mhurhangee/ep-ind-claims huggingface dataset:
A display panel comprising: a substrate including a display part with a plurality of pixels for displaying an image; an adhesive layer covering the display part on the substrate; and a heat dissipation member on the adhesive layer, wherein the heat dissipation member comprises: a first metal layer; a middle layer provided on the first metal layer and including a plurality of partition walls; and a second metal layer provided on the middle layer to face the first metal layer with the middle layer therebetween, characterized in that the middle layer further includes an organic layer, wherein a plurality of magnetic particles are dispersed in the organic layer. a substrate including a display part with a plurality of pixels for displaying an image; an adhesive layer covering the display part on the substrate; and a heat dissipation member on the adhesive layer, wherein the heat dissipation member comprises: a first metal layer; a middle layer provided on the first metal layer and including a plurality of partition walls; and a second metal layer provided on the middle layer to face the first metal layer with the middle layer therebetween, characterized in that the middle layer further includes an organic layer, wherein a plurality of magnetic particles are dispersed in the organic layer. a first metal layer; a middle layer provided on the first metal layer and including a plurality of partition walls; and a second metal layer provided on the middle layer to face the first metal layer with the middle layer therebetween, characterized in that the middle layer further includes an organic layer, wherein a plurality of magnetic particles are dispersed in the organic layer.
Device for aiming a rocket launching container having a lateral-directing part and a height-directing part which is arranged on the lateral-directing part and intended for receiving the rocket launching container, wherein the lateral-directing part has a telescopically designed lifting element for raising and lowering the height-directing part, characterized in that the lifting element is designed as a pivotable raising lever and a pivoting stroke and a telescoping stroke of the lifting element can be added to give a larger total stroke, wherein the pivoting and telescoping movement of the lifting element can either be superimposed or carried out in succession.
An eddy current sensor array for non-destructive inspection of a metal object comprising: one or more plus-point coils; and a flexible printed circuit arranged in a substantially rectangular configuration having first and second parallel sides, third and fourth parallel sides, and a plurality of adjacent strips arranged in a first plane and having first and second ends, said first and second ends being contiguous with said first and second parallel sides, respectively, each of said strips containing a pair of coils, a first coil being proximate to said first end and a second coil being proximate to said second end, each of said coils being configured to excite an eddy current in the metal object or to sense said eddy current, each of said strips being independently flexible from one another, and wherein said eddy current sensor array is configured to be scanned over the metal object in a direction orthogonal to said first and second parallel sides. one or more plus-point coils; and a flexible printed circuit arranged in a substantially rectangular configuration having first and second parallel sides, third and fourth parallel sides, and a plurality of adjacent strips arranged in a first plane and having first and second ends, said first and second ends being contiguous with said first and second parallel sides, respectively, each of said strips containing a pair of coils, a first coil being proximate to said first end and a second coil being proximate to said second end, each of said coils being configured to excite an eddy current in the metal object or to sense said eddy current, each of said strips being independently flexible from one another, and wherein said eddy current sensor array is configured to be scanned over the metal object in a direction orthogonal to said first and second parallel sides.
A bidirectional driving mechanism for electric scissors blades, comprising a fixed seat, a driving gear, a rotating shaft member, an upper blade group and a lower blade, wherein the driving gear and the rotating shaft member are arranged on the fixed seat, the lower blade and the upper blade group rotate around the rotating shaft member, an outer rack is arranged at arear part of the lower blade, a front part of the upper blade group is an upper blade, a rear part of the upper blade group is a meshing block, and an inner rack is arranged at a rear part of the meshing block; and the inner rack and the outer rack are respectively meshed with both sides of the driving gear; a pin hole E is provided in the front part of the meshing block, a pin hole F is provided in the rear part of the upper blade, and a pin is connected in both the pin hole E and the pin hole F, the bidirectional driving mechanism is characterized that, a first protrusion is arranged at the front part of the meshing block, and the pin hole E is located at the first protrusion; and a second protrusion is arranged at the rear part of the upper blade, and the pin hole F is located at the second protrusion.
