mhurhangee/ep-ind-claims huggingface dataset:
A method for manufacturing a connector having a conductive housing including a rear wall continuing to a front annular wall, and at least one tube wall comprising a through hole communicating with a front opening of the front annular wall, the tube wall continuing to down the rear wall in a vertical direction, the method comprising the steps of: (a) passing a shield electric wire from a lower opening of the tube wall of the conductive housing to a front opening of the annular wall while bending the shield electric wire; (b) putting a shield terminal movably around the shield electric wire from top of the shield electric wire; (c) exposing a core wire and a braid of the shield electric wire by stripping a tip thereof; (d) connecting an L-shaped terminal to the core wire; (e) mounting a divisible L-shaped insulation inner housing outside the L-shaped terminal to accommodate said L-shaped terminal, said inner housing comprising a vertical and horizontal tube; (f) connecting the shield terminal to the braid; and (g) accommodating the vertical tube of the inner housing within the conductive housing by pulling the shield electric wire in an direction contrary to that of the shield electric wire passed through, so as to project the horizontal tube of the inner housing from the front opening of the annular wall. (a) passing a shield electric wire from a lower opening of the tube wall of the conductive housing to a front opening of the annular wall while bending the shield electric wire; (b) putting a shield terminal movably around the shield electric wire from top of the shield electric wire; (c) exposing a core wire and a braid of the shield electric wire by stripping a tip thereof; (d) connecting an L-shaped terminal to the core wire; (e) mounting a divisible L-shaped insulation inner housing outside the L-shaped terminal to accommodate said L-shaped terminal, said inner housing comprising a vertical and horizontal tube; (f) connecting the shield terminal to the braid; and (g) accommodating the vertical tube of the inner housing within the conductive housing by pulling the shield electric wire in an direction contrary to that of the shield electric wire passed through, so as to project the horizontal tube of the inner housing from the front opening of the annular wall.
A method of improving diagnostic and functional imaging, comprising: a) obtaining at least one input image of a subject, using a medical imager, wherein said at least one input image comprises a first contrast; b) generating one or more copies of said at least one input image of said subject using spatial filtering, using an appropriately programmed computer, wherein said one or more copies comprises different spatial characteristics; c) applying, using said appropriately programmed computer, a trained deep network on said at least one input image and said one or more copies of said at least one input image of said subject to generate an output image, wherein said trained deep network comprises data augmentation and is trained based on at least one reference image, wherein said at least one reference image comprises a second contrast that is higher than said first contrast; and d) outputting the output image for analysis or visualization by a user. a) obtaining at least one input image of a subject, using a medical imager, wherein said at least one input image comprises a first contrast; b) generating one or more copies of said at least one input image of said subject using spatial filtering, using an appropriately programmed computer, wherein said one or more copies comprises different spatial characteristics; c) applying, using said appropriately programmed computer, a trained deep network on said at least one input image and said one or more copies of said at least one input image of said subject to generate an output image, wherein said trained deep network comprises data augmentation and is trained based on at least one reference image, wherein said at least one reference image comprises a second contrast that is higher than said first contrast; and d) outputting the output image for analysis or visualization by a user.
A method of manufacturing a contact lens, the method comprising manufacturing a rod of lens material, the rod containing a plurality of electronic components spaced apart along its length, separating the rod into at least one lens blank containing at least one of said electronic components, and machining the front and/or back surface of the lens blank to produce a contact lens containing the at least one electronic component, CHARACTERISED IN THAT: manufacturing the rod of lens material comprises producing a first length of rod including a first one of a plurality of electronic components and then producing a second length of the rod, said second length including a second one of the plurality of electronic components.
