mhurhangee/ep-ind-claims huggingface dataset:
Physiologically tolerable oligoguluronates or oligogalacturonates having a range of degrees of polymerisation, a number average degree of polymerization in the range 5 to 18, a guluronate (or galacturonate) fraction (F G) of at least 0.92, a mannuronate fraction (F M) of no more than 0.08, and having at least 95% mole with a degree of polymerization less than 20 for use in therapy.
A balloon catheter (A; A') comprising: a balloon; and a balloon inside tube passing through an inner lumen of the balloon, the balloon inside tube including an inner layer, an outer layer, and a support body, wherein the balloon, the inner layer, and the outer layer are formed of thermoplastic polymers that can be heat-welded to each other, and a thermoplastic polymer forming the inner layer has a higher melting point than a thermoplastic polymer forming the outer layer; characterized in that the balloon has a distal side sleeve at a distal side thereof, and the distal side sleeve is heat-welded to a distal part of the balloon inside tube at a temperature equal to or higher than the melting point of the thermoplastic polymer forming the inner layer of the balloon inside tube. a balloon; and a balloon inside tube passing through an inner lumen of the balloon, the balloon inside tube including an inner layer, an outer layer, and a support body, wherein the balloon, the inner layer, and the outer layer are formed of thermoplastic polymers that can be heat-welded to each other, and a thermoplastic polymer forming the inner layer has a higher melting point than a thermoplastic polymer forming the outer layer; characterized in that the balloon has a distal side sleeve at a distal side thereof, and the distal side sleeve is heat-welded to a distal part of the balloon inside tube at a temperature equal to or higher than the melting point of the thermoplastic polymer forming the inner layer of the balloon inside tube.
A bougie for shaping a portion of a stomach for suturing to form a gastric passageway for food, the bougie comprising: (a) a body having a lumen, and sized and shaped for transoral insertion to the stomach in a position from which the gastric passageway for food may be sutured by a needle passing within the lumen; (b) a plurality of spaced fenestrations longitudinally distributed along a wall of the body, and sized to receive and position a thickness of gastric tissue when vacuum is applied to the fenestrations for suturing by a needle passing within the lumen; (c) a suturing device including the needle, and configured to pass the needle within the lumen; characterised by (d) a blocker, extending along the body to divide at least one fenestration into a plurality of fenestration parts (108A, 108B); wherein a geometry of at least some of said fenestrations is modifiable by movement of the blocker to merge the fenestration parts (108A, 108B) into a merged fenestration while said bougie is positioned in the stomach. (a) a body having a lumen, and sized and shaped for transoral insertion to the stomach in a position from which the gastric passageway for food may be sutured by a needle passing within the lumen; (b) a plurality of spaced fenestrations longitudinally distributed along a wall of the body, and sized to receive and position a thickness of gastric tissue when vacuum is applied to the fenestrations for suturing by a needle passing within the lumen; (c) a suturing device including the needle, and configured to pass the needle within the lumen; characterised by (d) a blocker, extending along the body to divide at least one fenestration into a plurality of fenestration parts (108A, 108B);
A method of controlling an adsorption heat pump for merging a heating medium released from a plurality of electronic devices (41a to 41c) and supplying the heating medium to the adsorption heat pump, characterized in that the method comprises: providing a flow-rate adjustment unit (43a to 43c) provided at each of the inlet sides of the plurality of the electronic devices (41 a to 41c) in a flow path of the heating medium and being capable of individually adjusting flow rates of the heating medium to be supplied to the plurality of electronic devices (41a to 41c), a temperature sensor (45a to 45c) configured to individually detect temperatures of the heating medium released from the plurality of electronic devices (41a to 41c), and a control unit; and causing the control unit to control the flow-rate adjustment unit (43a to 43c) based on outputs of the temperature sensor (45a to 45c) such that the temperatures of the heating medium released from the plurality of electronic devices (41a to 41c) become equal to each other. providing a flow-rate adjustment unit (43a to 43c) provided at each of the inlet sides of the plurality of the electronic devices (41 a to 41c) in a flow path of the heating medium and being capable of individually adjusting flow rates of the heating medium to be supplied to the plurality of electronic devices (41a to 41c), a temperature sensor (45a to 45c) configured to individually detect temperatures of the heating medium released from the plurality of electronic devices (41a to 41c), and a control unit; and causing the control unit to control the flow-rate adjustment unit (43a to 43c) based on outputs of the temperature sensor (45a to 45c) such that the temperatures of the heating medium released from the plurality of electronic devices (41a to 41c) become equal to each other.
