mhurhangee/ep-ind-claims huggingface dataset:
A quality control process for an adhesive joint of two sub-components of a structure, characterized in that it comprises the following steps: a) Providing one of the sub-components of the structure of composite material to be controlled; b) Providing at least one premanufactured testing device representative of the other sub-component of the structure; the testing device being formed by a main body which is fixable to the surface of the sub-component to be tested and a disposable head joined through a frangible neck, the main body having a planar surface which will be joined to the surface of the sub-component and a non-adherent release film which will be partially interposed between the testing device and the planar surface of the sub-component; c) Bonding said at least one premanufactured testing device to the other sub-component of the structure in conditions similar to those of the real adhesive joint of said sub-components, using a joining adhesive of the same type of adhesive as the one used in the represented joint or at least a joining adhesive with a shearing strength and toughness greater than that of the frangible neck, d) Carrying out at least one mechanical test on said at least one premanufactured testing device which allows assessing the quality of said adhesive joint. a) Providing one of the sub-components of the structure of composite material to be controlled; b) Providing at least one premanufactured testing device representative of the other sub-component of the structure; the testing device being formed by a main body which is fixable to the surface of the sub-component to be tested and a disposable head joined through a frangible neck, the main body having a planar surface which will be joined to the surface of the sub-component and a non-adherent release film which will be partially interposed between the testing device and the planar surface of the sub-component; c) Bonding said at least one premanufactured testing device to the other sub-component of the structure in conditions similar to those of the real adhesive joint of said sub-components, using a joining adhesive of the same type of adhesive as the one used in the represented joint or at least a joining adhesive with a shearing strength and toughness greater than that of the frangible neck, d) Carrying out at least one mechanical test on said at least one premanufactured testing device which allows assessing the quality of said adhesive joint.
Multi-lobe tank for containing pressurized liquids, such as liquefied gas, for mounting into a ships hull, wherein the tank comprises at least a first longitudinally extending multi-lobe tank part having a center line and a second longitudinally extending multi-lobe tank part having a center line that are positioned behind each other resulting in a forward multi-lobe tank part and a rear multi-lobe tank part with aligned center lines, wherein the first part is tapered towards an end of the first part characterised in that the multi-lobe tank further comprises a transverse web at the connection between the first part and the second part.
A white ink composition, comprising: an ink vehicle comprising at least one compound chosen from acrylate monomers, methacrylate monomers, acrylate oligomers and methacrylate oligomers; at least one polyester resin that exhibits a crystalline structure at temperatures at or below a recrystallization temperature and that has a melting temperature below 120°C; at least one photoinitiator; a filler comprising at least one component chosen from clay fillers and silica fillers; and at least one white colorant. an ink vehicle comprising at least one compound chosen from acrylate monomers, methacrylate monomers, acrylate oligomers and methacrylate oligomers; at least one polyester resin that exhibits a crystalline structure at temperatures at or below a recrystallization temperature and that has a melting temperature below 120°C; at least one photoinitiator; a filler comprising at least one component chosen from clay fillers and silica fillers; and at least one white colorant.
A trisiloxane of the general Formula: wherein R is hydrogen or methyl; Y 1 is hydrogen or hydroxyl; and, Y 2 is hydrogen or hydroxyl, with the proviso that at least one Y 1 or Y 2 is a hydroxyl group.
Optical light-transmission element for a solar energy assembly with at least one solar cell, comprising at least one harvesting portion for directing solar light onto the solar cell, wherein the optical light-transmission element further comprises at least one alignment control portion for concentrating solar light onto a focusing region, and the alignment control portion is formed by a modification of a structure of the harvesting portion, a ratio of a surface area of the harvesting portion to a surface area of the alignment control portion is at least 10:1, and wherein the at least one harvesting portion is comprised within a circumference determining the active area of the harvesting portion, characterised in that the alignment control portion is located at the circumference.
