mhurhangee/ep-ind-claims huggingface dataset:
A cold spray nozzle assembly for applying a coating of particles to a substrate, comprising: a nozzle defining an inner passage having a convergent section adjacent a nozzle entrance and a divergent section adjacent a nozzle exit; a gas supply member that supplies a gas to the inner passage of the nozzle to flow through the inner passage of the nozzle; a particle supply member in communication with the inner passage, the particle supply member supplying the particles to flow and accelerate by the supplied gas through the inner passage and out of the nozzle via the nozzle exit toward the substrate to be coated thereon, wherein the nozzle includes a particle supply inlet (28a, 28b) with an axis that is transverse to a longitudinal axis of the inner passage, wherein the particle supply member is in communication with the inner passage via the particle supply inlet (28a, 28b), and a laser that emits a laser beam that is transmitted through the inner passage, the laser heating the particles and the substrate to promote coating of the substrate with the particles, such that the particles can plastically deform more readily when the particles impact the substrate, characterized in that the particle supply inlet (28a, 28b) is in direct communication with the divergent section of the inner passage of the nozzle. a nozzle defining an inner passage having a convergent section adjacent a nozzle entrance and a divergent section adjacent a nozzle exit; a gas supply member that supplies a gas to the inner passage of the nozzle to flow through the inner passage of the nozzle; a particle supply member in communication with the inner passage, the particle supply member supplying the particles to flow and accelerate by the supplied gas through the inner passage and out of the nozzle via the nozzle exit toward the substrate to be coated thereon, wherein the nozzle includes a particle supply inlet (28a, 28b) with an axis that is transverse to a longitudinal axis of the inner passage, wherein the particle supply member is in communication with the inner passage via the particle supply inlet (28a, 28b), and a laser that emits a laser beam that is transmitted through the inner passage, the laser heating the particles and the substrate to promote coating of the substrate with the particles, such that the particles can plastically deform more readily when the particles impact the substrate, characterized in that the particle supply inlet (28a, 28b) is in direct communication with the divergent section of the inner passage of the nozzle.
Insole device for shoes, in particular ballet pointe shoes, comprising a backbone shank consisting of vertebral bodies, in whose inter-vertebral spaces vertebral discs are inserted to allow for controllable flexibility of the sole, and further comprising a rubber layer arranged on the bottom of the sole, wherein the vertebral bodies of the backbone shank have centrally positioned recesses for a rubber layer, which undercut the material of the vertebral bodies on either side, and wherein fins are formed within the rubber layer, which slightly protrude on either side and slot into the said recesses on the vertebral bodies, with the lateral protrusions of the fins accurately fitting into the undercuts of the recesses, and wherein the inter-vertebral discs are insertable or removable sticks with centrally positioned recesses for the rubber layer, with which recesses the rubber layer engages, thereby preventing the sticks from slipping sideways.
A method for controlling cooling system of a power transformer, including: a) obtaining a first data set representing operational cost related parameters specific to the power transformer and its cooling system forecasted for a series of time intervals of present load cycle in consideration of a second data set representing operational condition related parameters for the power transformer forecasted for a series of time intervals of present load cycle; b) in consideration of the parameters represented by the first data set, through knowledge-based predetermined numerical and/or logical linkages, establishing a third data set representing cooling capacity parameters for the cooling system at the series of time intervals of the present load cycle according to criteria for operational cost optimization of the power transformer and its cooling system for the present entire load cycle; wherein the present load cycle comprises a current time interval and the series of time intervals scheduled afterwards, wherein correlations between different time intervals are considered; and c) in the present load cycle, controlling the cooling system to operate at the cooling capacity parameters at the series of time intervals represented by the established third data set. a) obtaining a first data set representing operational cost related parameters specific to the power transformer and its cooling system forecasted for a series of time intervals of present load cycle in consideration of a second data set representing operational condition related parameters for the power transformer forecasted for a series of time intervals of present load cycle; b) in consideration of the parameters represented by the first data set, through knowledge-based predetermined numerical and/or logical linkages, establishing a third data set representing cooling capacity parameters for the cooling system at the series of time intervals of the present load cycle according to criteria for operational cost optimization of the power transformer and its cooling system for the present entire load cycle; wherein the present load cycle comprises a current time interval and the series of time intervals scheduled afterwards, wherein correlations between different time intervals are considered; and c) in the present load cycle, controlling the cooling system to operate at the cooling capacity parameters at the series of time intervals represented by the established third data set.
