mhurhangee/ep-ind-claims huggingface dataset:
Apparatus for use for mounting an elastic sealing element to an electrical conductor having means for forming a through-opening and for expansion of the through-opening in the elastic sealing element, characterized by: - a first pin for performing a stroke movement, having a cutting tip at its front end, forming a through-opening in a sealing element when piercing through the sealing element positioned in front of the cutting tip in stroke direction and formed as full-body; and - a second pin for accommodating the sealing element provided with a through-opening from the first pin; wherein the outer circumference of the second pin is at least partially larger than the outer circumference of the first pin, for expansion of the through-opening generated in the elastic sealing element. - a first pin for performing a stroke movement, having a cutting tip at its front end, forming a through-opening in a sealing element when piercing through the sealing element positioned in front of the cutting tip in stroke direction and formed as full-body; and - a second pin for accommodating the sealing element provided with a through-opening from the first pin;
A solid state switching arrangement comprising: a first bus bar configured to carry electrical current between a first powered device and a corresponding second powered device; a second bus bar that is electrically isolated from the first bus bar; a first switch that is silicon carbide based, wherein the first switch is secured relative to the first bus bar and the first bus bar is configured to communicate thermal energy away from the first switch, and wherein the first switch is electrically connected to the first bus bar; a second switch that is in electrical communication with the first switch, the first switch being mounted directly to the first bus bar and the second switch being mounted directly to a second bus bar; and bond wires electrically connecting the first switch and the second switch to each other. a first bus bar configured to carry electrical current between a first powered device and a corresponding second powered device; a second bus bar that is electrically isolated from the first bus bar; a first switch that is silicon carbide based, wherein the first switch is secured relative to the first bus bar and the first bus bar is configured to communicate thermal energy away from the first switch, and wherein the first switch is electrically connected to the first bus bar; a second switch that is in electrical communication with the first switch, the first switch being mounted directly to the first bus bar and the second switch being mounted directly to a second bus bar; and bond wires electrically connecting the first switch and the second switch to each other.
A method for hydrolysing AlH 3, the method comprising: (a) providing a hydrogen generating fuel comprising a combination of a promoter with AlH 3, wherein the promoter and AlH 3 are grains each having a size of within 10% of 1 μm to within 10% of 10 μm, the grains being pressed into a porous pellet, wherein the grains are formed by air-jet milling powders of the promoter and AlH 3, and wherein the size of the grains is the average size of the grains; wherein the promoter comprises at least one of an ionic metal hydride, a covalent metal hydride, an alkali metal, an alkaline earth metal and an alkali or alkaline earth metal hydroxide; wherein the promoter mass percentage is between 0.7% and 10.0% of the mass of pure alane; and wherein the pellet has a density of 0.7 to 0.92 g/cm 3; and (b) contacting the hydrogen generating fuel with water in the vapour phase. (a) providing a hydrogen generating fuel comprising a combination of a promoter with AlH 3, wherein the promoter and AlH 3 are grains each having a size of within 10% of 1 μm to within 10% of 10 μm, the grains being pressed into a porous pellet, wherein the grains are formed by air-jet milling powders of the promoter and AlH 3, and wherein the size of the grains is the average size of the grains; wherein the promoter comprises at least one of an ionic metal hydride, a covalent metal hydride, an alkali metal, an alkaline earth metal and an alkali or alkaline earth metal hydroxide; wherein the promoter mass percentage is between 0.7% and 10.0% of the mass of pure alane; and wherein the pellet has a density of 0.7 to 0.92 g/cm 3; and wherein the promoter comprises at least one of an ionic metal hydride, a covalent metal hydride, an alkali metal, an alkaline earth metal and an alkali or alkaline earth metal hydroxide; wherein the promoter mass percentage is between 0.7% and 10.0% of the mass of pure alane; and wherein the pellet has a density of 0.7 to 0.92 g/cm 3; and (b) contacting the hydrogen generating fuel with water in the vapour phase.
Method for managing the transmission of data in peer to peer mode between peers (P1,P2,P3,P4) connected to at least one communication network, each transmission being carried out by a peer following the reception of a request from another peer, according to a selected reciprocity mechanism, characterized in that it consists, when a peer transmits a request to another peer to receive N blocks of data, according to a first priority level X k associated with said request and selected in a set of at least two different priority levels, in assigning to this peer an exchange value equivalent to a number M of blocks of data to transmit to at least one other peer (P1, P4) according to a second priority level X k' selected in said set, M being equal to N*m kk', where m kk' is a predetermined value function of said first X k and second X selected priority levels.