A method of forming a semiconductor device, the method comprising: providing a Group III nitride semiconductor layer; providing a first layer of a first metal on the Group III nitride semiconductor layer; providing a second layer on the first layer of the first metal, wherein the second layer includes a layer of silicon and a layer of a second metal, and wherein the first and second metals are different, wherein the layer of silicon comprises at least two layers of silicon and wherein the layer of the second metal comprises at least one layer of the second metal separating the at least two layers of silicon; and annealing the second layer including the at least two layers of silicon and the at least one layer of the second metal to form a silicide layer including the second metal while maintaining at least a portion of the first layer of the first metal between the silicide layer and the Group III nitride semiconductor layer. providing a Group III nitride semiconductor layer; providing a first layer of a first metal on the Group III nitride semiconductor layer; providing a second layer on the first layer of the first metal, wherein the second layer includes a layer of silicon and a layer of a second metal, and wherein the first and second metals are different, wherein the layer of silicon comprises at least two layers of silicon and wherein the layer of the second metal comprises at least one layer of the second metal separating the at least two layers of silicon; and annealing the second layer including the at least two layers of silicon and the at least one layer of the second metal to form a silicide layer including the second metal while maintaining at least a portion of the first layer of the first metal between the silicide layer and the Group III nitride semiconductor layer.
A ladder comprising: a first pair of rails including a first rail and a second rail spaced apart from the first rail; a plurality of rungs extending between and coupled to the first rail and the second rail; a first hook positioned adjacent an upper end of the first rail; a second hook positioned adjacent an upper end of the second rail; a securing apparatus coupled adjacent the upper end of the first pair of spaced apart rails, the securing apparatus including a first engagement member pivotally coupled with the first rail and a second engagement member pivotally coupled with the second rail; wherein the first engagement member is associated with the first hook and the second engagement member is associated with the second hook;and wherein each of the first engagement member and the second engagement member includes a cup portion; and wherein the securing apparatus comprises a cross-member coupled between the first engagement member and the second engagement member of the engagement members; characterised in that: upon application of force to a portion of at least one of the first engagement member and the second engagement member by an overhead, horizontal support member, the first engagement member, the second engagement member and the cross-member cooperatively pivot relative to the first hook and the second hook to cooperatively encircle the overhead support member. a first pair of rails including a first rail and a second rail spaced apart from the first rail; a plurality of rungs extending between and coupled to the first rail and the second rail; a first hook positioned adjacent an upper end of the first rail; a second hook positioned adjacent an upper end of the second rail; a securing apparatus coupled adjacent the upper end of the first pair of spaced apart rails, the securing apparatus including a first engagement member pivotally coupled with the first rail and a second engagement member pivotally coupled with the second rail; wherein the first engagement member is associated with the first hook and the second engagement member is associated with the second hook;and wherein each of the first engagement member and the second engagement member includes a cup portion; and wherein the securing apparatus comprises a cross-member coupled between the first engagement member and the second engagement member of the engagement members; characterised in that: upon application of force to a portion of at least one of the first engagement member and the second engagement member by an overhead, horizontal support member, the first engagement member, the second engagement member and the cross-member cooperatively pivot relative to the first hook and the second hook to cooperatively encircle the overhead support member.
An electro-magnetic coil (60, 70, 80) with coolant permeability wound using insulated wire (11, 21), comprising a plurality of radially arranged layers and a plurality of axially arranged turns of the insulated wire (11, 21) per layer, characterized in that the insulated wire (11, 21) has a plurality of sections (12, 13; 22, 23) along its length with different cross-sections for any pair of two adjacent sections (12 to 13; 22 to 23) such that the empty spaces formed by the axially- and radially-adjacent cross-sections of insulated wire collectively form coolant channels (110, 115, 116).
An orthodontic appliance, comprising: a plurality of discrete shell segments (302a, 302b) each including one or more cavities shaped to receive at least portions of teeth therein; and an elastic material joining the plurality of discrete shell segments (302a, 302b), thereby forming a single appliance shell, wherein the elastic material forms an elastic layer and: (a) comprises a plurality of discrete elastic material segments positioned between a pair of the plurality of discrete shell segments (302a, 302b) at or near interproximal regions of the teeth and joining the pair of the plurality of discrete shell segments over continuous attachment regions of the pair of the plurality of discrete shell segments, or (b) coats an interior surface of the plurality of discrete shell segments (302a, 302b) such that the plurality of discrete shell segments are embedded in the elastic material, joining them to each other at or near the interproximal regions to form a single appliance shell, and wherein a stiffness of the plurality of discrete shell segments (302a, 302b) is greater than a stiffness of the elastic material. a plurality of discrete shell segments (302a, 302b) each including one or more cavities shaped to receive at least portions of teeth therein; and an elastic material joining the plurality of discrete shell segments (302a, 302b), thereby forming a single appliance shell, wherein the elastic material forms an elastic layer and: (a) comprises a plurality of discrete elastic material segments positioned between a pair of the plurality of discrete shell segments (302a, 302b) at or near interproximal regions of the teeth and joining the pair of the plurality of discrete shell segments over continuous attachment regions of the pair of the plurality of discrete shell segments, or (b) coats an interior surface of the plurality of discrete shell segments (302a, 302b) such that the plurality of discrete shell segments are embedded in the elastic material, joining them to each other at or near the interproximal regions to form a single appliance shell, and (a) comprises a plurality of discrete elastic material segments positioned between a pair of the plurality of discrete shell segments (302a, 302b) at or near interproximal regions of the teeth and joining the pair of the plurality of discrete shell segments over continuous attachment regions of the pair of the plurality of discrete shell segments, or (b) coats an interior surface of the plurality of discrete shell segments (302a, 302b) such that the plurality of discrete shell segments are embedded in the elastic material, joining them to each other at or near the interproximal regions to form a single appliance shell, and wherein a stiffness of the plurality of discrete shell segments (302a, 302b) is greater than a stiffness of the elastic material.
