mhurhangee/ep-ind-claims huggingface dataset:
A coaxial connector comprising an inner conductor, an outer conductor having a cylindrical cavity extending in an axial direction through said outer conductor, a first support mechanically locking the inner conductor within the outer conductor, and at least one second support arranged between the first support and one of the ends of the inner conductor, wherein the second support is effective in a radial direction only; and wherein the inner conductor comprises an electrical compensation geometry for compensating a capacitive value of the second support, characterized by the compensation geometry being a reduced cross-section at the position of the second support, and wherein the second support is elastically held within a recess formed by the reduced cross-section, and the second support has the form of a ring with an outer diameter which corresponds to the inner diameter of the outer conductor and an inner diameter which corresponds to the outer diameter of the recess formed at the inner conductor for receiving the second support, with the inner diameter of the second support being formed from a plurality of holding tabs separated by slots. wherein the second support is effective in a radial direction only; and wherein the inner conductor comprises an electrical compensation geometry for compensating a capacitive value of the second support, characterized by the compensation geometry being a reduced cross-section at the position of the second support, and wherein the second support is elastically held within a recess formed by the reduced cross-section, and the second support has the form of a ring with an outer diameter which corresponds to the inner diameter of the outer conductor and an inner diameter which corresponds to the outer diameter of the recess formed at the inner conductor for receiving the second support, with the inner diameter of the second support being formed from a plurality of holding tabs separated by slots.
A tire (102, 302) inspection method, comprising: placing a high voltage probe (110, 310) against a surface of the tire (102, 302); placing a reference electrode (170, 370) against a bead portion of the tire (102, 302); energizing the high voltage probe (110, 310); imparting relative motion between the high voltage probe (110, 310) and the surface of the tire (102, 302); and detecting one or more electrical discharges between the high voltage probe (110, 310) and the reference electrode (170, 370) to detect the presence of one or more anomalies in the surface of the tire (102, 302); wherein the one or more electrical discharges are conducted through one or more carcass plies of the tire (102, 302) such that the one or more electrical discharges do not pass through a tread portion of the tire (102, 302). placing a high voltage probe (110, 310) against a surface of the tire (102, 302); placing a reference electrode (170, 370) against a bead portion of the tire (102, 302); energizing the high voltage probe (110, 310); imparting relative motion between the high voltage probe (110, 310) and the surface of the tire (102, 302); and detecting one or more electrical discharges between the high voltage probe (110, 310) and the reference electrode (170, 370) to detect the presence of one or more anomalies in the surface of the tire (102, 302); wherein the one or more electrical discharges are conducted through one or more carcass plies of the tire (102, 302) such that the one or more electrical discharges do not pass through a tread portion of the tire (102, 302).
A fish processing device, the device including: a channel being designed to accommodate or to guide the fish within water, the fish being enticed to swim through the channel by a water current; a sensor located within or adjacent to the channel, wherein the sensor detects that a fish is incorrectly orientated in the channel; a barrier, the barrier to assist in preventing a fish passing through the channel as long as the fish is in an incorrect orientation; and a control system, wherein the control system controls the barrier in response to an output of the sensor. a channel being designed to accommodate or to guide the fish within water, the fish being enticed to swim through the channel by a water current; a sensor located within or adjacent to the channel, wherein the sensor detects that a fish is incorrectly orientated in the channel; a barrier, the barrier to assist in preventing a fish passing through the channel as long as the fish is in an incorrect orientation; and a control system, wherein the control system controls the barrier in response to an output of the sensor.
A tissue stimulator, comprising: a solenoid sized and shaped to surround the head of a human, the solenoid having a wall with a thickness, and a solenoid axial dimension; the solenoid axial dimension being substantially greater than the wall thickness, the solenoid having a multi-turn winding that encircles the head; an energization device connected to the solenoid and configured to pass current pulses of at least 1000 amperes through the solenoid to generate magnetic field pulses and thereby generate deep tissue electrical field pulses within the tissue of the head; characterised in that: the axial dimension of the winding is greater on a first radial side of the winding than a second opposite side, whereby the intensity of the electrical field generated in the tissue of the body part proximate the first side, whose turns are effectively fanned out relative to the second side, is less than the intensity of the electric field generated in the tissue of the body part proximate the second side upon the passing of a current through the winding. a solenoid sized and shaped to surround the head of a human, the solenoid having a wall with a thickness, and a solenoid axial dimension; the solenoid axial dimension being substantially greater than the wall thickness, the solenoid having a multi-turn winding that encircles the head; an energization device connected to the solenoid and configured to pass current pulses of at least 1000 amperes through the solenoid to generate magnetic field pulses and thereby generate deep tissue electrical field pulses within the tissue of the head; characterised in that: the axial dimension of the winding is greater on a first radial side of the winding than a second opposite side, whereby the intensity of the electrical field generated in the tissue of the body part proximate the first side, whose turns are effectively fanned out relative to the second side, is less than the intensity of the electric field generated in the tissue of the body part proximate the second side upon the passing of a current through the winding. the axial dimension of the winding is greater on a first radial side of the winding than a second opposite side, whereby the intensity of the electrical field generated in the tissue of the body part proximate the first side, whose turns are effectively fanned out relative to the second side, is less than the intensity of the electric field generated in the tissue of the body part proximate the second side upon the passing of a current through the winding.