A marine sanitising and deodorising device for a marine toilet, the device comprising a water inlet conduit and a reservoir for containing sanitising fluid, a dose controllable pump for discharging a predetermined dose of sanitising fluid from the reservoir into the water inlet conduit of the marine toilet, a flow detector for detecting the flow of water within the water inlet conduit, and a controller for controlling the dose controllable pump upon flow detection by the in use flow detector, wherein the dose controllable pump has a microbore conduit that extends into and along a longitudinal extent of the water inlet conduit, such that an outlet of the microbore conduit is at or proximate an inlet of the water inlet conduit.
Method for hydrogenation of metals and their alloys by placing a hydrogen storage material into hydrogen gas plasma and its saturation with hydrogen, characterised by (a) covering the hydrogen storage material with a 10-100 nm Ni cap layer deposited by any known nanocoating deposition technique, (b) placing the hydrogen storage material with a thin Ni cap layer into the activation/hydrogenation chamber, (c) evacuating the activation/hydrogenation chamber down to 10 -2 Pa or lower vacuum, (d) applying Ar or Ar+H 2 gas mixture containing from 0 up to 99% of hydrogen to the activation/hydrogenation chamber until 0,1-1000 Pa pressure is reached, (e) delivering the voltage to electrodes and initiating the Ar+H 2 plasma, (f) forming Ni nanocatalyst clusters on the surface of the hydrogen storage material, (g) increasing the hydrogen pressure in the chamber up to several tens of bars, and increasing the temperature in the chamber up to a few hundred degrees Celsius, (h) transporting the hydrogen molecules, split into hydrogen atoms due to interaction with Ni nanocatalysts, from the activated surface of the hydrogen storage material to the bulk through the grain boundaries and forming a metal hydride due to interaction between neighbouring hydrogen atoms. (a) covering the hydrogen storage material with a 10-100 nm Ni cap layer deposited by any known nanocoating deposition technique, (b) placing the hydrogen storage material with a thin Ni cap layer into the activation/hydrogenation chamber, (c) evacuating the activation/hydrogenation chamber down to 10 -2 Pa or lower vacuum, (d) applying Ar or Ar+H 2 gas mixture containing from 0 up to 99% of hydrogen to the activation/hydrogenation chamber until 0,1-1000 Pa pressure is reached, (e) delivering the voltage to electrodes and initiating the Ar+H 2 plasma, (f) forming Ni nanocatalyst clusters on the surface of the hydrogen storage material, (g) increasing the hydrogen pressure in the chamber up to several tens of bars, and increasing the temperature in the chamber up to a few hundred degrees Celsius, (h) transporting the hydrogen molecules, split into hydrogen atoms due to interaction with Ni nanocatalysts, from the activated surface of the hydrogen storage material to the bulk through the grain boundaries and forming a metal hydride due to interaction between neighbouring hydrogen atoms.
A method of storing data, the method comprising: determining whether data of a variable for a plurality of graphics items is the same, wherein the variable is needed for processing each of the plurality of graphics items, wherein the plurality of graphics items are processed with respective processing elements of a shader core of a graphics processing unit during execution of a shader program, and wherein each of the graphics items is a base unit on which processing occurs; characterized by: storing the data in a storage location of a shared general purpose register (SGPR) associated with the variable if the data of the variable of the plurality of graphics items is the same; and storing data for the variable of each of the plurality of graphics items in multiple storage locations of a general purpose register, separate from the SGPR, if the data of the variable of at least two of the plurality of graphics items is not the same. determining whether data of a variable for a plurality of graphics items is the same, wherein the variable is needed for processing each of the plurality of graphics items, wherein the plurality of graphics items are processed with respective processing elements of a shader core of a graphics processing unit during execution of a shader program, and wherein each of the graphics items is a base unit on which processing occurs; characterized by: storing the data in a storage location of a shared general purpose register (SGPR) associated with the variable if the data of the variable of the plurality of graphics items is the same; and storing data for the variable of each of the plurality of graphics items in multiple storage locations of a general purpose register, separate from the SGPR, if the data of the variable of at least two of the plurality of graphics items is not the same. storing the data in a storage location of a shared general purpose register (SGPR) associated with the variable if the data of the variable of the plurality of graphics items is the same; and storing data for the variable of each of the plurality of graphics items in multiple storage locations of a general purpose register, separate from the SGPR, if the data of the variable of at least two of the plurality of graphics items is not the same.