Turbine engine assembly of an aircraft comprising a nacelle, said nacelle having an air inlet and comprising: - a structure, - an upstream cowl fixed to said structure in order to produce an aerodynamic surface and extending to the rear from the air inlet, - an articulated cowl arranged in the top part of the nacelle and at the rear of the upstream cowl and comprising a front edge arranged in front of the articulated cowl, a rear edge arranged at the rear of the articulated cowl, - an articulation arranged at the front edge and fixed between the articulated cowl and the structure, said articulation ensuring the displacement of the articulated cowl between a closed position in which the articulated cowl is in aerodynamic continuity with other cowls (110a-b) of the nacelle and an open position in which the articulated cowl frees an opening in the nacelle, and - a locking system arranged at the rear edge, and mobile between a locking position in which it blocks the displacement of the rear edge relative to the structure and an unlocking position in which it allows the displacement of the rear edge relative to the structure, in which, in closed position, the front edge is positioned under the upstream cowl, said turbine engine assembly being characterized in that the locking system comprises, on the port side and on the starboard side, a centring plate secured to the structure and pierced by a window and a bolt that is mobile on the structure, in that the locking system also comprises, for each window, a centring stud secured to the articulated cowl and which penetrates into the window in closed position and exits from the window in open position, and in that the locking system also comprises, for each bolt, a strike secured to the articulated cowl into which the bolt penetrates in closed position and from which it exits in open position when it is actuated. - a structure, - an upstream cowl fixed to said structure in order to produce an aerodynamic surface and extending to the rear from the air inlet, - an articulated cowl arranged in the top part of the nacelle and at the rear of the upstream cowl and comprising a front edge arranged in front of the articulated cowl, a rear edge arranged at the rear of the articulated cowl, - an articulation arranged at the front edge and fixed between the articulated cowl and the structure, said articulation ensuring the displacement of the articulated cowl between a closed position in which the articulated cowl is in aerodynamic continuity with other cowls (110a-b) of the nacelle and an open position in which the articulated cowl frees an opening in the nacelle, and - a locking system arranged at the rear edge, and mobile between a locking position in which it blocks the displacement of the rear edge relative to the structure and an unlocking position in which it allows the displacement of the rear edge relative to the structure,
A method of producing a veneered element (10; 20), comprising providing a substrate and a wood veneer layer (5; 21) having a first surface (14; 35) and a second surface (15; 36), the first surface (14; 35) being opposite to the second surface (15; 36), arranging an adhesive layer on the substrate and/or on the first surface (14; 35) of the wood veneer layer (5; 21), arranging the wood veneer layer (5; 21) on the substrate, pressing the wood veneer layer (5; 21) to the substrate, wherein, after pressing, adhesive from the adhesive layer is present in a first portion (11; 31) of the wood veneer layer (5; 21) extending from the first surface (14; 35) of the wood veneer layer (5; 21) and into at least 10% of the thickness of the wood veneer layer (5; 21), wherein, after pressing, the second surface (15; 36) of the wood veneer layer (5; 21) is substantially free from adhesive from the adhesive layer, and wherein, after pressing, the wood veneer layer (5; 21) is compressed to a thickness being less than or equal to 80% of its thickness prior to pressing, wherein, after pressing, a second portion of the wood veneer layer (5; 21) extending from the second surface (15; 36) of the wood veneer layer (5; 21) and into the wood veneer layer (5; 21) is substantially free from adhesive from the adhesive layer, and wherein the second portion (12; 32) of the wood veneer layer (5; 21) is extending from the second surface (15; 36) of the wood veneer layer (5; 21) and into at least 70% of the thickness of the wood veneer layer (5; 21, wherein by substantially free from adhesive from the adhesive layer is meant that at least 70% of the surface of the second surface of the wood veneer layer is free from adhesive from the adhesive layer.