An aircraft seating group, comprising: first and second laterally-adjacent passenger seats (12, 14); a center console positioned between the first and second laterally-adjacent passenger seats (12, 14); a rear privacy shell positioned behind the first and second laterally-adjacent passenger seats, the rear privacy shell extending on the width of the aircraft seating group; a vertical partition extending forward from the rear privacy shell to divide the center console; and a deployable shelf positioned on one side of the vertical partition, the deployable shelf configured to stow against the rear privacy shell and deploy to a horizontal position away from the rear privacy shell, wherein the deployable shelf deploys to a position relative to the vertical partition such that a tablet can lean against the vertical partition in a substantially upright position. first and second laterally-adjacent passenger seats (12, 14); a center console positioned between the first and second laterally-adjacent passenger seats (12, 14); a rear privacy shell positioned behind the first and second laterally-adjacent passenger seats, the rear privacy shell extending on the width of the aircraft seating group; a vertical partition extending forward from the rear privacy shell to divide the center console; and a deployable shelf positioned on one side of the vertical partition, the deployable shelf configured to stow against the rear privacy shell and deploy to a horizontal position away from the rear privacy shell, wherein the deployable shelf deploys to a position relative to the vertical partition such that a tablet can lean against the vertical partition in a substantially upright position.
An electric heating device for mobile applications, having: a substrate and a heating conductor layer that is formed on the substrate, wherein the heating conductor layer comprises at least one heating conductor track that extends in a main plane on the substrate, wherein the heating conductor track is structured in such a manner that a multiplicity of track sections are formed that extend adjacent to one another and are separated from one another by insulating gaps and at least one reversal site is provided at which the heating conductor track is deflected in such a manner that inner-lying track sections through which current is flowing in opposite directions with respect to one another extend in an adjacent and parallel manner with respect to one another, wherein the spacing between the adjacent inner-lying track sections through which current is flowing in opposite directions with respect to one another is locally widened on the inner side in the region of the reversal site, characterized in that in the region of the reversal site, the inner-lying track sections protrude outwards towards track sections that lie further outwards and are separated by insulating gaps from the inner-lying track sections and in the case of the track sections that lie further outwards the width of the track sections is locally reduced in order to compensate the local widening on the inner side between the inner-lying track sections and the protrusion of the inner-lying track sections. a substrate and a heating conductor layer that is formed on the substrate, wherein the heating conductor layer comprises at least one heating conductor track that extends in a main plane on the substrate, wherein the heating conductor track is structured in such a manner that a multiplicity of track sections are formed that extend adjacent to one another and are separated from one another by insulating gaps and at least one reversal site is provided at which the heating conductor track is deflected in such a manner that inner-lying track sections through which current is flowing in opposite directions with respect to one another extend in an adjacent and parallel manner with respect to one another, wherein the spacing between the adjacent inner-lying track sections through which current is flowing in opposite directions with respect to one another is locally widened on the inner side in the region of the reversal site, characterized in that in the region of the reversal site, the inner-lying track sections protrude outwards towards track sections that lie further outwards and are separated by insulating gaps from the inner-lying track sections and in the case of the track sections that lie further outwards the width of the track sections is locally reduced in order to compensate the local widening on the inner side between the inner-lying track sections and the protrusion of the inner-lying track sections.