A liquid composition comprising (i) minoxidil, (ii) bile acid or a salt thereof, (iii) an aqueous medium in an amount of 70% by weight or more of the weight of the composition; and (iv) at least one of gelatin, acid-treated gelatin, casein, globulin, fibroin, fibrinogen, keratin, ferritin, laminin, fibronectin and vitronectin, or a salt of any thereof, the liquid composition being substantially free of an organic solvent selected from ethanol, propylene glycol, dipropylene glycol, 1,3-butylene glycol, pentylene glycol and dipentylene glycol. the liquid composition being substantially free of an organic solvent selected from ethanol, propylene glycol, dipropylene glycol, 1,3-butylene glycol, pentylene glycol and dipentylene glycol.
A compound of the general formula I: or pharmaceutically acceptable salt or solvate thereof, wherein R 2a, R 2b, R 3, R 10, R 11 and R 12 are each independently hydrogen; R 5, R 6a, R 6b and R 8 are each independently hydrogen; R 7 is NR 7a R 7b; R 4a, R 4b, R 7a and R 7b are each independently hydrogen or C 1-6 alkyl; R 9a and R 9b are each independently: any one of them is hydrogen, and other one is: (a) cyclobutyl or 6- to 12-membered spirocyclic group, the above groups are unsubstituted or substituted by 1 to 3 substituent(s) which may be the same or different and selected from Q 1; or (b) cyclobutylC 1-6 alkyl or 6- to 12-membered spirocyclic group C 1-6 alkyl, the above groups are unsubstituted or substituted by 1 to 3 substituent(s) which may be the same or different and selected from Q 1, and carbon(s) in said cyclobutyl may be replaced by one oxygen atom; alternatively, R 9a and R 9b together with the nitrogen atom to which they are attached form azetidinyl, 6- to 9-membered spirocyclic group or 6- to 9-membered saturated fused ring group, the above groups are unsubstituted or substituted by 1 to 3 Q 2 substituent(s) which may be the same or different, and carbon(s) in said 6- to 9-membered spirocyclic group may be replaced by one oxygen atom; Q 1 and Q 2 are independently selected from halogen, amino or C 1-6 alkyl; R 13a and R 13b are each independently hydrogen. R 2a, R 2b, R 3, R 10, R 11 and R 12 are each independently hydrogen; R 5, R 6a, R 6b and R 8 are each independently hydrogen; R 7 is NR 7a R 7b; R 4a, R 4b, R 7a and R 7b are each independently hydrogen or C 1-6 alkyl; R 9a and R 9b are each independently: any one of them is hydrogen, and other one is: (a) cyclobutyl or 6- to 12-membered spirocyclic group, the above groups are unsubstituted or substituted by 1 to 3 substituent(s) which may be the same or different and selected from Q 1; or (b) cyclobutylC 1-6 alkyl or 6- to 12-membered spirocyclic group C 1-6 alkyl, the above groups are unsubstituted or substituted by 1 to 3 substituent(s) which may be the same or different and selected from Q 1, and carbon(s) in said cyclobutyl may be replaced by one oxygen atom; alternatively, (a) cyclobutyl or 6- to 12-membered spirocyclic group, the above groups are unsubstituted or substituted by 1 to 3 substituent(s) which may be the same or different and selected from Q 1; or (b) cyclobutylC 1-6 alkyl or 6- to 12-membered spirocyclic group C 1-6 alkyl, the above groups are unsubstituted or substituted by 1 to 3 substituent(s) which may be the same or different and selected from Q 1, and carbon(s) in said cyclobutyl may be replaced by one oxygen atom; R 9a and R 9b together with the nitrogen atom to which they are attached form azetidinyl, 6- to 9-membered spirocyclic group or 6- to 9-membered saturated fused ring group, the above groups are unsubstituted or substituted by 1 to 3 Q 2 substituent(s) which may be the same or different, and carbon(s) in said 6- to 9-membered spirocyclic group may be replaced by one oxygen atom;