A point cloud data transmission method by an apparatus, the method comprising: acquiring point cloud data; encoding geometry information including positions of points in the point cloud data; generating Level Of Details, LODs, based on the geometry information and searching neighbor points of each point to be attribute encoded based on the LODs, wherein each point to be attribute encoded includes both color information and reflectance information, wherein the LOD generation and the neighbor point search of each point are shared for an encoding process of the color information and an encoding process of the reflectance information; encoding the color information of each point based on the searched neighbor points; encoding the reflectance information of each point based on the searched neighbor points; and transmitting the encoded geometry information, the encoded color information and the encoded reflectance information, wherein the color information and the reflectance information, respectively, are encoded by sharing a result of the LOD generation and a result of the neighbor point search when a configuration for the LOD generation and a maximum number of neighbor points for the color information and the reflectance information are the same. acquiring point cloud data; encoding geometry information including positions of points in the point cloud data; generating Level Of Details, LODs, based on the geometry information and searching neighbor points of each point to be attribute encoded based on the LODs, wherein each point to be attribute encoded includes both color information and reflectance information, wherein the LOD generation and the neighbor point search of each point are shared for an encoding process of the color information and an encoding process of the reflectance information; encoding the color information of each point based on the searched neighbor points; encoding the reflectance information of each point based on the searched neighbor points; and transmitting the encoded geometry information, the encoded color information and the encoded reflectance information, wherein the color information and the reflectance information, respectively, are encoded by sharing a result of the LOD generation and a result of the neighbor point search when a configuration for the LOD generation and a maximum number of neighbor points for the color information and the reflectance information are the same.
An external defibrillator electrode electrolyte dispersal pad, the electrolyte dispersal pad comprising: a substrate defining a plurality of wells, each respective well defining an opening; an electrolyte material disposed within the plurality of wells; and a conductive material disposed over at least a portion of the plurality of openings and configured to retain the electrolyte material within the plurality of wells, wherein the conductive material is configured to receive a current pulse through a portion of the conductive material to fuse the portion of the conductive material to release the electrolyte material from at least one of the wells. a substrate defining a plurality of wells, each respective well defining an opening; an electrolyte material disposed within the plurality of wells; and a conductive material disposed over at least a portion of the plurality of openings and configured to retain the electrolyte material within the plurality of wells, wherein the conductive material is configured to receive a current pulse through a portion of the conductive material to fuse the portion of the conductive material to release the electrolyte material from at least one of the wells.
A data processing system comprising a memory unit, a first client connected to said memory unit via a bus, and a second client connected to said memory unit via said bus, said first client arranged to issue memory access requests to said memory unit and comprising a first memory access unit, a first information unit and a first control unit, wherein: said first memory access unit is arranged to read data from or write data to said memory unit at a first data rate, said first control unit is connected to said first memory access unit and arranged to control and receive data from or send data to said first memory access unit, said first information unit is connected to the said first control unit and arranged to indicate internal data correlating with a minimum required value of said first data rate to said second client, said second client arranged to issue memory access requests to said memory unit and comprising a second memory access unit and a first data rate limiting unit, wherein: said second memory access unit is arranged to read data from or write data to said memory unit at a second data rate, said first data rate limiting unit is connected via a first control line to said first information unit for receiving said internal data, said first data rate limiting unit is connected to said second memory access unit and arranged to limit said second data rate in dependence on said internal data by controlling said second memory access unit in that a sum of said minimum required value of said first data rate and a maximum data rate allowed for said second client equals a predefined maximum total data rate. said first memory access unit is arranged to read data from or write data to said memory unit at a first data rate, said first control unit is connected to said first memory access unit and arranged to control and receive data from or send data to said first memory access unit, said first information unit is connected to the said first control unit and arranged to indicate internal data correlating with a minimum required value of said first data rate to said second client, said second memory access unit is arranged to read data from or write data to said memory unit at a second data rate, said first data rate limiting unit is connected via a first control line to said first information unit for receiving said internal data, said first data rate limiting unit is connected to said second memory access unit and arranged to limit said second data rate in dependence on said internal data by controlling said second memory access unit in that a sum of said minimum required value of said first data rate and a maximum data rate allowed for said second client equals a predefined maximum total data rate.
