mhurhangee/ep-ind-claims huggingface dataset:
Method of personalizing at least two cards, each card comprising a first face, a second face and a peripheral surface, this method comprising the following steps: • forming a stack of at least two cards by superposing the first face or the second face of a card "n" in such a way that the first face or the second face of a card "n+1" is in contact with the first face or the second face of the card "n"; • aligning at least part of the peripheral surface of the card "n" with at least part of the peripheral surface of the card "n+1" using an alignment device (32, 34; 32, 38; 31, 32', 38) so that at least part of the set of peripheral surfaces of each card forms at least one uniform surface; • applying at least one product to at least part of the uniform surface using an application device, characterized in that this method is a method for personalizing at least two cards made of plastic material and having a thickness of between 0.5 mm and 4 mm, of the chip card, or loyalty or identification card type. • forming a stack of at least two cards by superposing the first face or the second face of a card "n" in such a way that the first face or the second face of a card "n+1" is in contact with the first face or the second face of the card "n"; • aligning at least part of the peripheral surface of the card "n" with at least part of the peripheral surface of the card "n+1" using an alignment device (32, 34; 32, 38; 31, 32', 38) so that at least part of the set of peripheral surfaces of each card forms at least one uniform surface; • applying at least one product to at least part of the uniform surface using an application device, characterized in that this method is a method for personalizing at least two cards made of plastic material and having a thickness of between 0.5 mm and 4 mm, of the chip card, or loyalty or identification card type.
A computer-implemented method of determining quality of experience (QoE) of ambisonic spatial audio signals, comprising: comparing, based on a neurogram similarity index measure, NSIM, a patch associated with each of a plurality of multi-directional channels of a reference ambisonic signal with a corresponding patch of a corresponding multi-directional channel of a test ambisonic signal, the test ambisonic signal generated by decoding an encoded version of the reference ambisonic signal; and determining a localization accuracy of the test ambisonic signal based on the comparison by determining an aggregated NSIM that is based on a weighted sum of NSIMs between corresponding multi-directional channels of the test ambisonic signal and the reference ambisonic signal, wherein, in the weighted sum, weights are assigned to vertical and horizontal components of the multi-directional channels in order to change the emphasis between horizontal and vertical channel similarity. comparing, based on a neurogram similarity index measure, NSIM, a patch associated with each of a plurality of multi-directional channels of a reference ambisonic signal with a corresponding patch of a corresponding multi-directional channel of a test ambisonic signal, the test ambisonic signal generated by decoding an encoded version of the reference ambisonic signal; and determining a localization accuracy of the test ambisonic signal based on the comparison by determining an aggregated NSIM that is based on a weighted sum of NSIMs between corresponding multi-directional channels of the test ambisonic signal and the reference ambisonic signal, wherein, in the weighted sum, weights are assigned to vertical and horizontal components of the multi-directional channels in order to change the emphasis between horizontal and vertical channel similarity.
A method for production of an electric module, characterized in that it comprises: - fixing at least one first electrical component (108, 110) to a first plate, wherein the fixing of each first electrical component to the first plate comprises: - depositing a bonding compound between the first electrical component (108, 110) and the first plate (102, said bonding compound having a polymerization temperature, and - heating the bonding compound to a temperature greater than or equal to the polymerization temperature of said bonding compound, in order to polymerize the bonding compound, - assembling, after polymerization of the bonding compound, each first electrical component (108, 110) to an electrical connecting bar to which at least one second electrical component is already fixed, said at least one second electrical component having a maximum normal operation temperature lower than the polymerization temperature of the bonding compound. - fixing at least one first electrical component (108, 110) to a first plate, - depositing a bonding compound between the first electrical component (108, 110) and the first plate (102, said bonding compound having a polymerization temperature, and - heating the bonding compound to a temperature greater than or equal to the polymerization temperature of said bonding compound, in order to polymerize the bonding compound, - assembling, after polymerization of the bonding compound, each first electrical component (108, 110) to an electrical connecting bar to which at least one second electrical component is already fixed, said at least one second electrical component having a maximum normal operation temperature lower than the polymerization temperature of the bonding compound.