A method for reinforcing a vehicle subframe comprising one or more hollow metal-sheet parts, wherein the method comprises: a step of determining at least one area on the hollow metal-sheet part of the subframe with respect to specified conditions, wherein the step of determining the area is achieved by topology optimization technology in a computer; a step of preparing a reinforcement part which is able to be inserted in the hollow metal-sheet part of the subframe at said area, wherein the reinforcement part comprises a lightweight carrier for supporting the metal-sheet part and a pre-foam of a foam material which is able to expand after being heated, wherein the lightweight carrier comprises at least one hollow chamber and wherein the pre-foam is isolated from the at least one hollow chamber and is distributed at least partly on the periphery of the carrier and wherein the metal-sheet part of the subframe is thinned at the determined area; and a step of installing the reinforcement part within the metal-sheet part of the subframe at the determined area and supplying heat to the pre-foam such that it expands to secure the reinforcement part within the subframe. a step of determining at least one area on the hollow metal-sheet part of the subframe with respect to specified conditions, wherein the step of determining the area is achieved by topology optimization technology in a computer; a step of preparing a reinforcement part which is able to be inserted in the hollow metal-sheet part of the subframe at said area, wherein the reinforcement part comprises a lightweight carrier for supporting the metal-sheet part and a pre-foam of a foam material which is able to expand after being heated, wherein the lightweight carrier comprises at least one hollow chamber and wherein the pre-foam is isolated from the at least one hollow chamber and is distributed at least partly on the periphery of the carrier and wherein the metal-sheet part of the subframe is thinned at the determined area; and a step of installing the reinforcement part within the metal-sheet part of the subframe at the determined area and supplying heat to the pre-foam such that it expands to secure the reinforcement part within the subframe.
A cleaning head for a floor cleaning equipment, comprising: - a cleaning head body provided with at least one suction port at the bottom; - a base plate used for mounting a mop cloth for cleaning; - a water distributor mounted to the base plate, the water distributor comprising a housing, a water inlet provided at the top of the housing, a second chamber formed inside the housing, and at least one water outlet hole provided at the bottom of the housing; characterized in that the cleaning head further comprises: - a water supply tank used for supplying water to the mop cloth, the water supply tank being mounted to the cleaning head body and located above the base plate, the water supply tank being provided with a venting hole that communicates with the exterior, a first chamber used for storing cleaning water being provided inside the water supply tank, and a water outlet being provided at the bottom of the water supply tank, the volume of the second chamber being smaller than that of the first chamber, the first chamber, the water outlet, the water inlet, the second chamber, and the water outlet hole being in communication sequentially; - a communicating tube that puts the first chamber and the second chamber in communication, the communicating tube having a lower end opening in communication with the second chamber and an upper end opening extending into the first chamber and located in an upper portion of the first chamber. - a cleaning head body provided with at least one suction port at the bottom; - a base plate used for mounting a mop cloth for cleaning; - a water distributor mounted to the base plate, the water distributor comprising a housing, a water inlet provided at the top of the housing, a second chamber formed inside the housing, and at least one water outlet hole provided at the bottom of the housing; - a water supply tank used for supplying water to the mop cloth, the water supply tank being mounted to the cleaning head body and located above the base plate, the water supply tank being provided with a venting hole that communicates with the exterior, a first chamber used for storing cleaning water being provided inside the water supply tank, and a water outlet being provided at the bottom of the water supply tank, the volume of the second chamber being smaller than that of the first chamber, the first chamber, the water outlet, the water inlet, the second chamber, and the water outlet hole being in communication sequentially; - a communicating tube that puts the first chamber and the second chamber in communication, the communicating tube having a lower end opening in communication with the second chamber and an upper end opening extending into the first chamber and located in an upper portion of the first chamber.
