mhurhangee/ep-ind-claims huggingface dataset:
Method for determining at least two equivalent insulation resistances of an electrical system incorporating an electrical source, a power converter, and an electrical load, said power converter comprising a plurality of switching branches, each of said switching branches comprising two controlled switches (I1, 12, 13, 14, 15, 16), said electrical system further incorporating a measuring circuit added between the positive terminal of said electrical source and the ground or the frame of said electrical system, said measuring circuit comprising a shunt resistor (Rshunt) in series with a controlled switch, characterized in that the following steps are implemented: a) when the controlled switches (I1, I2, I3, I4, I5, I6) of said power converter are in a zero sequence, two voltages are measured in parallel with said measuring circuit, the first voltage V pt_ 0 being measured with said controlled switch of said measuring circuit in the open position, and the second voltage V pt_ 1 being measured with said controlled switch of said measuring circuit in the closed position; and b) said equivalent insulation resistances of said electrical system are determined by means of said measured voltages V pt_ 0 and V pt_ 1. a) when the controlled switches (I1, I2, I3, I4, I5, I6) of said power converter are in a zero sequence, two voltages are measured in parallel with said measuring circuit, the first voltage V pt_ 0 being measured with said controlled switch of said measuring circuit in the open position, and the second voltage V pt_ 1 being measured with said controlled switch of said measuring circuit in the closed position; and b) said equivalent insulation resistances of said electrical system are determined by means of said measured voltages V pt_ 0 and V pt_ 1.
A conjugate comprising an interleukin-15 (IL-15) moiety that is covalently attached, via one or more of its amino groups, to a branched poly(ethylene glycol) polymer.
A method for selecting one or more human in vitro fertilized embryos that is likely to reach the blastocyst stage comprising: culturing one or more human embryos in vitro under conditions sufficient for embryo development; time lapse imaging said one or more human embryos; determining whether an embryo is of good or poor quality by a morphological assessment; measuring cellular parameters comprising: (a) the time interval between mitosis 1 and mitosis 2; and (b) the time interval between mitosis 2 and mitosis 3 and selecting an embryo that is likely to reach the blastocyst stage when: the morphological assessment determines the embryo is of good quality and the time interval between mitosis 1 and mitosis 2 is between 9.33-11.45 hours; and the time interval between mitosis 2 and mitosis 3 is between 0-1.73 hours, wherein the morphological assessment is done concurrently with the measurement of the cellular parameters wherein the morphological assessment includes determining the level of fragmentation and/or determining the symmetry of the blastomeres. culturing one or more human embryos in vitro under conditions sufficient for embryo development; time lapse imaging said one or more human embryos; determining whether an embryo is of good or poor quality by a morphological assessment; measuring cellular parameters comprising: (a) the time interval between mitosis 1 and mitosis 2; and (b) the time interval between mitosis 2 and mitosis 3 and (a) the time interval between mitosis 1 and mitosis 2; and (b) the time interval between mitosis 2 and mitosis 3 and selecting an embryo that is likely to reach the blastocyst stage when: the morphological assessment determines the embryo is of good quality and the time interval between mitosis 1 and mitosis 2 is between 9.33-11.45 hours; and the time interval between mitosis 2 and mitosis 3 is between 0-1.73 hours, the morphological assessment determines the embryo is of good quality and the time interval between mitosis 1 and mitosis 2 is between 9.33-11.45 hours; and the time interval between mitosis 2 and mitosis 3 is between 0-1.73 hours,
A bearer establishing method based on handover, used for a target base station to establish a bearer for a user equipment, UE, when the UE is handed over from a source base station to the target base station; the source base station initiating a handover required message to an mobile management entity, MME, to request to hand over to the target base station; the MME transmitting the handover required message to the target base station, and carrying bearer establishment information in the handover required message, wherein the MME transmits the handover required message to the target base station, and carries aggregate maximum bit rate information, namely AMBR information, of the UE in the handover required message; wherein the bearer established by the target base station comprises one or more bearers, characterised in that the sum of the bandwidth of Non-Guaranteed Bit Rate bearers of the bearers is less than or equal to the value of the AMBR information and wherein after the MME transmits the handover required message to the target base station, the method comprises: the target base station distributes bandwidth according to the AMBR information, and establishes a bearer for the UE according to the bearer establishment information. the target base station distributes bandwidth according to the AMBR information, and establishes a bearer for the UE according to the bearer establishment information.