Apparatus for electrical mapping of a pulmonary vein of a heart, comprising a catheter, which comprises: a curved section comprising a single-coil position sensor, and one or more electrodes, adapted to measure an electrical property of the pulmonary vein; and a base section having a distal end attached to a proximal end of the curved section, the base section comprising a multi-coil position sensor within 3 mm of the distal end, wherein the curved section is configured to adopt a predetermined curve when no forces arc applied to it and is shaped to generally conform to a shape of an interior surface of the pulmonary vein; and wherein the base section is a straight section, and the base section is configured to remain within the atrium outside the pulmonary vein, when the curved section is fully inserted in the pulmonary vein. a curved section comprising a single-coil position sensor, and one or more electrodes, adapted to measure an electrical property of the pulmonary vein; and a base section having a distal end attached to a proximal end of the curved section, the base section comprising a multi-coil position sensor within 3 mm of the distal end, wherein the curved section is configured to adopt a predetermined curve when no forces arc applied to it and is shaped to generally conform to a shape of an interior surface of the pulmonary vein; and wherein the base section is a straight section, and the base section is configured to remain within the atrium outside the pulmonary vein, when the curved section is fully inserted in the pulmonary vein.
An electrical mapping and cryotreatment catheter comprising: an elongate body having a proximal portion and a distal portion and a distal tip element comprising a body having a first flexibility, a first end and a second end, the first end including a barbed stem that can be inserted into the distal portion of the elongate body; the barbed stem of the distal tip element being composed of a material with a lower flexibility than the body and at least one mapping element, the at least one mapping element being an area of thermally conductive material and having a second flexibility that is at least substantially the same as the first flexibility. an elongate body having a proximal portion and a distal portion and a distal tip element comprising a body having a first flexibility, a first end and a second end, the first end including a barbed stem that can be inserted into the distal portion of the elongate body; the barbed stem of the distal tip element being composed of a material with a lower flexibility than the body and at least one mapping element, the at least one mapping element being an area of thermally conductive material and having a second flexibility that is at least substantially the same as the first flexibility.
A communication system, comprising: a first node; a second node; a third node; a first port coupled to the first node between two primary pairs of conductors and the first node for transferring non-streaming or packetized data and streaming data synchronously between the first node and the second node; and a second port coupled to the first node between two secondary pairs of conductors and the first node for transferring non-streaming or packetized data and streaming data synchronously between the first node and the third node, characterized in, by a serial bitstream of differential signals bifurcated into frames of data and sent bidirectionally across each of the two pairs of conductors, with each frame beginning with a frame coding violation and each packet of said non-streaming or packetized data within each frame beginning with a packet coding violation, and wherein the packet coding violation is a 10-bit sequence comprising three consecutive logic 0 bit values followed by 4B/5B encoded data; and wherein the frame coding violation comprises two sets of three consecutive logic 0 voltage values separated by no more than two consecutive logic 1 voltage values. a first node; a second node; a third node; a first port coupled to the first node between two primary pairs of conductors and the first node for transferring non-streaming or packetized data and streaming data synchronously between the first node and the second node; and a second port coupled to the first node between two secondary pairs of conductors and the first node for transferring non-streaming or packetized data and streaming data synchronously between the first node and the third node, characterized in, by a serial bitstream of differential signals bifurcated into frames of data and sent bidirectionally across each of the two pairs of conductors, with each frame beginning with a frame coding violation and each packet of said non-streaming or packetized data within each frame beginning with a packet coding violation, and wherein the packet coding violation is a 10-bit sequence comprising three consecutive logic 0 bit values followed by 4B/5B encoded data;
A method for controlling a lifting device which moves a load along a first movement direction and along a second movement direction within a specified working area of the lifting device in accordance with a specified trajectory from a starting point to an end point, characterized in that, at a command time point (t k) during the movement of the load, a new obstacle for the movement of the load, which obstacle is arranged between the position (Pz) taken on by the load at the command time point (t k) and the end point, is specified, and/or an existing obstacle, which is arranged between the position (Pz) taken on by the load at the command time point (t k) and the end point, is changed to a new obstacle for the movement of the load, in that, taking into account specified kinematic constraints of the lifting device, at least one individual movement (TE X, TE Y) is planned for the first movement direction and for the second movement direction respectively, which individual movement determines the further movement of the load along the respective movement direction (X, Y) from the command time point (t k) onwards, wherein at least one individual movement (TE X, TE Y) for each movement direction (X, Y) ends in a projection (E', E") of the end point onto the respective movement direction (X, Y), and in that the planned individual movements (TE X, TE Y) are executed in accordance with a specified movement sequence in order to move the load further along the first movement direction and further along the second movement direction in accordance with a replanning trajectory resulting from the movement sequence of the planned individual movements (TE X, TE Y) without colliding with the new obstacle.
