Abstract: A device for cleaning oral cavity and a method for cleaning oral cavity capable of cleaning stains such as plaque, tartar, and the like even in a narrow portion such as a clearance between teeth, a clearance between implants, and the like. A cover includes a jetting orifice and a discharge orifice and covers a tooth by leaving a clearance between the tooth and the cover so that the clearance can hold water. A jetting unit is mounted in the jetting orifice and includes a flow path communicating with the clearance between the tooth and the cover. The jetting unit is configured to generate cavitation bubbles. The flow path includes a small diameter part and an enlarged part. A discharge unit discharges water in the clearance between the tooth and the cover from the discharge orifice.
Abstract: It is possible to provide a small intestine endoscope training simulator (11) which allows to obtain a feeling similar to that of inserting an endoscope (38) into the small intestine (34) of the living body (30) and learn the actual operation of the endoscope (38). This training simulator (11) includes a plurality of longitudinal elastic members (32) for applying an elastic force to each of a plurality of portions of a simulated small intestine (13). One end portion sides of the plurality of longitudinal elastic members (32) are respectively attached to the first attachment portions (27) on the simulated small intestine (13) side. The other end portion sides of the plurality of longitudinal elastic members (32) are respectively attached to the second attachment portions (33, 57) on the case (12) side.
Abstract: The object aims to form and maintain a cell, a tissue or an organ induced by differentiation. Disclosed is a composition for inducing the differentiation of a cell capable of being differentiated in a given direction to thereby produce a cell, a tissue or an organ through the further induction of the differentiation in the given direction. The composition comprises NELL-1 or a substance which can be altered so as to act as NELL-1 upon the differentiation. Also disclosed is a composition for maintaining a cell, a tissue or an organ produced by the induction of the differentiation.
Abstract: A rod-shaped device holds the equatorial region of the lens capsule during cataract/intraocular lens implantation surgery of patients with a weak or ruptured Zinn zonule. The device has a handle with a length of 6 mm or more and a thickness ranging from 0.01 mm to 1.0 mm, a tip bent into an acute angle, with the length up to this angled tip being 1.5 mm or more from the trough of the bend, and the bent tip having a linear branched or flat pad, with the width between the branches being 1 mm or more or the flat pad having a surface area of 1 mm2 or more.
Abstract: Disclosed are: a compound which can be produced through a chemical synthesis at low cost, has an excellent osteogenesis-promoting activity, has high affinity for a bone, and can be applied without the need of any special DDS; and a method for promoting osteogenesis by administering the compound and applying the promotion of osteogenesis to the formation or regeneration of a bone. Specifically disclosed are: an osteogenesis promoter or a pharmaceutical composition comprising [4-(methylthio)phenylthio]methanebisphosphonic acid, which is one of bisphosphonic acids, or a pharmaceutically acceptable salt thereof as an active ingredient; and a method for promoting osteogenesis, which comprises administering the osteogenesis promoter or the pharmaceutical composition to a subject to be treated.
Abstract: The present invention provides a prophylactic and therapeutic agent for arteriosclerotic diseases and a method or reagent for detecting arteriosclerotic diseases. Further, the present invention provides a therapeutic agent for an arteriosclerotic disease, comprising salusin-? as an active ingredient, a therapeutic agent for an arteriosclerotic disease, comprising an antagonist of salusin-? as an active ingredient, and a method for detecting an arteriosclerotic disease, comprising assaying salusin-? in a biological sample.
Type:
Application
Filed:
May 9, 2008
Publication date:
July 7, 2011
Applicants:
PROTEINEXPRESS CO., LTD., SHOWA UNIVERSITY, NATIONAL UNIVERSITY CORPORATION TOKYO MEDICAL AND DENTAL UNIVERSITY
Abstract: An endoscopic inspection method includes staining step and super magnified observation step. In the staining step, a distal end surface of a distal end portion of an endoscope which includes a distal end opening of a channel and a first lens that forms a super high-power observation optical system is held in contact with the tissue surface of the observation subject region such that the staining fluid supplied via the channel penetrates to the gap between the distal end surface and the tissue surface to eliminate the mucus on the tissue surface. The tissue surface having the mucus eliminated is stained with the staining fluid. In the super magnified observation step, the first lens which forms the super high-power observation optical system provided at the distal end portion is brought into contact with the tissue surface that has been stained with the staining fluid such that the observation at the cellular level is performed.
Type:
Grant
Filed:
April 23, 2007
Date of Patent:
May 31, 2011
Assignees:
Olympus Medical Systems Corp., Showa University
Abstract: A method is disclosed for cryopreserving living animal cells in immunoisolation membranes, including: (1) cutting out a living organ from an animal, (2) digesting the cutout organ into the discrete living animal cells and separating the discrete cells, (3) suspending the separated cells in a solution of sodium chloride containing sodium alginate and collagen, (4) forming microcapsules of the living animal cells by using the resulting suspension, (5) forming immunoisolation membranes around outer surfaces of the microcapsules of the living animal cells by covering the outer surfaces with alginate-(poly-L-lysine) and thereby obtaining the living animal cells enclosed in the immunoisolation membranes, (6) suspending the resulting living animal cells enclosed in the immunocapsules in a cell damage-preventing solution, and (7) immediately freezing the thus obtained suspension with liquid nitrogen.
Abstract: An endoscopic inspection method includes staining step and super magnified observation step. In the staining step, a distal end surface of a distal end portion of an endoscope which includes a distal end opening of a channel and a first lens that forms a super high-power observation optical system is held in contact with the tissue surface of the observation subject region such that the staining fluid supplied via the channel penetrates to the gap between the distal end surface and the tissue surface to eliminate the mucus on the tissue surface. The tissue surface having the mucus eliminated is stained with the staining fluid. In the super magnified observation step, the first lens which forms the super high-power observation optical system provided at the distal end portion is brought into contact with the tissue surface that has been stained with the staining fluid such that the observation at the cellular level is performed.
Type:
Application
Filed:
April 23, 2007
Publication date:
October 23, 2008
Applicants:
Showa University, Olympus Medical Systems Corporation
Abstract: A method is disclosed for cryopreserving living animal cells in immunoisolation membranes, including: (1) cutting out a living organ from an animal, (2) digesting the cutout organ into the discrete living animal cells and separating the discrete cells, (3) suspending the separated cells in a solution of sodium chloride containing sodium alginate and collagen, (4) forming microcapsules of the living animal cells by using the resulting suspension, (5) forming immunoisolation membranes around outer surfaces of the microcapsules of the living animal cells by covering the outer surfaces with alginate-(poly-L-lysine) and thereby obtaining the living animal cells enclosed in the immunoisolation membranes, (6) suspending the resulting living animal cells enclosed in the immunocapsules in a cell damage-preventing solution, and (7) immediately with liquid nitrogen.