A process for recycling a membrane electrode assembly from a PEM fuel cell, said membrane electrode assembly comprising a fluorocarbon-containing ionomer film and supported noble metal catalysts coated on at least one side of said film, wherein said process comprises the steps of: (a) contacting said membrane electrode assembly with a solvent containing at least one C 4 to C 6 alkyl alcohol to separate said ionomer film from said supported noble metal catalysts; (b) heating said solvent for dispersing said ionomer film into polymer particles in said solvent; and (c) separating said dispersed polymer particles from said supported noble metal catalysts by filtration; wherein the temperature used in step (b) is from 50 °C to 100 °C. (a) contacting said membrane electrode assembly with a solvent containing at least one C 4 to C 6 alkyl alcohol to separate said ionomer film from said supported noble metal catalysts; (b) heating said solvent for dispersing said ionomer film into polymer particles in said solvent; and (c) separating said dispersed polymer particles from said supported noble metal catalysts by filtration;
Cutting device for cutting a plurality of parallel fingers of at least one core component in a plane orthogonal to the longitudinal axis of the fingers, the fingers being adapted to be introduced into the fuel assembly of a nuclear reactor core, the cutting device comprising: a first bearing plate (30, 46) comprising a plurality of abutments (54, 56) respectively for a finger to be cut, characterized in that the cutting device further comprises: a rotatable cutting plate comprising a corresponding cutting blade (42a, 42b, 42c) for each abutment (54, 56) in the first bearing plate, the rotatable cutting plate being rotatable about a rotating axis between a starting position and a final position in a circumferential direction, the first bearing plate (30, 46) and the cutting plate being parallel to each other, the cutting blades (42a, 42b, 42c) comprising a plurality of groups of cutting blades (42a, 42b, 42c), wherein for each group of cutting blades (42a, 42b, 42c) the angle between the cutting blades (42a, 42b, 42c) and the corresponding abutments (54, 56) is different to an angle between the cutting blades (42a, 42b, 42c) and the corresponding abutments (54, 56) of any other group of cutting blades.
A method performed by an Application Function, AF, node, for handling a data session for a User Equipment, UE, in a communication network, the method comprising: obtaining information about usage of a first frequency for the UE from an Access and Mobility management Function, AMF, node; the method characterized in: applying a first congestion mechanism based on the obtained information about usage of the first frequency; obtaining information about usage of a second frequency for the UE from the AMF node, wherein the information about usage of the second frequency comprises a detected changed UE frequency; and applying a second congestion mechanism in response to the obtained information about usage of the second frequency. obtaining information about usage of a first frequency for the UE from an Access and Mobility management Function, AMF, node; the method characterized in: applying a first congestion mechanism based on the obtained information about usage of the first frequency; obtaining information about usage of a second frequency for the UE from the AMF node, wherein the information about usage of the second frequency comprises a detected changed UE frequency; and applying a second congestion mechanism in response to the obtained information about usage of the second frequency. applying a first congestion mechanism based on the obtained information about usage of the first frequency; obtaining information about usage of a second frequency for the UE from the AMF node, wherein the information about usage of the second frequency comprises a detected changed UE frequency; and applying a second congestion mechanism in response to the obtained information about usage of the second frequency.
Insulation material for thermal and/or acoustic insulation, having an upper side, a lower side and a thickness, characterised in that the insulation material contains a zone of high density facing the upper side, and a zone of low density facing the lower side, the zone of high density of the insulating material has an indentation hardness determined according to the measuring method mentioned in the description, which indentation hardness is at least twice the indentation hardness of the zone of low density, and in that the insulation material is formed from a non-woven fabric or a foam.
A method of making a stimulation lead, the method comprising: providing a pre-electrode assembly comprising a plurality of segmented electrodes and a plurality of raised connectors, wherein each of the segmented electrodes is coupled to at least one other of the segmented electrodes by at least one of the raised connectors and wherein at least one of the raised connectors attached to each of the segmented electrodes is attached to that segmented electrode at an angle in a range of 5 to 85 degrees with respect to an edge of that segmented electrode; forming the pre-electrode assembly into a tube with the segmented electrodes forming at least one helix or spiral, the tube defining a longitudinal axis, wherein each of the raised connectors is disposed at a radius with respect to the longitudinal axis that is greater than a radius of any of the segmented electrodes with respect to the longitudinal axis; forming at least a portion of a lead body around the segmented electrodes of the pre-electrode assembly; and grinding the tube comprising the pre-electrode assembly and portion of the lead body to remove the plurality of raised connectors leaving the plurality of segmented electrodes and the portion of the lead body. providing a pre-electrode assembly comprising a plurality of segmented electrodes and a plurality of raised connectors, wherein each of the segmented electrodes is coupled to at least one other of the segmented electrodes by at least one of the raised connectors and wherein at least one of the raised connectors attached to each of the segmented electrodes is attached to that segmented electrode at an angle in a range of 5 to 85 degrees with respect to an edge of that segmented electrode; forming the pre-electrode assembly into a tube with the segmented electrodes forming at least one helix or spiral, the tube defining a longitudinal axis, wherein each of the raised connectors is disposed at a radius with respect to the longitudinal axis that is greater than a radius of any of the segmented electrodes with respect to the longitudinal axis; forming at least a portion of a lead body around the segmented electrodes of the pre-electrode assembly; and grinding the tube comprising the pre-electrode assembly and portion of the lead body to remove the plurality of raised connectors leaving the plurality of segmented electrodes and the portion of the lead body.