An ink composition for making a silver structure, the ink composition comprising: a silver salt; an organo-complex of a first complexing agent and a second complexing agent; a solvent; and a carboxylic acid or a salt of a carboxylic acid; wherein said first complexing agent is an alkyl amine selected from the group consisting of methylamine, ethylamine, propylamine, butylamine, and amylamine; wherein said second complexing agent is an aminoalcohol selected from the group consisting of methanolamine, ethanolamine, propanolamine, and butanolamine; wherein said solvent is water or a short chain alcohol having an alkyl chain of 1-3 carbon atoms; and wherein the ink composition has a pH of 10.5. a silver salt; an organo-complex of a first complexing agent and a second complexing agent; a solvent; and a carboxylic acid or a salt of a carboxylic acid; wherein said first complexing agent is an alkyl amine selected from the group consisting of methylamine, ethylamine, propylamine, butylamine, and amylamine; wherein said second complexing agent is an aminoalcohol selected from the group consisting of methanolamine, ethanolamine, propanolamine, and butanolamine; wherein said solvent is water or a short chain alcohol having an alkyl chain of 1-3 carbon atoms; and wherein the ink composition has a pH of 10.5.
A method comprising: depositing a quantum dot solution onto a first substrate; providing one or more electrical components on a second substrate, wherein the second substrate is a silicon substrate, solidifying the quantum dot solution on the first substrate to form a solid layer of quantum dots; arranging the first substrate overlaying the second substrate so that an electrical connection is established between the solid layer of quantum dots and the one or more electrical components on the second substrate, and leaving the first substrate overlaying the second substrate, wherein the first substrate forms an encapsulation layer configured to protect the solid layer of quantum dots and the one or more electrical components. depositing a quantum dot solution onto a first substrate; providing one or more electrical components on a second substrate, wherein the second substrate is a silicon substrate, solidifying the quantum dot solution on the first substrate to form a solid layer of quantum dots; arranging the first substrate overlaying the second substrate so that an electrical connection is established between the solid layer of quantum dots and the one or more electrical components on the second substrate, and leaving the first substrate overlaying the second substrate, wherein the first substrate forms an encapsulation layer configured to protect the solid layer of quantum dots and the one or more electrical components.
A continuous process for preparing at least one cyclohexanepolycarboxylic acid or a derivative thereof by bringing at least one corresponding benzenepolycarboxylic acid or a derivative thereof into contact with a hydrogen-comprising gas in the presence of at least one coated catalyst comprising an active metal selected from the group consisting of ruthenium, rhodium, palladium, platinum and mixes thereof applied to a support material comprising silicon dioxide, where the pore volume of the support material is from 0.6 to 1.0 ml/g, determined by Hg porosimetry, the BET surface area is from 280 to 500 m 2 /g, at least 90% of the pores present have a diameter of from 6 to 12 nm, and from 40 to 70% by weight of the active metal, based on the total amount of the active metal, are present in the shell of the catalyst to a penetration depth of 200μm, wherein the contacting is carried out at a superficial velocity of from 20 to 50 m/h, where the at least one derivative of the benzenepolycarboxylic acid is a monoester, diester, triester, tetraester or anhydride of the benzenepolycarboxylic acid.
Method for producing an implant, comprising the steps of: a) capturing a natural bone microstructure (nKM) of a natural bone area; b) marking an implant area in the natural bone area; b) analysing the captured bone microstructure (3D-mKM) in the marked implant area to ascertain reproduction parameters; and c) constructing an artificial microstructure on the basis of the ascertained reproduction parameters to produce the implant, characterized by the further step of: d) coating the artificial microstructure with a hydrophobic chemical material, wherein the hydrophobic chemical material comprises a segmented polyurethane or polyelectrolyte or a hydrophobically functionalized chitosan or chitosan derivative. a) capturing a natural bone microstructure (nKM) of a natural bone area; b) marking an implant area in the natural bone area; b) analysing the captured bone microstructure (3D-mKM) in the marked implant area to ascertain reproduction parameters; and c) constructing an artificial microstructure on the basis of the ascertained reproduction parameters to produce the implant,
Holder for fastening a component, in particular a fuel distributor, to an internal combustion engine, having at least one connecting body, wherein the connecting body has a receiving surface and wherein the receiving surface of the connecting body, in the installed state in which the connecting body bears with its receiving surface against an outer side of the component, extends over an angle greater than 180° with respect to a longitudinal axis of the component, characterized in that a sleeve is provided, in that a first fastening surface is provided on an outer side of the sleeve, in that a foot part of the connecting body is connected to the sleeve at the first fastening surface of the sleeve, in that a second fastening surface is provided on the outer side of the sleeve, which second fastening surface is averted from the first fastening surface, and in that a foot part of a further connecting body is connected to the sleeve at the second fastening surface of the sleeve, wherein, in the installed state, the further connecting body also bears with its receiving surface against the outer side of the component.