A kit of parts for use in a method of removing calculus from a tooth, the kit comprising: a component A comprising a hydrogen peroxide or a precursor thereto; and a component B comprising a catalase; wherein component A and component B are each independently a liquid or a gel; and wherein at least one of component A and component B has a viscosity of less than 26 Pa·s at a shear rate of 1/s at 25 °C; and wherein the method comprises: providing the component A; providing the component B; applying the component A and the component B to the tooth, thereby generating oxygen; and removing at least a part of the calculus from the tooth. a component A comprising a hydrogen peroxide or a precursor thereto; and a component B comprising a catalase; wherein component A and component B are each independently a liquid or a gel; and wherein at least one of component A and component B has a viscosity of less than 26 Pa·s at a shear rate of 1/s at 25 °C; and wherein the method comprises: providing the component A; providing the component B; applying the component A and the component B to the tooth, thereby generating oxygen; and removing at least a part of the calculus from the tooth. providing the component A; providing the component B; applying the component A and the component B to the tooth, thereby generating oxygen; and removing at least a part of the calculus from the tooth.
A coolant cooler with a cooler block and a coolant box (2, 3) connected to the cooler block, having at least one rigid fixing means (6, 7) and at least one flexible fixing means (8, 9) for the connection to a charge air cooler, wherein the at least one rigid fixing means (6, 7) and the at least one flexible fixing means (8, 9) are integrally formed with the coolant box (2, 3) on the outer contour thereof, wherein the coolant box (2, 3) is made of plastic from which the at least one rigid fixing means (6, 7) and the at least one flexible fixing means (8, 9) are integrally formed, wherein the at least one flexible fixing means (8, 9) is formed in a spring-like manner, characterised in that the at least one flexible fixing means (8, 9) is formed in a Z-like manner and the at least one rigid fixing means (6, 7) and the at least one flexible fixing means (8, 9) of the coolant box (2, 3) can be connected to the charge air cooler by means of a screw connection (17, 18).
A positioning system comprising: a base station; and a positioning station, wherein the positioning system performs interference positioning through calculation processing based on positioning data of the base station and positioning data of the positioning station, and wherein a plurality of calculation processing items for performing the interference positioning are performed (S406, S413) in parallel with different time points as start time points characterized in that: as soon as any one of the plurality of the calculation processing items calculated a fix solution, the positioning system outputs (S408, S804, S805) the position of the positioning station based on the calculated fix solution without waiting that the other calculation processing items calculate any solution. a base station; and a positioning station, wherein the positioning system performs interference positioning through calculation processing based on positioning data of the base station and positioning data of the positioning station, and wherein a plurality of calculation processing items for performing the interference positioning are performed (S406, S413) in parallel with different time points as start time points characterized in that: as soon as any one of the plurality of the calculation processing items calculated a fix solution, the positioning system outputs (S408, S804, S805) the position of the positioning station based on the calculated fix solution without waiting that the other calculation processing items calculate any solution.
A method for producing a food-filled and sealed container, comprising filling food in a container body made of thermoplastic resin, and thereafter sealing the container by heat sealing a container lid made of thermoplastic resin, wherein a container body or container lid having a concavity or convexity on a sealing surface is used, and wherein the concavity or convexity is capable of forming gaps which are in communication with an interior and exterior of the container when the container lid is placed on the container body before the heat sealing step.
A method for producing cells that express TNF receptor 2 selectively between TNF receptor 1 (TNFR1) and TNF receptor 2 (TNFR2), the production method comprising: culturing at least one species of cells capable of expressing TNF receptor 2, and supplying the cells with a synthetic peptide consisting of a nuclear localization signal sequence or a nucleolar localization signal sequence (NoLS) to enhance expression of TNF receptor 2 in the cells. culturing at least one species of cells capable of expressing TNF receptor 2, and supplying the cells with a synthetic peptide consisting of a nuclear localization signal sequence or a nucleolar localization signal sequence (NoLS) to enhance expression of TNF receptor 2 in the cells.
A prosthetic valve comprising: one or more primary leaflets; and one or more auxiliary leaflets stored in an inactive state, the one or more auxiliary leaflets being configured to release to an active state upon diametrically expanding the prosthetic valve. one or more primary leaflets; and one or more auxiliary leaflets stored in an inactive state, the one or more auxiliary leaflets being configured to release to an active state upon diametrically expanding the prosthetic valve.