A resin composition, comprising: a maleimide copolymer including an aromatic vinyl monomer unit, a vinyl cyanide monomer unit, a maleimide monomer unit and an unsaturated dicarboxylic acid monomer unit; a graft copolymer obtained by graft-polymerizing a polymer (b) having a conjugated diene monomer unit with at least one selected from the group consisting of an aromatic vinyl monomer and a vinyl cyanide monomer; and a vinyl copolymer including an aromatic vinyl monomer unit and a vinyl cyanide monomer unit and not including a maleimide monomer unit, wherein, with respect to a total amount of 100 parts by mass of the maleimide copolymer, the graft copolymer and the vinyl copolymer, a total content of the aromatic vinyl monomer unit is 55.0 to 65.0 parts by mass, a total content of the vinyl cyanide monomer unit is 15.0 to 27.0 parts by mass, a total content of the maleimide monomer unit is 3.0 to 15.0 parts by mass, a total content of the conjugated diene monomer unit is 10.0 to 20.0 parts by mass, and a total content of the unsaturated dicarboxylic acid monomer unit is 0.05 to 10.0 parts by mass, and wherein the melt mass flow rate measured by the method described in JIS K 7210 under conditions of 220°C and a load of 98 N is 3 to 23 g/10 min, wherein a total content of the maleimide copolymer, the graft copolymer and the vinyl copolymer based on a total amount of the resin composition is 90 mass% or more. a maleimide copolymer including an aromatic vinyl monomer unit, a vinyl cyanide monomer unit, a maleimide monomer unit and an unsaturated dicarboxylic acid monomer unit; a graft copolymer obtained by graft-polymerizing a polymer (b) having a conjugated diene monomer unit with at least one selected from the group consisting of an aromatic vinyl monomer and a vinyl cyanide monomer; and a vinyl copolymer including an aromatic vinyl monomer unit and a vinyl cyanide monomer unit and not including a maleimide monomer unit, wherein, with respect to a total amount of 100 parts by mass of the maleimide copolymer, the graft copolymer and the vinyl copolymer, a total content of the aromatic vinyl monomer unit is 55.0 to 65.0 parts by mass, a total content of the vinyl cyanide monomer unit is 15.0 to 27.0 parts by mass, a total content of the maleimide monomer unit is 3.0 to 15.0 parts by mass, a total content of the conjugated diene monomer unit is 10.0 to 20.0 parts by mass, and a total content of the unsaturated dicarboxylic acid monomer unit is 0.05 to 10.0 parts by mass, and wherein the melt mass flow rate measured by the method described in JIS K 7210 under conditions of 220°C and a load of 98 N is 3 to 23 g/10 min, wherein a total content of the maleimide copolymer, the graft copolymer and the vinyl copolymer based on a total amount of the resin composition is 90 mass% or more.
A stamp structure for transferring an object of semiconductor ribbon, comprising: a stamp frame (110,210,310,410,510,610,710,810), having a plate part, the plate part including a plurality of holes, the plurality of holes configured to facilitate the adsorption of the object to the plate part during a transfer of the object from a donor substrate to a target substrate; wherein the stamp frame includes a rigid material, and wherein the stamp structure further comprises a membrane on one side of the plate part, the one side being configured to be opposite to a side facing the object during the transfer of the object, the membrane including a material more flexible than the rigid material, and the membrane being arranged to cover the plurality of holes. a stamp frame (110,210,310,410,510,610,710,810), having a plate part, the plate part including a plurality of holes, the plurality of holes configured to facilitate the adsorption of the object to the plate part during a transfer of the object from a donor substrate to a target substrate; wherein the stamp frame includes a rigid material, and wherein the stamp structure further comprises a membrane on one side of the plate part, the one side being configured to be opposite to a side facing the object during the transfer of the object, the membrane including a material more flexible than the rigid material, and the membrane being arranged to cover the plurality of holes.
A power measurement apparatus configured to measure power of work done on a bicycle comprising: - an input part configured to input at least one of information on a type of the bicycle and information on a body of a cyclist on the bicycle; characterized in that - a distance measuring part is configured to measure a distance from a predetermined position of the bicycle to the cyclist; - a frontal projected area calculating part is configured to calculate a frontal projected area of a movable object that includes at least the cyclist and moves on a ground, based on the information inputted by the input part and the distance measured by the distance measuring part; and - a power measuring part is configured to measure a power of work done on the bicycle by calculating air resistance against the movable object, based on a wind velocity relative to the bicycle and the frontal projected area calculated by the frontal projected area calculating part. - an input part configured to input at least one of information on a type of the bicycle and information on a body of a cyclist on the bicycle; - a distance measuring part is configured to measure a distance from a predetermined position of the bicycle to the cyclist; - a frontal projected area calculating part is configured to calculate a frontal projected area of a movable object that includes at least the cyclist and moves on a ground, based on the information inputted by the input part and the distance measured by the distance measuring part; and - a power measuring part is configured to measure a power of work done on the bicycle by calculating air resistance against the movable object, based on a wind velocity relative to the bicycle and the frontal projected area calculated by the frontal projected area calculating part.