A casing of a propellant feed turbopump for a rocket engine, the casing including a cooling circuit, wherein the cooling circuit is formed at least in part in a wall of said casing, characterized in that the cooling circuit extends at least in part in a wall of a pump inlet portion of the turbopump.
A refrigerator water dispenser, comprising: a shelf having a lower surface; a water dispenser tube disposed adjacent to the shelf for dispensing water into a container; an actuator support operably coupled to the lower surface of the shelf; a load cell disposed on the actuator support, wherein the load cell sends a signal in response to movement by the actuator support; and a controller operably coupled to the load cell, wherein the controller activates a water dispensing sequence to dispense water via the water dispenser tube in response to the signal from the load cell, characterised by further comprising: a housing coupled to the lower surface of the shelf and first and second support rods (242, 246) extending at least partially below a bottom surface of the housing for engaging the container. a shelf having a lower surface; a water dispenser tube disposed adjacent to the shelf for dispensing water into a container; an actuator support operably coupled to the lower surface of the shelf; a load cell disposed on the actuator support, wherein the load cell sends a signal in response to movement by the actuator support; and a controller operably coupled to the load cell, wherein the controller activates a water dispensing sequence to dispense water via the water dispenser tube in response to the signal from the load cell, a housing coupled to the lower surface of the shelf and first and second support rods (242, 246) extending at least partially below a bottom surface of the housing for engaging the container.
A method of manufacture of a wallboard heating panel comprising the steps of: • providing a continuous feed of a first sheet of material; and • continuously depositing a layer of settable gypsum slurry onto the first sheet of material in a continuous process to form a continuous open wallboard feed; wherein the method further includes one or more of the steps selected from ∘ continuously depositing at least one heating element substantially along the length of the continuous open wallboard feed; and ∘ regularly depositing at least one heating element substantially along the length of the continuous open wallboard feed, wherein the heating element is configured in a heating layer, wherein the heating layer is embedded in the layer of settable gypsum slurry, wherein the method further comprises the step of • providing a continuous feed of a second sheet of material at an opposed side of the settable gypsum slurry to the first sheet of material to form a closed wallboard feed. • providing a continuous feed of a first sheet of material; and • continuously depositing a layer of settable gypsum slurry onto the first sheet of material in a continuous process to form a continuous open wallboard feed; ∘ continuously depositing at least one heating element substantially along the length of the continuous open wallboard feed; and ∘ regularly depositing at least one heating element substantially along the length of the continuous open wallboard feed, • providing a continuous feed of a second sheet of material at an opposed side of the settable gypsum slurry to the first sheet of material to form a closed wallboard feed.
A system (100, 200) for adjusting a peritoneal dialysate prescription comprising: a peritoneal dialysate effluent line (104, 206); at least one sensor positioned in the peritoneal dialysate effluent line; and at least one concentrate source fluidly connectable to a peritoneal dialysate generation flow path (134, 204); characterised in that the system further comprises at least one input/output interface configured to receive at least a prior history of a patient and one or more fluid characteristics from the at least one sensor; and a processor in communication with the at least one sensor and configured to adjust the peritoneal dialysate prescription based on the analysis of the one or more fluid characteristics relative to the prior history of the patient, the processor further configured to control the movement of fluid from the concentrate source to the peritoneal dialysate generation flow path based on the adjusted peritoneal dialysate prescription. a peritoneal dialysate effluent line (104, 206); at least one sensor positioned in the peritoneal dialysate effluent line; and at least one concentrate source fluidly connectable to a peritoneal dialysate generation flow path (134, 204); characterised in that the system further comprises at least one input/output interface configured to receive at least a prior history of a patient and one or more fluid characteristics from the at least one sensor; and a processor in communication with the at least one sensor and configured to adjust the peritoneal dialysate prescription based on the analysis of the one or more fluid characteristics relative to the prior history of the patient, the processor further configured to control the movement of fluid from the concentrate source to the peritoneal dialysate generation flow path based on the adjusted peritoneal dialysate prescription.
Wall hook, having a screw and a hook element for fastening in an anchoring base, wherein the screw has a screw shaft with a thread, and the hook element has a screw shaft receptacle by means of which the hook element can be placed on the screw shaft in such a way that a hook part protrudes laterally from the screw shaft, the hook element being rotatable relative to the screw shaft, characterized in that the screw can be screwed into a screw hole for fastening in the anchoring base, and in that the hook element has an anti-rotation device which extends parallel to the screw shaft in such a way that, when the screw is screwed into the screw hole, the anti-rotation device passes into the screw hole and arrives between the screw shaft and the screw hole, and contacts the screw shaft and the screw hole, and holds the hook element in a rotationally fixed manner on the screw hole, and in that, after the anti-rotation device has penetrated into the screw hole, a distance of the hook part from the anchoring base is continuously adjustable by rotating the screw.