An ex-vivo or in vitro method for characterizing and/or measuring the amount of subsets of circulating tissue-derived microvesicles comprising the step of detecting at least the CD172a marker on said microvesicles, in an isolated biological sample obtained from the subject, wherein if the microvesicle is positive for CD172a the microvesicle is characterized as a cardiac derived microvesicle.
A proximity service, ProSe, information transmission method, wherein the method comprises: receiving, by a first ProSe entity, a first message sent by a first terminal, wherein the first message carries a ProSe application identity, APP ID, and the first ProSe entity is a ProSe entity in a home public land mobile network, HPLMN, of the first terminal; sending, by the first ProSe entity, a second message to a second ProSe entity, wherein the second message carries the ProSe APP ID, and the second ProSe entity is a ProSe entity in a visited public land mobile network,VPLMN, of the first terminal; receiving, by the first ProSe entity, a third message sent by the second ProSe entity, wherein the third message carries a first identity, the first identity is a codeword or mask allocated to the ProSe APP ID by the second ProSe entity, and the first identity comprises a public land mobile network identity,PLMN ID, of the VPLMN; generating, by the first ProSe entity, a second identity according to the first identity, wherein the second identity comprises the first identity and a PLMN ID of the HPLMN of the first terminal; and sending, by the first ProSe entity, a fourth message to the first terminal, wherein the fourth message carries the second identity. receiving, by a first ProSe entity, a first message sent by a first terminal, wherein the first message carries a ProSe application identity, APP ID, and the first ProSe entity is a ProSe entity in a home public land mobile network, HPLMN, of the first terminal; sending, by the first ProSe entity, a second message to a second ProSe entity, wherein the second message carries the ProSe APP ID, and the second ProSe entity is a ProSe entity in a visited public land mobile network,VPLMN, of the first terminal; receiving, by the first ProSe entity, a third message sent by the second ProSe entity, wherein the third message carries a first identity, the first identity is a codeword or mask allocated to the ProSe APP ID by the second ProSe entity, and the first identity comprises a public land mobile network identity,PLMN ID, of the VPLMN; generating, by the first ProSe entity, a second identity according to the first identity, wherein the second identity comprises the first identity and a PLMN ID of the HPLMN of the first terminal; and sending, by the first ProSe entity, a fourth message to the first terminal, wherein the fourth message carries the second identity.
An electric power converter device of an electrical vehicle comprising: - at least one power electronics unit being electrically connected to an electric power input and an electric power output, - at least one fluid chamber being fluidically connected to a fluid inlet and a fluid outlet, - wherein the fluid chamber and the power electronics unit are thermally coupled such that waste heat generated by the power electronics unit is used for heating a fluid flowing through the fluid chamber, - wherein the electric power converter device has a first operation mode and a second operation mode, - at least one heating unit being electrically connected to an electric power input and electric power output, - the fluid chamber and the heating unit being thermally coupled, - wherein the heating unit is used to heat a fluid flowing through the fluid chamber, characterized - in that the power electronics unit forms a DC-to-DC converter unit that converts a high voltage of 400 V to a low voltage of 12 V and wherein a heating power in the range of 3 kW to 4 kW is provided, - in that the heating unit additionally provides heating power in the range of 2 kW to 4 kW, - in that the amount of waste heat generated by the power electronics unit is increased in the second operation mode compared to the first operation mode, - whereby the switching frequency of the power electronics unit is increased in the second operation mode. - at least one power electronics unit being electrically connected to an electric power input and an electric power output, - at least one fluid chamber being fluidically connected to a fluid inlet and a fluid outlet, - wherein the fluid chamber and the power electronics unit are thermally coupled such that waste heat generated by the power electronics unit is used for heating a fluid flowing through the fluid chamber, - wherein the electric power converter device has a first operation mode and a second operation mode, - at least one heating unit being electrically connected to an electric power input and electric power output, - the fluid chamber and the heating unit being thermally coupled, - wherein the heating unit is used to heat a fluid flowing through the fluid chamber, characterized - in that the power electronics unit forms a DC-to-DC converter unit that converts a high voltage of 400 V to a low voltage of 12 V and wherein a heating power in the range of 3 kW to 4 kW is provided, - in that the heating unit additionally provides heating power in the range of 2 kW to 4 kW, - in that the amount of waste heat generated by the power electronics unit is increased in the second operation mode compared to the first operation mode, - whereby the switching frequency of the power electronics unit is increased in the second operation mode.