Method of assembling a tubular electrical actuator for driving, about an axis of rotation (X-X'), a winding tube of a screen for closing, solar protection or projection, this actuator comprising at least: - an electric motor, - a reducer driven by the electric motor, - a unit for controlling the electric motor, - a head for interface with a structure forming a support and - a tube, of circular section, for receiving the electric motor, the reducer, the control unit and the interface head in a configuration where an output shaft of the reducer extends beyond a first end of the tube and where the interface head extends beyond a second end of this tube opposite the first end, characterised in that this method comprises steps consisting of: a) providing, on the periphery of a first end of the reducer turned towards its output shaft, at least one first relief such that this end is not of circular section; b) forming, outside the tube, an assembly comprising, in this order, at least the reducer, the motor, the control unit and at least one part of the interface head, by making integral in rotation each of the elements of this assembly with each adjacent element; c) introducing, in the tube and through its second end, the assembly formed in step c), beginning with the reducer, until the output shaft of the reducer extends from the first end of the tube; d) making integral in rotation the reducer and the tube via a second relief, provided at the level of the first end of the tube and such that this end is not of circular section, so that the second relief engages with the first relief. - an electric motor, - a reducer driven by the electric motor, - a unit for controlling the electric motor, - a head for interface with a structure forming a support and - a tube, of circular section, for receiving the electric motor, the reducer, the control unit and the interface head in a configuration where an output shaft of the reducer extends beyond a first end of the tube and where the interface head extends beyond a second end of this tube opposite the first end, a) providing, on the periphery of a first end of the reducer turned towards its output shaft, at least one first relief such that this end is not of circular section; b) forming, outside the tube, an assembly comprising, in this order, at least the reducer, the motor, the control unit and at least one part of the interface head, by making integral in rotation each of the elements of this assembly with each adjacent element; c) introducing, in the tube and through its second end, the assembly formed in step c), beginning with the reducer, until the output shaft of the reducer extends from the first end of the tube; d) making integral in rotation the reducer and the tube via a second relief, provided at the level of the first end of the tube and such that this end is not of circular section, so that the second relief engages with the first relief.
A method for bonding a chip to a polymer substrate by means of heat bonding material disposed there between, wherein the heat bonding material has material properties which cause it to form a bond when its temperature is elevated to a bonding temperature (Tb), the method comprising: pre-heating at least the substrate from an initial temperature (Ti) to an elevated temperature (Te) remaining below a glass transition temperature (Td_s) of the substrate; applying a light pulse (Hp) to the chip by means of a flash lamp to momentarily increase the temperature of the chip to a pulsed peak temperature(Tpp_c) remaining below a peak damage temperature of the chip; wherein the momentarily increased pulsed peak temperature (Tpp_c) of the chip causes a flow of conducted heat from the chip to the bonding material, wherein the conducted heat causes the bonding material to reach the bonding temperature (Tb) to form a bond between the chip and the substrate; wherein the flow of conducted heat from the chip to the substrate causes a pulsed heating of the substrate, wherein the substrate momentarily reaches a temperature above the glass transition temperature (Td_s), but below a peak damage temperature of the substrate, for a short period of time of less than 100 ms. pre-heating at least the substrate from an initial temperature (Ti) to an elevated temperature (Te) remaining below a glass transition temperature (Td_s) of the substrate; applying a light pulse (Hp) to the chip by means of a flash lamp to momentarily increase the temperature of the chip to a pulsed peak temperature(Tpp_c) remaining below a peak damage temperature of the chip; wherein the momentarily increased pulsed peak temperature (Tpp_c) of the chip causes a flow of conducted heat from the chip to the bonding material, wherein the conducted heat causes the bonding material to reach the bonding temperature (Tb) to form a bond between the chip and the substrate; wherein the flow of conducted heat from the chip to the substrate causes a pulsed heating of the substrate, wherein the substrate momentarily reaches a temperature above the glass transition temperature (Td_s), but below a peak damage temperature of the substrate, for a short period of time of less than 100 ms.
A bearing (20; 150; 152) comprising: an inner race; an outer race; and a plurality of rolling elements, wherein: the inner race comprises a nitrogen-alloyed steel; and the outer race comprises a steel with lower nitrogen content than said nitrogen-alloyed steel characterized in that the outer race comprises a coating along a track, the coating not being along a track of the inner race. an inner race; an outer race; and a plurality of rolling elements, the inner race comprises a nitrogen-alloyed steel; and the outer race comprises a steel with lower nitrogen content than said nitrogen-alloyed steel characterized in that the outer race comprises a coating along a track, the coating not being along a track of the inner race.
Laboratory balance, comprising a housing, a base body with an upper side facing a weighing pan and an underside facing in the opposite direction of the upper side; said laboratory balance further comprising a draft shield mounted on the upper side of the base body, wherein the draft shield has a top wall, a first sidewall, a second sidewall arranged parallel to the first sidewall, and a front wall, and wherein the first sidewall is operable by a first motor unit characterized in that the first motor unit is located in the base body and the underside of the base body comprises a first opening to access the first motor unit wherein said first opening is arranged at a location vertically below the housing.