A chalcogen-containing compound represented by the following Chemical Formula 1: [Chemical Formula 1] V 1 Sn a-x In x Sb 2 Te a+3 wherein, in Chemical Formula 1, V is a vacancy, 14≤a≤16, and 0<x≤0.5. V is a vacancy, 14≤a≤16, and 0<x≤0.5.
A method of monitoring and/or measuring an autoregulation mechanism of the blood pressure in a living being using an ECG signal, comprising: - recording the ECG signal of the living being, - recording a pulse wave curve synchronously with the recording of the ECG signal, the method further comprising the following steps using a computer arranged to process the ECG signal and the pulse wave curve: - determining heart rate intervals from the ECG signal, - determining a pulse wave transit time for each heart rate interval from the pulse wave curve and the ECG signal, in particular from R waves of the ECG signal, - determining a plurality of significant changes in the pulse wave transit times according to a specified criterion, - selecting one respective heart rate interval correlated in time with each significant change in the pulse wave transit times as an anchor point, - selecting a determined limited number of temporally successive heart rate intervals temporally before and/or after each anchor point to thus generate a limited sequence of heart rate intervals for each anchor point, - averaging a plurality of corresponding heart rate intervals of each sequence of a respective anchor point over all sequences of the anchor points, - determining at least one baroreflex sensitivity indicator based on the averaged plurality of corresponding heart rate intervals. - recording the ECG signal of the living being, - recording a pulse wave curve synchronously with the recording of the ECG signal, - determining heart rate intervals from the ECG signal, - determining a pulse wave transit time for each heart rate interval from the pulse wave curve and the ECG signal, in particular from R waves of the ECG signal, - determining a plurality of significant changes in the pulse wave transit times according to a specified criterion, - selecting one respective heart rate interval correlated in time with each significant change in the pulse wave transit times as an anchor point, - selecting a determined limited number of temporally successive heart rate intervals temporally before and/or after each anchor point to thus generate a limited sequence of heart rate intervals for each anchor point, - averaging a plurality of corresponding heart rate intervals of each sequence of a respective anchor point over all sequences of the anchor points, - determining at least one baroreflex sensitivity indicator based on the averaged plurality of corresponding heart rate intervals.
A method of maintaining a target value of a melt flow index of a polyethylene polymer product having at least 50 wt% ethylene-derived units being synthesized with a metallocene catalyst in a fluidized bed gas phase reactor, the method comprising: producing the polyethylene polymer product at the target value of the melt flow index with a metallocene catalyst in a fluidized bed gas phase reactor at a steady state in which the fluidized bed gas phase reactor is at a first reactor temperature and receives feeds of hydrogen and ethylene at a hydrogen to ethylene feed ratio at a first ratio value; detecting a second reactor temperature that is different from the first reactor temperature; and changing the hydrogen feed relative to the ethylene feed so as to change the hydrogen to ethylene feed ratio from the first ratio value to a second ratio value upon detecting the second reactor temperature to adjust a hydrogen concentration in the fluidized bed gas phase reactor, wherein the second ratio value of the hydrogen to ethylene feed ratio is calibrated to maintain the melt flow index value of the polyethylene polymer product at or within 20% of the target value, where the melt flow index is measured according to ASTM-D-1138E (190°C, 2.16 kg). producing the polyethylene polymer product at the target value of the melt flow index with a metallocene catalyst in a fluidized bed gas phase reactor at a steady state in which the fluidized bed gas phase reactor is at a first reactor temperature and receives feeds of hydrogen and ethylene at a hydrogen to ethylene feed ratio at a first ratio value; detecting a second reactor temperature that is different from the first reactor temperature; and changing the hydrogen feed relative to the ethylene feed so as to change the hydrogen to ethylene feed ratio from the first ratio value to a second ratio value upon detecting the second reactor temperature to adjust a hydrogen concentration in the fluidized bed gas phase reactor, wherein the second ratio value of the hydrogen to ethylene feed ratio is calibrated to maintain the melt flow index value of the polyethylene polymer product at or within 20% of the target value, where the melt flow index is measured according to ASTM-D-1138E (190°C, 2.16 kg).