A support element to be secured within a furniture carcass, wherein at least one ejection device for ejecting a movable furniture part which is movably supported on the furniture carcass is mounted, preferably snap-fitted, to the support element, characterized in that the support element includes at least two power lines for supplying power to the at least one ejection device when mounted.
A method of operating a network node in a cellular telecommunications network, the cellular telecommunications network having a first central base station unit connecting to each of a plurality of distributed base station units (20, 30, 40), the method comprising: identifying a cluster of distributed base station units within the plurality of distributed base station units (20, 30, 40), wherein each member of the cluster has a neighbouring relationship with another member of the cluster that satisfies a signal interference threshold, wherein a first functional split is used in which a first set of protocol functions are implemented in the first central base station unit and a second set of protocol functions are implemented by each member of the cluster of distributed base station units; identifying a change in the membership of the cluster of distributed base station units based upon a distributed base station unit increasing or decreasing its neighbouring relationship with another distributed base station unit passed the signal interference threshold; and, in response, causing the first central base station unit and each member of the cluster of distributed base station units to implement a second functional split in which a third set of protocol functions are implemented in the first central base station unit and a fourth set of protocol functions are implemented by each member of the cluster of distributed base station units. identifying a cluster of distributed base station units within the plurality of distributed base station units (20, 30, 40), wherein each member of the cluster has a neighbouring relationship with another member of the cluster that satisfies a signal interference threshold, wherein a first functional split is used in which a first set of protocol functions are implemented in the first central base station unit and a second set of protocol functions are implemented by each member of the cluster of distributed base station units; identifying a change in the membership of the cluster of distributed base station units based upon a distributed base station unit increasing or decreasing its neighbouring relationship with another distributed base station unit passed the signal interference threshold; and, in response, causing the first central base station unit and each member of the cluster of distributed base station units to implement a second functional split in which a third set of protocol functions are implemented in the first central base station unit and a fourth set of protocol functions are implemented by each member of the cluster of distributed base station units.
A welding system (10; 84) comprising: a display (30; 102) configured to show a prerecorded video selected from a plurality of prerecorded videos, wherein the plurality of prerecorded videos correspond to a welding application, a processor (22, 94) characterized in that the processor (22, 94) is configured to log data from an actual performed welding application, wherein the data comprise an orientation of a torch, a distance between a contact tip of the torch and a workpiece, a voltage, a current, welding device settings; to store the logged data in a memory device (24, 26, 96, 98); to analyze the logged data to determine a welding deficiency and to select a prerecorded video from a plurality of prerecorded videos based on the logged data stored in the memory device (25, 26, 96, 98) and on the determined welding deficiency, and to display the selected prerecorded video on the display; wherein the prerecorded video comprises a tutorial video, a training video, a diagnostics video, a configuration video, an informational video, a servicing video, or some combination thereof. a display (30; 102) configured to show a prerecorded video selected from a plurality of prerecorded videos, wherein the plurality of prerecorded videos correspond to a welding application, a processor (22, 94) characterized in that the processor (22, 94) is configured to log data from an actual performed welding application, wherein the data comprise an orientation of a torch, a distance between a contact tip of the torch and a workpiece, a voltage, a current, welding device settings; to store the logged data in a memory device (24, 26, 96, 98); to analyze the logged data to determine a welding deficiency and to select a prerecorded video from a plurality of prerecorded videos based on the logged data stored in the memory device (25, 26, 96, 98) and on the determined welding deficiency, and to display the selected prerecorded video on the display; wherein the prerecorded video comprises a tutorial video, a training video, a diagnostics video, a configuration video, an informational video, a servicing video, or some combination thereof.
