissue environment. Specifically, the method is characterized in that adipose-tissue-derived multi-lineage/multi-potent progenitor cells are cultured in the presence of a polyamine. The present invention further relates to a cell population comprising the myocardium-committed cells, a cell preparation comprising the cell population, or a cell sheet. The present invention further relates to a method for treating a heart disease, which comprises administering the cell population to a subject.

Abstract: A method of obtaining pancreatic endocrine cells from cells originating in an adipose tissue characterized by comprising culturing the adipose tissue-origin cells; the pancreatic endocrine cells that can be obtained thereby; a method of treating or preventing a disease caused by the hypofunction in pancreatic endocrine cells wherein the above-described pancreatic endocrine cells are used; a method of screening a substance capable of promoting or inhibiting the differentiation into pancreatic endocrine cells characterized by comprising adding a candidate substance to a medium in the course of culturing adipose tissue-origin cells to obtain the pancreatic endocrine cells; and so on.

Abstract: A method of obtaining pancreatic endocrine cells from cells originating in an adipose tissue characterized by comprising culturing the adipose tissue-origin cells; the pancreatic endocrine cells that can be obtained thereby; a method of treating or preventing a disease caused by the hypofunction in pancreatic endocrine cells wherein the above-described pancreatic endocrine cells are used; a method of screening a substance capable of promoting or inhibiting the differentiation into pancreatic endocrine cells characterized by comprising adding a candidate substance to a medium in the course of culturing adipose tissue-origin cells to obtain the pancreatic endocrine cells; and so on.

Abstract: The present invention relates to a method for producing a cell population comprising myocardium-committed cells that differentiate into and survive as myocardial cells under a myocardial tissue environment. Specifically, the method is characterized in that adipose-tissue-derived multi-lineage/multi-potent progenitor cells are cultured in the presence of a polyamine. The present invention further relates to a cell population comprising the myocardium-committed cells, a cell preparation comprising the cell population, or a cell sheet. The present invention further relates to a method for treating a heart disease, which comprises administering the cell population to a subject.

Abstract: The present invention relates to a therapeutic agent for liver-related diseases, comprising adipose tissue-derived multilineage progenitor cells; and others.

Abstract: A method of obtaining pancreatic endocrine cells from cells originating in an adipose tissue characterized by comprising culturing the adipose tissue-origin cells; the pancreatic endocrine cells that can be obtained thereby; a method of treating or preventing a disease caused by the hypofunction in pancreatic endocrine cells wherein the above-described pancreatic endocrine cells are used; a method of screening a substance capable of promoting or inhibiting the differentiation into pancreatic endocrine cells characterized by comprising adding a candidate substance to a medium in the course of culturing adipose tissue-origin cells to obtain the pancreatic endocrine cells; and so on.

Abstract: Provided are a cell sheet and a three-dimensional structure thereof that include at least mesenchymal stem cells and myoblasts isolated from a cell culture support and that are to be applied to heart disease. Use of the cell sheet and the three-dimensional structure thereof including mesenchymal stem cells and myoblasts can notably improve cardiac functions compared with a conventional technology, i.e., use of cell sheets composed of myoblasts only or mesenchymal stem cells only. Furthermore, the cell sheet itself has high strength, and the transplantation procedure is also improved.

Abstract: The present invention relates to a therapeutic agent for liver-related diseases, comprising adipose tissue-derived multilineage progenitor cells; and others.

Abstract: A method of obtaining pancreatic endocrine cells from cells originating in an adipose tissue characterized by comprising culturing the adipose tissue-origin cells; the pancreatic endocrine cells that can be obtained thereby; a method of treating or preventing a disease caused by the hypofunction in pancreatic endocrine cells wherein the above-described pancreatic endocrine cells are used; a method of screening a substance capable of promoting or inhibiting the differentiation into pancreatic endocrine cells characterized by comprising adding a candidate substance to a medium in the course of culturing adipose tissue-origin cells to obtain the pancreatic endocrine cells; and so on.

Abstract: Disclosed are: a method for producing a hepatic-lobule-like cell mass from an adipose-tissue-derived cell, which is characterized by culturing the adipose-tissue-derived cell; a hepatic-lobule-like cell mass produced by the method; a method for the screening of a substance capable of promoting or inhibiting the formation of a hepatic-lobule-like cell mass, which is characterized by culturing an adipose-tissue-derived cell to produce the hepatic-lobule-like cell mass, wherein a candidate substance is added to a culture medium; and a kit for use in the screening method.

Abstract: Disclosed is a cell mass containing an adipose-tissue-derived multipotent progenitor cell. Also disclosed is a method for producing an adipose-tissue-derived multipotent progenitor cell from an adipose tissue, which comprises the steps of: (a) removing erythrocytes from an adipose-tissue-derived cell mass to produce a preadipose-tissue-derived multipotent progenitor cell mass; and (b) removing cells other than the adipose-tissue-derived multipotent progenitor cell from the preadipose-tissue-derived multipotent progenitor cell mass to produce the desired adipose-tissue-derived multipotent progenitor cell. Further disclosed is an adipose-tissue-derived multipotent progenitor cell produced by the method.

Abstract: An object of the present invention is to provide technology of using a preadipocyte to restore comprehensively bone, cartilage and periodontal ligament, and cause a periodontal hard tissue to regenerate. By culturing a preadipocyte using a culture medium containing (i) at least one member selected from the group consisting of glycerophosphate and salts thereof, and (ii) at least one member selected from the group consisting of ascorbic acid, derivatives thereof and salts thereof and not containing an adrenal cortical hormone in such an amount that promotes differentiation of a preadipocyte into a periodontal hard tissue cell, differentiation of the cell into a periodontal hard tissue cell is induced efficiently. Furthermore, a scaffold is combined with the preadipocyte cultured with the above-mentioned culture medium to be transplanted into a periodontal tissue that requires regeneration.