A device for detecting precipitation conditions, the device comprising: a Yagi-Uda antenna tuned to a resonant frequency; a signal generator coupled to the Yagi-Uda antenna by a transmission line, the signal generator being configured to output an excitation signal to the Yagi-Uda antenna, wherein the excitation signal comprises at least one unmodulated signal having a frequency that is substantially the same as the resonant frequency to which the Yagi-Uda antenna is tuned; and a processing system coupled to the Yagi-Uda antenna, the processing system being configured to measure the ability of the Yagi-Uda antenna to radiate a signal following excitation of the Yagi-Uda antenna by the excitation signal by measuring the amount of the power of the excitation signal reflected or transmitted by the Yagi-Uda antenna and, based on the measured ability of the Yagi-Uda antenna, to identify a precipitation or other meteorological condition. a Yagi-Uda antenna tuned to a resonant frequency; a signal generator coupled to the Yagi-Uda antenna by a transmission line, the signal generator being configured to output an excitation signal to the Yagi-Uda antenna, wherein the excitation signal comprises at least one unmodulated signal having a frequency that is substantially the same as the resonant frequency to which the Yagi-Uda antenna is tuned; and a processing system coupled to the Yagi-Uda antenna, the processing system being configured to measure the ability of the Yagi-Uda antenna to radiate a signal following excitation of the Yagi-Uda antenna by the excitation signal by measuring the amount of the power of the excitation signal reflected or transmitted by the Yagi-Uda antenna and, based on the measured ability of the Yagi-Uda antenna, to identify a precipitation or other meteorological condition.
A method for recovering tritium comprising: conveying a solution comprising lithium tritide in a molten lithium metal to an electrochemical cell, the electrochemical cell comprising an electrode (8; 37) and an electrolyte (6; 36), the electrolyte (6; 36) being located so as to physically separate the electrode (8; 37) and the solution, the electrolyte (6; 36) being a lithium ion conducting electrolyte; establishing a voltage potential across the electrolyte (6; 36) between the solution and the electrode (8; 37), the voltage potential being sufficient to dissociate the lithium tritide and form lithium ions and tritium gas, the lithium ions thus formed being conducted across the electrolyte (6; 36) to the electrode (8; 37), the lithium ions being reduced at the electrode (8; 37) to form lithium metal; and collecting the tritium gas. conveying a solution comprising lithium tritide in a molten lithium metal to an electrochemical cell, the electrochemical cell comprising an electrode (8; 37) and an electrolyte (6; 36), the electrolyte (6; 36) being located so as to physically separate the electrode (8; 37) and the solution, the electrolyte (6; 36) being a lithium ion conducting electrolyte; establishing a voltage potential across the electrolyte (6; 36) between the solution and the electrode (8; 37), the voltage potential being sufficient to dissociate the lithium tritide and form lithium ions and tritium gas, the lithium ions thus formed being conducted across the electrolyte (6; 36) to the electrode (8; 37), the lithium ions being reduced at the electrode (8; 37) to form lithium metal; and collecting the tritium gas.
Method for forming a deposit of a fragile material on a substrate by spraying a powder of said material, said method comprising the following steps: - the generation of an aerosol containing said powder in a so-called aerosol chamber, - the acceleration of the aerosol through a nozzle, in a so-called deposit chamber, at lower pressure compared to the aerosol chamber, - the spraying of the aerosol onto the substrate, the grains forming the powder being fragmented and forming said deposit upon impact on the substrate, said method being characterized in that the forming of the deposit is controlled from a three-dimensional digital model of said deposit to be formed, implemented by any computer-assisted design software, said formation comprising the following steps: - from a three-dimensional digital model of the deposit, the decomposition of said digital model into a plurality of elementary layers to be deposited in succession; - the computation of a plurality of relative trajectories of the nozzle and of the substrate allowing each of the elementary layers to be deposited to be reproduced; - the successive covering of the elementary layers to obtain the desired deposit thickness. - the generation of an aerosol containing said powder in a so-called aerosol chamber, - the acceleration of the aerosol through a nozzle, in a so-called deposit chamber, at lower pressure compared to the aerosol chamber, - the spraying of the aerosol onto the substrate, the grains forming the powder being fragmented and forming said deposit upon impact on the substrate, - from a three-dimensional digital model of the deposit, the decomposition of said digital model into a plurality of elementary layers to be deposited in succession; - the computation of a plurality of relative trajectories of the nozzle and of the substrate allowing each of the elementary layers to be deposited to be reproduced; - the successive covering of the elementary layers to obtain the desired deposit thickness.
A C-shaped tool holder consisting of an integral frame structure that is delimited by an inner and an outer edge, each C-shaped, in which the C-shaped edges are made from and connected to each other by at least five multiple-vertex frame bodies that are integrated into the frame structure, in particular triangles, quadrilaterals and pentagons, characterized in that an inner side of the individual multiple-vertex frame bodies is each a connecting surface extending with a continuity of curvature along the circumferential direction, along the sides of the respective multiple-vertex frame body, and the inner and the outer C-shaped edge is each delimited to the outside by an edge surface extending with a continuity of curvature.