Cooling device for cooling a light source located in an automotive luminous device, the cooling device comprising a heat sink intended to be in thermal contact with the light source, a plurality of fins in direct thermal contact with the heat sink, wherein each fin defines a fin line as the prolongation of the fin, in such a way that all the fin lines are parallel; a plurality of pins in direct thermal contact with the heat sink; a fan arranged to make a fluid flow from an inlet of the cooling device to an outlet to the cooling device, so that the plurality of fins are nearer the inlet than the plurality of pins; characterised in that the plurality of fins, the plurality of pins and the fan are linearly arranged; such that when the fluid is moved by the fan, it enters the inlet of the cooling device in a first direction and exits the plurality of pins in a second direction which is substantially equal to the first direction, this direction being parallel to the fin lines. a heat sink intended to be in thermal contact with the light source, a plurality of fins in direct thermal contact with the heat sink, wherein each fin defines a fin line as the prolongation of the fin, in such a way that all the fin lines are parallel; a plurality of pins in direct thermal contact with the heat sink; a fan arranged to make a fluid flow from an inlet of the cooling device to an outlet to the cooling device, so that the plurality of fins are nearer the inlet than the plurality of pins; characterised in that the plurality of fins, the plurality of pins and the fan are linearly arranged; such that when the fluid is moved by the fan, it enters the inlet of the cooling device in a first direction and exits the plurality of pins in a second direction which is substantially equal to the first direction, this direction being parallel to the fin lines.
A catheter system comprising: a catheter having a distal end, a proximal end and a body connecting said distal and proximal ends; an auxiliary elongated element having a distal end, a proximal end and a body connecting said distal and proximal ends, wherein a first portion of said auxiliary elongated element is positioned inside said body of said catheter, and a second portion of said auxiliary elongated element is positioned outside said body of said catheter; an exit point located on said body of said catheter, wherein said first portion is proximal to said exit point and said second portion is distal to said exit point; and a balloon on a distal end of the catheter, wherein the auxiliary elongated element is located outside and alongside the balloon distal to the exit point; a crotch point, wherein at said crotch point said auxiliary elongated element is attached to said catheter, and wherein said crotch point is located on said second portion of said auxiliary elongated element; characterised in that the crotch point is located at a distal end of the auxiliary elongated element. a catheter having a distal end, a proximal end and a body connecting said distal and proximal ends; an auxiliary elongated element having a distal end, a proximal end and a body connecting said distal and proximal ends, wherein a first portion of said auxiliary elongated element is positioned inside said body of said catheter, and a second portion of said auxiliary elongated element is positioned outside said body of said catheter; an exit point located on said body of said catheter, wherein said first portion is proximal to said exit point and said second portion is distal to said exit point; and a balloon on a distal end of the catheter, wherein the auxiliary elongated element is located outside and alongside the balloon distal to the exit point; a crotch point, wherein at said crotch point said auxiliary elongated element is attached to said catheter, and wherein said crotch point is located on said second portion of said auxiliary elongated element; characterised in that the crotch point is located at a distal end of the auxiliary elongated element.
A method for regeneration of at least partially spent ion-exchange resin to obtain regenerated ion-exchange resin, wherein the at least partially spent ion-exchange resin is an ion-exchange resin that was used to treat highly acidic crude oil for neutralization and desalting, said method comprising the following steps: a. contacting said partially spent ion-exchange resin with at least one non-acidic crude oil condensate to obtain partially cleansed ion-exchange resin; b. contacting said partially cleansed ion-exchange resin with at least one polar organic solvent to obtain heavy hydrocarbon free ion-exchange resin; c. treating said heavy hydrocarbon free ion-exchange resin with at least one alkali or alkaline earth metal hydroxide solution to obtain activated ion-exchange resin; d. iteratively washing said activated ion-exchange resin using demineralized water, for removing organic acids trapped in said activated ion-exchange resin, to obtain regenerated ion-exchange resin. a. contacting said partially spent ion-exchange resin with at least one non-acidic crude oil condensate to obtain partially cleansed ion-exchange resin; b. contacting said partially cleansed ion-exchange resin with at least one polar organic solvent to obtain heavy hydrocarbon free ion-exchange resin; c. treating said heavy hydrocarbon free ion-exchange resin with at least one alkali or alkaline earth metal hydroxide solution to obtain activated ion-exchange resin; d. iteratively washing said activated ion-exchange resin using demineralized water, for removing organic acids trapped in said activated ion-exchange resin, to obtain regenerated ion-exchange resin.