A spinal implant (10, 100, 200) comprising: a) an elongated body (12, 112, 212) dimensioned and configured to function as a spacer, for placement in a target interspinous process space, between two adjacent spinous processes; b) a distal anchor (20; 120; 220) associated with a distal end of the body; and c) a proximal anchor (30, 130, 230) mounted for longitudinal movement along the body between a first position spaced apart from the distal anchor and a second position approximated with the distal anchor, adapted to compress the two adjacent spinous processes, in conjunction with the distal anchor, wherein the proximal anchor (30, 130, 230) is arranged to be closer to the surgeon as the distal anchor (20, 120, 220), characterized in that the distal anchor includes an expandable tapered head, wherein the tapered head has a maximum diameter that is, in its expanded state, greater than a diameter of the elongated body, and wherein the tapered head has a plurality of circumferentially spaced apart proximally facing spikes (24, 124, 224) for engaging the spinous processes when the distal anchor and the proximal anchor are mutually approximated. a) an elongated body (12, 112, 212) dimensioned and configured to function as a spacer, for placement in a target interspinous process space, between two adjacent spinous processes; b) a distal anchor (20; 120; 220) associated with a distal end of the body; and c) a proximal anchor (30, 130, 230) mounted for longitudinal movement along the body between a first position spaced apart from the distal anchor and a second position approximated with the distal anchor, adapted to compress the two adjacent spinous processes, in conjunction with the distal anchor, wherein the proximal anchor (30, 130, 230) is arranged to be closer to the surgeon as the distal anchor (20, 120, 220),
A cartridge for a medium to be dispensed comprising a head part (6, 7) having a dispensing outlet (12, 13) and a film (4', 5') forming a cartridge wall (4, 5), with the film (4', 5') bounding a cartridge chamber (2, 3) for the medium to be dispensed, extending at least partially in a longitudinal direction of the cartridge and having a front end (8, 9) that is connected to the head part (6, 7), wherein the film (4', 5') is preferably a multilayer film having at least two layers formed from different materials, wherein the head part (6, 7) has a collar (17, 18), the collar (17, 18) surrounding the dispensing outlet (12, 13) in a radially outer region of the head part (6, 7) and extending in the longitudinal direction, wherein the front end (8, 9) of the film (4', 5') is sealingly and non-releasably connected to the collar (17, 18) of the head part (6, 7), characterised in that the collar (17, 18) of the head part (6, 7) has an inner surface (19, 20) extending in the longitudinal direction and comprising at least one projection (21, 21', 22, 22') projecting radially inwardly.
A network function NF management method, comprising: receiving (401, 901), an NF discovery request from a first NF component, wherein the NF discovery request comprises an identifier of a second NF and an identifier of an expected network slice; obtaining (402, 904), an identifier of a second NF component, wherein the second NF component supports the second NF and is located in the expected network slice; and sending (404, 905), the identifier of the second NF component, to the first NF component. receiving (401, 901), an NF discovery request from a first NF component, wherein the NF discovery request comprises an identifier of a second NF and an identifier of an expected network slice; obtaining (402, 904), an identifier of a second NF component, wherein the second NF component supports the second NF and is located in the expected network slice; and sending (404, 905), the identifier of the second NF component, to the first NF component.
Method for determining a flow direction of a coolant, wherein for the purpose of cooling at least two juxtaposed components (K1, K2) of a cooling section or within a cooling circuit the coolant flows past these components (K1, K2) in succession, with the following steps: ascertaining a first temperature which is assigned to the first component of the at least two juxtaposed components; ascertaining a second temperature which is assigned to the second component of the at least two juxtaposed components; ascertaining a difference of the ascertained temperatures; determining the flow direction of the coolant as a function of the ascertained difference. ascertaining a first temperature which is assigned to the first component of the at least two juxtaposed components; ascertaining a second temperature which is assigned to the second component of the at least two juxtaposed components; ascertaining a difference of the ascertained temperatures; determining the flow direction of the coolant as a function of the ascertained difference.
A lensless imaging device capable of acquiring an image of a sample, comprising: a support for receiving the sample, having a transparent surface; an image sensor arranged opposite said transparent surface and separated from said transparent surface by an air gap; a light source arranged on the side of the sample opposite to the sensor; and the device being characterized by a ventilation system capable of circulating a flow of air between said transparent surface and the sensor to continuously renew the air of the air gap. a support for receiving the sample, having a transparent surface; an image sensor arranged opposite said transparent surface and separated from said transparent surface by an air gap; a light source arranged on the side of the sample opposite to the sensor; and the device being characterized by a ventilation system capable of circulating a flow of air between said transparent surface and the sensor to continuously renew the air of the air gap.
A resin composition containing a resin and 50 to 99.5 wt% of a hexagonal plate shaped ferrite powder, wherein the hexagonal plate shaped ferrite powder contains 7.8 to 9 wt% of Sr, 61 to 65 wt% of Fe, and 0.1 to 0.65 wt% of Mg, the hexagonal plate shaped ferrite powder has a length in the minor axis direction of 0.5 to 3 μm and an aspect ratio of 3.5 to 9, and wherein the resin is selected from an epoxy resin, a phenol resin, a melamine resin, a urea resin, and a fluorine resin.