Reusable container having a base and an annular, foldable wall element that forms a number of walls of the reusable container, characterised in that one of the walls incorporates a horizontal slot extending through the wall and bounded by two opposing edges (8, 9) of this wall, where inserted into the slot is a reinforcing rail that has a cross section with a U-shaped enclosing section and that encloses with this enclosing section an edge (8, 9) of the wall that bounds the slot.
Use of carbon-based nanofillers chosen from carbon nanotubes, alone or as a mixture with graphene, at a content by weight of between 25 ppm and 99 ppm, for improving the tensile properties of a polymer matrix including at least one polymer chosen from a thermoplastic polymer alone, or as a mixture with an elastomer resin base, while facilitating the shaping thereof into composite parts according to any appropriate technique, and while improving the electrostatic dissipation capacity thereof during the production of these composite parts, the said thermoplastic polymer being chosen from olefin homo- and copolymers.
A conductive composition comprising a conductive metal powder and a resin component, wherein the conductive metal powder contains a metal flake and a metal nanoparticle, wherein the metal nanoparticle has an average particle diameter of 4 to 100 nm, wherein the average particle diameter of the metal nanoparticle is a volume-based median particle diameter measured by using a transmission electron microscope, and the resin component contains an aromatic amine skeleton.
A chuck device comprising: a main body including a metal core part and an annular space coaxial with and formed around the metal core part; a rubber elastic body fitted in the annular space of the main body such that there is a pressure chamber between a circumferential wall that defines the annular space and the rubber elastic body, and that there is a clearance between the rubber elastic body and the metal core part for allowing a tubular clamping target component to be inserted therein; and a passage that communicates with the pressure chamber for introducing a fluid to the pressure chamber, wherein the rubber elastic body is deformed to expand toward the metal core part by a pressure of a fluid introduced to the pressure chamber via the passage, characterized in that the metal core part tapers so as to become gradually narrower toward its tip. a main body including a metal core part and an annular space coaxial with and formed around the metal core part; a rubber elastic body fitted in the annular space of the main body such that there is a pressure chamber between a circumferential wall that defines the annular space and the rubber elastic body, and that there is a clearance between the rubber elastic body and the metal core part for allowing a tubular clamping target component to be inserted therein; and a passage that communicates with the pressure chamber for introducing a fluid to the pressure chamber, wherein the rubber elastic body is deformed to expand toward the metal core part by a pressure of a fluid introduced to the pressure chamber via the passage,
1. A method for manufacturing a hologram pattern comprising: forming a plating layer, including a first part where unevenness is formed on a surface of a plating specimen and a second part having a strength weaker than the first part, for creating a hologram pattern by soaking the plating specimen in plating solution for creating a hologram pattern of a plating tank and applying voltage to the plating tank and creating a pattern where a specimen including a hologram pattern part formed to create unevenness on the surface of the plating layer for creating the hologram pattern by removing the second layer relatively weak in the plating layer through partially or wholly irradiating laser on the surface of the plating layer for creating the hologram pattern is formed, wherein the plating specimen includes a metal plating layer having a hologram pattern thereon. forming a plating layer, including a first part where unevenness is formed on a surface of a plating specimen and a second part having a strength weaker than the first part, for creating a hologram pattern by soaking the plating specimen in plating solution for creating a hologram pattern of a plating tank and applying voltage to the plating tank and creating a pattern where a specimen including a hologram pattern part formed to create unevenness on the surface of the plating layer for creating the hologram pattern by removing the second layer relatively weak in the plating layer through partially or wholly irradiating laser on the surface of the plating layer for creating the hologram pattern is formed, wherein the plating specimen includes a metal plating layer having a hologram pattern thereon.