A routing switch apparatus, comprising: one or more direct memory access modules, characterized by at least two protocol conversion interfaces; wherein the direct memory access module is configured to generate a continuous access request of a cross network node, and control data transmission in the at least two protocol conversion interfaces, and each protocol conversion interface is configured to convert a communication protocol of data transmitted inside and outside the routing switch apparatus, and connect the routing switch apparatus and an external network node. one or more direct memory access modules, characterized by at least two protocol conversion interfaces; wherein the direct memory access module is configured to generate a continuous access request of a cross network node, and control data transmission in the at least two protocol conversion interfaces, and each protocol conversion interface is configured to convert a communication protocol of data transmitted inside and outside the routing switch apparatus, and connect the routing switch apparatus and an external network node.
An electronic device, wherein the electronic device comprises: a slot antenna, wherein the slot antenna comprises: a printed circuit board having a slot, a first capacitor, a radio frequency signal source, a transmission line, and a ground cable, wherein the printed circuit board is grounded; one end of the slot is open, and the other end is closed; a distance between the transmission line and the printed circuit board is set to a thickness of the printed circuit board; the first capacitor and the ground cable are disposed on the printed circuit board; the first capacitor is located on the open end of the slot, and is disposed on one side of the slot; the first capacitor is connected to the radio frequency signal source by using the transmission line, and the radio frequency signal source connects the transmission line to the ground cable; and the radio frequency signal source is configured to: stimulate a feeding signal, and feed the feeding signal to the open end of the slot by using the first capacitor, wherein the slot antenna further comprises: a second capacitor, wherein the second capacitor is disposed at a middle part of the slot, and the second capacitor connects two sides of the slot. a slot antenna, wherein the slot antenna comprises: a printed circuit board having a slot, a first capacitor, a radio frequency signal source, a transmission line, and a ground cable, wherein the printed circuit board is grounded; one end of the slot is open, and the other end is closed; a distance between the transmission line and the printed circuit board is set to a thickness of the printed circuit board; the first capacitor and the ground cable are disposed on the printed circuit board; the first capacitor is located on the open end of the slot, and is disposed on one side of the slot; the first capacitor is connected to the radio frequency signal source by using the transmission line, and the radio frequency signal source connects the transmission line to the ground cable; and the radio frequency signal source is configured to: stimulate a feeding signal, and feed the feeding signal to the open end of the slot by using the first capacitor, wherein the slot antenna further comprises: a second capacitor, wherein the second capacitor is disposed at a middle part of the slot, and the second capacitor connects two sides of the slot.
A method for forming holes within an uncured composite sheet, the method comprising the steps of: perforating the uncured composite sheet with a plurality of pins of a metallic pin mat; and heating the plurality of pins to heat portions of the uncured composite sheet, surrounding each one of the plurality of pins, wherein: the step of perforating the uncured composite sheet with the plurality of pins of the metallic pin mat comprises: positioning the uncured composite sheet between the metallic pin mat and a pressure backer; and applying a compressive force between the metallic pin mat and the pressure backer to perforate the uncured composite sheet with the plurality of pins of the metallic pin mat; the step of applying the compressive force between the metallic pin mat and the pressure backer comprises applying the compressive force until the plurality of pins perforates an entire thickness of the uncured composite sheet, and the plurality of pins perforates into the pressure backer; and the pressure backer is formed from at least one of rubber and dense foam. perforating the uncured composite sheet with a plurality of pins of a metallic pin mat; and heating the plurality of pins to heat portions of the uncured composite sheet, surrounding each one of the plurality of pins, wherein: the step of perforating the uncured composite sheet with the plurality of pins of the metallic pin mat comprises: positioning the uncured composite sheet between the metallic pin mat and a pressure backer; and applying a compressive force between the metallic pin mat and the pressure backer to perforate the uncured composite sheet with the plurality of pins of the metallic pin mat; the step of applying the compressive force between the metallic pin mat and the pressure backer comprises applying the compressive force until the plurality of pins perforates an entire thickness of the uncured composite sheet, and the plurality of pins perforates into the pressure backer; and the pressure backer is formed from at least one of rubber and dense foam. the step of perforating the uncured composite sheet with the plurality of pins of the metallic pin mat comprises: positioning the uncured composite sheet between the metallic pin mat and a pressure backer; and applying a compressive force between the metallic pin mat and the pressure backer to perforate the uncured composite sheet with the plurality of pins of the metallic pin mat; positioning the uncured composite sheet between the metallic pin mat and a pressure backer; and applying a compressive force between the metallic pin mat and the pressure backer to perforate the uncured composite sheet with the plurality of pins of the metallic pin mat; the step of applying the compressive force between the metallic pin mat and the pressure backer comprises applying the compressive force until the plurality of pins perforates an entire thickness of the uncured composite sheet, and the plurality of pins perforates into the pressure backer; and the pressure backer is formed from at least one of rubber and dense foam.