A method of operating an access network comprising at least one access node (10, 11, 12, 13, 14), a relay component, and a plurality of network access servers (20, 21, 22), the access node (10, 11, 12, 13, 14) including a plurality of ports each connected to a Customer Premises Equipment, CPE, the method comprising: generating data at the access node (10, 11, 12, 13, 14) for transmission to one of the network access servers (20, 21, 22); transmitting the data to the relay component; identifying at the relay component one of the plurality of network access servers (20, 21, 22) to which the data should be sent; generating a message for sending to the identified network access server incorporating the data; and transmitting the generated message to the identified network access server, the method characterised in that: the data is transmitted to the relay component together with an access node port identifier, and identifying one of the plurality of network access servers (20, 21, 22) to which the data should be sent includes determining, from a lookup table stored within the relay component, a Communications Provider, CP, identifier associated with the access node port identifier and the network access server of the plurality of network access servers (20, 21, 22) associated with the CP identifier. generating data at the access node (10, 11, 12, 13, 14) for transmission to one of the network access servers (20, 21, 22); transmitting the data to the relay component; identifying at the relay component one of the plurality of network access servers (20, 21, 22) to which the data should be sent; generating a message for sending to the identified network access server incorporating the data; and transmitting the generated message to the identified network access server, the method characterised in that: the data is transmitted to the relay component together with an access node port identifier, and identifying one of the plurality of network access servers (20, 21, 22) to which the data should be sent includes determining, from a lookup table stored within the relay component, a Communications Provider, CP, identifier associated with the access node port identifier and the network access server of the plurality of network access servers (20, 21, 22) associated with the CP identifier. the data is transmitted to the relay component together with an access node port identifier, and identifying one of the plurality of network access servers (20, 21, 22) to which the data should be sent includes determining, from a lookup table stored within the relay component, a Communications Provider, CP, identifier associated with the access node port identifier and the network access server of the plurality of network access servers (20, 21, 22) associated with the CP identifier.
A head harness for a patient interface, wherein the head harness is formed from at least one fabric strap, wherein the fabric strap has, at least regionally, a reinforced region, wherein the fabric strap has a width, a length, and a thickness, wherein the reinforced region produces a reinforcement such that the fabric strap is less movable in the direction of the width than in the direction of the thickness, wherein the fabric strap has a first fabric layer and a second fabric layer, wherein an intermediate layer is formed between the first fabric layer and the second fabric layer and comprises the greatest portion of the thickness, characterized in that the intermediate layer has or forms the reinforced region, wherein the intermediate layer is a foam layer.
A power generation system comprising: a power generation unit that includes a combustor; a casing that accommodates said power generation unit; a ventilator that ventilates an interior of said casing; a first gas flow passage, arranged inside said casing, for a flow therethrough of gas which flows as said ventilator operates; a second gas flow passage, arranged inside said casing, for a flow therethrough of combustion exhaust gas from said power generation unit; wherein within said casing, said second gas flow passage merges into said first gas flow passage, and wherein said ventilator is disposed more upstream than a merging point of said first and second gas flow passages (5, 6) in said first gas flow passage.
Device for tempering edible products, in particular chocolate articles, in at least one mould after the edible products is filled into this mould, wherein trays for the moulds are provided on a wall and slots (11.1, 11.2; 13.1, 13.2) are provided in the wall above and below the mould for the discharge of a tempering medium, wherein the trays are formed as profiles, characterized in, that the tray has a channel section from which an edge strip (9.1, 9.2) projects laterally in each case, on which the mould rests and which is open towards the wall, lower slots (11.1, 11.2) being provided at the height of the channel section below the mould and a lower edge of the lower slot (11.1, 11.2) lying in the plane of a channel bottom.
Use of one, two, three or more compounds selected from the group consisting of compound of the formula (Ia) (Theanine) preferably L-Theanine, and its pharmaceutically acceptable salts, for the inhibition of the oxidation of fatty acids and/or triacylglycerols, catalyzed by divalent metal ions or metal ions of higher valence, and/or of the rancidification, catalyzed by metal ions, of products, which comprise one or more fatty acids and/or one or more triacylglycerols. compound of the formula (Ia) (Theanine) preferably L-Theanine, and its pharmaceutically acceptable salts,
An apparatus to be included in a user equipment (405, 505), the apparatus comprising: TCP layer circuitry (412, 510) configured to generate a plurality of TCP packets (414, 552) intended for transmission to a remote host (470, 530); an agent (416, 412), coupled with the TCP layer circuitry (412, 510), configured to intercept the plurality of TCP packets (414, 552), configured to encapsulate payload data from the plurality of TCP packets (414, 552) into a plurality of data packets (418, 556) according to another protocol, and configured to provide acknowledgment data to the TCP layer circuitry (412, 510) based ARQ data that is based on transmission of the plurality of data packets (418, 556); and link layer circuitry (454, 456, 514), coupled with the agent (416, 412), configured to determine the ARQ data based on the transmission of the plurality of data packets (418, 556) over a network. TCP layer circuitry (412, 510) configured to generate a plurality of TCP packets (414, 552) intended for transmission to a remote host (470, 530); an agent (416, 412), coupled with the TCP layer circuitry (412, 510), configured to intercept the plurality of TCP packets (414, 552), configured to encapsulate payload data from the plurality of TCP packets (414, 552) into a plurality of data packets (418, 556) according to another protocol, and configured to provide acknowledgment data to the TCP layer circuitry (412, 510) based ARQ data that is based on transmission of the plurality of data packets (418, 556); and link layer circuitry (454, 456, 514), coupled with the agent (416, 412), configured to determine the ARQ data based on the transmission of the plurality of data packets (418, 556) over a network.