A front body structure of a vehicle, comprising: a pair of side frame members extending in a forward-rearward direction of the vehicle on right and left sides in a front portion of the vehicle, respectively; a hollow bumper reinforcement extending in a right-left direction of the vehicle and coupled to front ends of the pair of side frame members, the bumper reinforcement including side extension parts extending outward beyond the pair of side frame members, respectively; and load transmission members extending from front faces of the respective side extension parts of the bumper reinforcement through the side extension parts and further extending rearward and inward of the vehicle, wherein the bumper reinforcement includes an upper wall, a lower wall, a front wall, and a rear wall forming a hollow quadrilateral cross section, characterized in that the bumper reinforcement further includes at least one reinforcing wall disposed between the upper wall and the lower wall and connecting the front wall and the rear wall, and that each of the load transmission members is disposed between two adjacent walls among the upper wall, the lower wall and the at least one reinforcing wall of the bumper reinforcement. a pair of side frame members extending in a forward-rearward direction of the vehicle on right and left sides in a front portion of the vehicle, respectively; a hollow bumper reinforcement extending in a right-left direction of the vehicle and coupled to front ends of the pair of side frame members, the bumper reinforcement including side extension parts extending outward beyond the pair of side frame members, respectively; and load transmission members extending from front faces of the respective side extension parts of the bumper reinforcement through the side extension parts and further extending rearward and inward of the vehicle, wherein the bumper reinforcement includes an upper wall, a lower wall, a front wall, and a rear wall forming a hollow quadrilateral cross section, characterized in that the bumper reinforcement further includes at least one reinforcing wall disposed between the upper wall and the lower wall and connecting the front wall and the rear wall, and that each of the load transmission members is disposed between two adjacent walls among the upper wall, the lower wall and the at least one reinforcing wall of the bumper reinforcement.
A barge comprising renewable energy resources, used as an offshore power plant that supplies power to onshore grids, the barge comprising: a plurality of horizontal axis wind turbines; a plurality of photovoltaic panels; a plurality of sea-wave generators; wherein energy harvested by the renewable energy recourses is transformed to electrical energy; and wherein the barge is connectable to the onshore grid by a power transmission line configured to transport the electrical energy; characterized by a flotation system comprising a plurality of flotation pipes designed to accumulate fluid, wherein the pipes extend across the barge forming foundations for a plurality of pillars and a barge deck, and a plurality of pillars assembled on the foundations in rows along the barge, wherein each row comprises a plurality of pillars, wherein each row of pillars along the barge is enforced by a plurality of cables and crossbeams and said pillars support an array of turbines facing one direction, wherein the flotation system is capable of floating the barge by injecting gas into the flotation pipes and semi-submerging the barge by either exhausting the gas or injecting seawater into the flotation pipes. a plurality of horizontal axis wind turbines; a plurality of photovoltaic panels; a plurality of sea-wave generators; wherein energy harvested by the renewable energy recourses is transformed to electrical energy; and wherein the barge is connectable to the onshore grid by a power transmission line configured to transport the electrical energy; characterized by a flotation system comprising a plurality of flotation pipes designed to accumulate fluid, wherein the pipes extend across the barge forming foundations for a plurality of pillars and a barge deck, and a plurality of pillars assembled on the foundations in rows along the barge, wherein each row comprises a plurality of pillars, wherein each row of pillars along the barge is enforced by a plurality of cables and crossbeams and said pillars support an array of turbines facing one direction, wherein the flotation system is capable of floating the barge by injecting gas into the flotation pipes and semi-submerging the barge by either exhausting the gas or injecting seawater into the flotation pipes.
A method for preparing an eggshell catalyst comprising the steps of: (i) calcining a support comprising a metal aluminate, (ii) impregnating the calcined support comprising a metal aluminate with a solution comprising nickel acetate at a temperature ≥ 40°C and drying the impregnated support, (iii) calcining the dried impregnated support, to form nickel oxide on the surface of the support, and (iv) optionally repeating steps (ii) and (iii) on the nickel oxide coated support. (i) calcining a support comprising a metal aluminate, (ii) impregnating the calcined support comprising a metal aluminate with a solution comprising nickel acetate at a temperature ≥ 40°C and drying the impregnated support, (iii) calcining the dried impregnated support, to form nickel oxide on the surface of the support, and (iv) optionally repeating steps (ii) and (iii) on the nickel oxide coated support.