A vitreous silica furnace tube comprising: a) a body, said body comprising fused quartz; and b) a coating disposed on an exposed surface of said body, said coating comprising a plurality of metal cations, each having a valence of less than 4, wherein said plurality of metal cations comprises cations of at least one of an alkali metal, an alkaline earth metal, a rare earth metal, and combinations thereof, wherein said plurality of metal cations is present within said coating in a concentration of at least 0.1 atomic percent, and wherein fused quartz within the bulk of said body has undergone a transition to a cristobalite crystal structure upon heating the tube at a temperature in a range from 1000°C to 1600°C, wherein said plurality of cations comprises cations of at least barium. a) a body, said body comprising fused quartz; and b) a coating disposed on an exposed surface of said body, said coating comprising a plurality of metal cations, each having a valence of less than 4, wherein said plurality of metal cations comprises cations of at least one of an alkali metal, an alkaline earth metal, a rare earth metal, and combinations thereof, wherein said plurality of metal cations is present within said coating in a concentration of at least 0.1 atomic percent, and wherein fused quartz within the bulk of said body has undergone a transition to a cristobalite crystal structure upon heating the tube at a temperature in a range from 1000°C to 1600°C,
A method of controlling deposition of a continuous elongated element in building a tyre for vehicle wheels, comprising: - feeding an initial end of a continuous elongated element of elastomeric material through a slit bounded by a first roller and a second roller of a calender; - retaining said continuous elongated element against a peripheral surface of the first roller; - laying said initial end of the continuous elongated element against a deposition surface; - dragging along the continuous elongated element together with the deposition surface wherein said continuous elongated element is retained against the peripheral surface of the first roller by driving said first roller in rotation at a peripheral speed (V 1) lower than a peripheral speed (V 2) of the second roller. - feeding an initial end of a continuous elongated element of elastomeric material through a slit bounded by a first roller and a second roller of a calender; - retaining said continuous elongated element against a peripheral surface of the first roller; - laying said initial end of the continuous elongated element against a deposition surface; - dragging along the continuous elongated element together with the deposition surface wherein said continuous elongated element is retained against the peripheral surface of the first roller by driving said first roller in rotation at a peripheral speed (V 1) lower than a peripheral speed (V 2) of the second roller.
A corticosteroid, for use in a method of treating vascular inflammation in a human patient, wherein the corticosteroid is for administration by injection into an adventitial space around a blood vessel, wherein said treatment reduces monocyte chemotractive protein-1 (MCP-1) in the circulating blood of said patient.
A formed body producing method comprising: an accumulating step of accumulating a mixture including fiber and starch, a humidifying step of providing the accumulated mixture with water, and a forming step of obtaining a formed body by heating and pressurizing the mixture provided with water, wherein a gelatinization temperature of the starch is 60°C or lower. an accumulating step of accumulating a mixture including fiber and starch, a humidifying step of providing the accumulated mixture with water, and a forming step of obtaining a formed body by heating and pressurizing the mixture provided with water, wherein a gelatinization temperature of the starch is 60°C or lower.
A method, comprising: executing a managed application for presentation on a mobile device; receiving a request to save a data file locally on the mobile device; and determining whether the data file contains sensitive data; when the data file contains sensitive data and responsive to the request: encrypting the data file; storing the encrypted data file on the mobile device; and linking the encrypted data file to an unencrypted version of the data file, the unencrypted version of the data file not containing the sensitive data. executing a managed application for presentation on a mobile device; receiving a request to save a data file locally on the mobile device; and determining whether the data file contains sensitive data; when the data file contains sensitive data and responsive to the request: encrypting the data file; storing the encrypted data file on the mobile device; and linking the encrypted data file to an unencrypted version of the data file, the unencrypted version of the data file not containing the sensitive data. encrypting the data file; storing the encrypted data file on the mobile device; and linking the encrypted data file to an unencrypted version of the data file, the unencrypted version of the data file not containing the sensitive data.
Lawnmower comprising a cutting plate, two brackets, a gravel guard rotably connected to the brackets and a basket container comprising pegs suitable for sliding within sliding guides provided on the brackets, characterized in that the gravel guard comprises sliding inserts acts to direct the pegs of the basket container toward a lower portion of the gravel guard, said pegs supporting said gravel guard until the complete removal of the basket container from the lawnmower.