A device for cutting a coconut, the device comprising: a support structure; a coconut clasper mounted on the support structure and having a pair of opposed jaws adapted for clasping opposed ends of a coconut, each jaw being rotatable about an axis to permit rotation of a coconut clasped in the opposed jaws; and a cutter mounted on the support structure and positioned for cutting a coconut clasped in the opposed jaws, characterized in that the device includes a coconut centring mechanism to cause simultaneous movement of the opposed jaws to align the mid-point of a coconut clasped in the pair of opposed jaws with the position of the cutter, such that, in use, the cutter acts at approximately the mid-point of the coconut. a support structure; a coconut clasper mounted on the support structure and having a pair of opposed jaws adapted for clasping opposed ends of a coconut, each jaw being rotatable about an axis to permit rotation of a coconut clasped in the opposed jaws; and a cutter mounted on the support structure and positioned for cutting a coconut clasped in the opposed jaws, characterized in that the device includes a coconut centring mechanism to cause simultaneous movement of the opposed jaws to align the mid-point of a coconut clasped in the pair of opposed jaws with the position of the cutter, such that, in use, the cutter acts at approximately the mid-point of the coconut.
A positive electrode active material for a secondary battery, the positive electrode active material being made of secondary particles that include primary particles having a rectangular parallelepiped shape, the rectangular parallelepiped having at least one of vertices and edges formed in a round shape that is convex outward, wherein: 1% to 40% of a total surface area of the secondary particles has open porosity; and the primary particles include a lithium composite metal oxide of Formula 1 below. [Formula 1] Li a Ni 1-x-y Co x M1 y M3 z M2 w O 2, wherein, in Formula 1, M1 is at least one selected from the group consisting of Al and Mn, M2 is any one or two or more elements selected from the group consisting of Zr, Ti, Mg, Ta, and Nb, M3 is any one or two or more elements selected from the group consisting of W, Mo, and Cr, and 1.0≤a≤1.5, 0<x≤0.5, 0<y≤0.5, 0.002≤z≤03, 0≤w≤0.02, 0≤x+y≤0.7. 1% to 40% of a total surface area of the secondary particles has open porosity; and the primary particles include a lithium composite metal oxide of Formula 1 below. [Formula 1] Li a Ni 1-x-y Co x M1 y M3 z M2 w O 2, wherein, in Formula 1, M1 is at least one selected from the group consisting of Al and Mn, M2 is any one or two or more elements selected from the group consisting of Zr, Ti, Mg, Ta, and Nb, M3 is any one or two or more elements selected from the group consisting of W, Mo, and Cr, and 1.0≤a≤1.5, 0<x≤0.5, 0<y≤0.5, 0.002≤z≤03, 0≤w≤0.02, 0≤x+y≤0.7.
A method of fabricating a device, comprising: depositing a metal layer over a patterned, soft elastomeric stamp; and transferring the metal layer from the patterned, soft elastomeric stamp onto a substrate by cold welding a layer deposited over the patterned, soft elastomeric stamp to a layer on the substrate or to the substrate, wherein cold welding means a cold formation of a bond at about room temperature between two metal surfaces by application of sufficient pressure to decrease an interfacial separation below a critical value. depositing a metal layer over a patterned, soft elastomeric stamp; and transferring the metal layer from the patterned, soft elastomeric stamp onto a substrate by cold welding a layer deposited over the patterned, soft elastomeric stamp to a layer on the substrate or to the substrate, wherein cold welding means a cold formation of a bond at about room temperature between two metal surfaces by application of sufficient pressure to decrease an interfacial separation below a critical value.