A method for processing an image in optical microscopy, the method comprising: acquiring a raw image with a microscope, wherein the raw image has an asymmetric resolution; asymmetrically deconvolving at least a portion of the raw image using a point-spread function that is different in an X-direction than in a Y-direction in order to generate an asymmetrically deconvolved image; and displaying the asymmetrically deconvolved image on a display device. acquiring a raw image with a microscope, wherein the raw image has an asymmetric resolution; asymmetrically deconvolving at least a portion of the raw image using a point-spread function that is different in an X-direction than in a Y-direction in order to generate an asymmetrically deconvolved image; and displaying the asymmetrically deconvolved image on a display device.
A rolling element accommodating tool for rotatably accommodating a plurality of rolling elements at predetermined intervals, the rolling element accommodating tool being placeable along an endless circulation path along which the rolling elements circulate in a linear motion device provided with the endless circulation path and comprising a rail element and a linear moving element that moves linearly relative to the rail element; wherein the rolling element accommodating tool has a main body configured from spacers individually provided between adjacent rolling elements, and connecting parts oriented in a direction orthogonal to the direction in which the spacers are aligned, protruding on both sides of the rolling elements in a state of accommodating the rolling elements, and serially connecting the spacers; characterized by reinforcing films having the same length in the longitudinal direction as the connecting parts being contained within the connecting parts; and the reinforcing films being formed at large widths in predetermined positions, wherein the predetermined positions are the positions of the spacers in the longitudinal direction of the main body.
A time-of-flight 3-D sensor for controlling a control operation, having a light source for illuminating a spatial section to be monitored, a reception matrix for receiving the light emitted from the light source and reflected on the surfaces located in the spatial section to be monitored, an evaluation device for determining the distances of the surfaces from the reception matrix, and a control unit for detecting an object located in and/or penetrating into the spatial section to be monitored on the basis of different depths of the spatial section between the reception matrix and the surfaces mapped thereon, characterized in that the light source comprises multiple illumination sources (3.1 - 3.x) which illuminate a segment of the spatial section which has at least one intermediate space which is not illuminated or at least not illuminated to the same degree as is provided for the segment, wherein the illumination sources are designed to be discretely activatable or deactivatable, and wherein the reception matrix is suited for receiving a complete image of the surfaces (14.1 through 14.x) of the spatial section that reflect the light emitted from the light source.
Apparatus for dispensing gas comprising: - a gas injection line comprising a gas inlet and a gas outlet, and enabling a gas to be transported from the gas inlet to the gas outlet, - a gas analysis line operatively connecting a gas analysis device to a gas sample inlet, - a driving device controlling the passing of gas in the gas injection line and the sampling of gas through the gas analysis line, characterised in that: - it comprises, additionally, a calibration line operatively connected (701; 700) to the gas injection line and to the gas analysis line in a way to enable a direct passing of gas from the gas injection line to the gas analysis line, - the gas injection line comprises a first magnetic valve controlled by the driving device, - the calibration line comprises a second magnetic valve controlled by the driving device, - the gas analysis line comprises a fourth magnetic valve, located between the sample inlet and the second magnetic valve, and - the gas analysis device is connected to the gas analysis line, between said second and fourth magnetic valves. - a gas injection line comprising a gas inlet and a gas outlet, and enabling a gas to be transported from the gas inlet to the gas outlet, - a gas analysis line operatively connecting a gas analysis device to a gas sample inlet, - a driving device controlling the passing of gas in the gas injection line and the sampling of gas through the gas analysis line, - it comprises, additionally, a calibration line operatively connected (701; 700) to the gas injection line and to the gas analysis line in a way to enable a direct passing of gas from the gas injection line to the gas analysis line, - the gas injection line comprises a first magnetic valve controlled by the driving device, - the calibration line comprises a second magnetic valve controlled by the driving device, - the gas analysis line comprises a fourth magnetic valve, located between the sample inlet and the second magnetic valve, and - the gas analysis device is connected to the gas analysis line, between said second and fourth magnetic valves.
A mask assembly comprising a mask frame and a headgear configured to be connected to the mask frame, at least one of the mask frame and headgear comprising a connector comprising a post, the post is orientated generally vertically in normal use of the mask and headgear, and the side straps therefore rotate laterally about a generally vertical pivot axis, the other of the mask frame and headgear comprising a connector comprising a hook configured to receive the post using a snap-fit type connection to connect the headgear to the mask frame such that the hook can rotate about the post towards and away from the mask frame, the mask assembly further comprising at least one rotation limiting formation configured to limit the extent of relative rotation between the hook and post.