A mandrel mill comprising a plurality of roll stands in which three grooved rolls are disposed in each roll stand such that an angle formed by pressing directions is 120° and the pressing directions of grooved rolls are alternately shifted by 60° between adjacent roll stands, characterized in that a distance between a point of a groove profile of each grooved roll disposed in a final roll stand among roll stands for performing wall thickness reduction on a blank pipe or tube and a groove center is not constant, and becomes a minimum (L 0) at a point on the groove profile located at an angle (α 0) in a range of not less than 27° and not more than 33° around the groove center from a groove bottom.
A mouse comprising an endogenous λ (lambda) light chain allele comprising an unrearranged human lambda variable (hVλ) and an unrearranged human lambda joining (hJλ) gene segment, where the mouse comprises a deletion of a first Vλ-Jλ-Cλ gene cluster of said endogenous mouse λ light chain allele and replacement, in whole or in part, of the Vλ-Jλ gene segments of the second Vλ-Jλ-Cλ gene cluster of said allele with said human Vλ and Jλ gene segments which are operably linked to an intact mouse lambda constant (Cλ) region gene of said second Vλ-Jλ-Cλ gene cluster so the mouse expresses a light chain derived from a hVλ a hJλ and a mouse Cλ gene, where the endogenous enhancers Enh 2.4, mouse lambda 3' enhancer (Enh) and Enh 3.1 are maintained intact in said λ light chain allele.
A film-forming powder for forming a film on a surface of a tooth for use in a jet-device for a tooth, the powder having a mean particle size of 0.5 to 30 μm, as measured according to the description, wherein the film-forming powder is produced by calcining an apatite represented by Ca 10-x •M x (ZO 4) 6 Y 2, wherein X represents 0 to 10; M represents a metal or hydrogen; ZO 4 represents PO 4, CO 3, CrO 4, AsO 4, VO 4, SiO 4, SO 4 or GeO 4; and Y represents a hydroxyl group, a halogen element or a carbonate group, in an inert gas atmosphere at 600 to 1350°C.
A method for making at least 2 kg (dry weight) of a lactic acid bacteria composition formulated with from 1% to 50% of ascorbate or ascorbic acid (w/w - dry matter) as antioxidant, wherein the method comprises following steps: (i): fermenting the lactic acid bacteria - in a fermentor (bioreactor) comprising at least 100 I fermentation medium - under suitable conditions and wherein the pH is controlled so 3 ≤ pH ≤ 8 during at least the majority of the fermentation process by addition of a base not comprising NH 3 (ammonia); (ii): harvesting of the lactic acid bacteria to get lactic acid bacteria concentrate; (iii): adding ascorbate or ascorbic acid to the lactic acid bacteria concentrate; and (iv): processing in a suitable way the ascorbate or ascorbic acid containing concentrate of step (iii) to get the lactic acid bacteria composition formulated with from 1 % to 50% of ascorbate or ascorbic acid (w/w - dry matter) as antioxidant; and wherein the base is at least one base selected from the group of bases consisting of: NaOH, KOH, Na 2 CO 3 Na 2 S and Na 2 O. (i): fermenting the lactic acid bacteria - in a fermentor (bioreactor) comprising at least 100 I fermentation medium - under suitable conditions and wherein the pH is controlled so 3 ≤ pH ≤ 8 during at least the majority of the fermentation process by addition of a base not comprising NH 3 (ammonia); (ii): harvesting of the lactic acid bacteria to get lactic acid bacteria concentrate; (iii): adding ascorbate or ascorbic acid to the lactic acid bacteria concentrate; and (iv): processing in a suitable way the ascorbate or ascorbic acid containing concentrate of step (iii) to get the lactic acid bacteria composition formulated with from 1 % to 50% of ascorbate or ascorbic acid (w/w - dry matter) as antioxidant;
A wiper arm head for a wiper arm rod, with a first end region, which has an opening for receiving a drive shaft, and a second end region for the pivotable fastening of the wiper arm rod, and with means for directing at least one hose (31,32) carrying a cleaning fluid, the means has a feedthrough (181,182), which leads the hose (31,32) from an upper side in the direction of an underside of the wiper arm head, characterized in that the feedthrough (181, 182) is arranged within the outer contour of the wiper arm head.