mhurhangee/patent-ind-claim-en huggingface dataset:
A method for increasing the coercivity of a sintered type NdFeB permanent magnet , the method comprising the following steps: a) preparing of an organic film with a predetermined thickness on a surface of the sintered type NdFeB permanent magnet , wherein the thickness of the organic film is in the range of 5 to 100 μm; b) creating holes in the organic film according to a given pattern with the holes extending to the surface of the sintered type NdFeB permanent magnet , wherein the holes have a spacing from each other in the range of 0.5 to 1.5 mm and the holes have an average diameter in the range of 200μm to 2000μm; c) filling the holes with a metal powder , the metal powder including or consisting of at least one of Dy and Tb; and d) performing a thermally induced grain boundary diffusion process. a) preparing of an organic film with a predetermined thickness on a surface of the sintered type NdFeB permanent magnet , wherein the thickness of the organic film is in the range of 5 to 100 μm; b) creating holes in the organic film according to a given pattern with the holes extending to the surface of the sintered type NdFeB permanent magnet , wherein the holes have a spacing from each other in the range of 0.5 to 1.5 mm and the holes have an average diameter in the range of 200μm to 2000μm; c) filling the holes with a metal powder , the metal powder including or consisting of at least one of Dy and Tb; and d) performing a thermally induced grain boundary diffusion process.
An OFDM signal arranged for use in downlink transmissions in a wireless multiple-access communication system, wherein: the OFDM signal comprising UE-specific reference signals, UE-RS for a plurality of UE-RS antenna ports, said plurality of UE-RS antenna ports being grouped into a plurality of antenna port sets, wherein each antenna port set is associated with an antenna port set index, wherein each antenna port set comprises two or more antenna ports; wherein UE-RS symbol sequences associated with each antenna port of a first antenna port set are mapped to a common first set (U1) of resource elements, RE of the OFDM signal by code division multiplexing; wherein UE-RS symbols associated with antenna ports of a second antenna port set are mapped to a second set (U2) of resource elements of the OFDM signal; wherein the second set (U2) of resource elements and the first set (U1) of resource elements are orthogonal by frequency division multiplexing. the OFDM signal comprising UE-specific reference signals, UE-RS for a plurality of UE-RS antenna ports, said plurality of UE-RS antenna ports being grouped into a plurality of antenna port sets, wherein each antenna port set is associated with an antenna port set index, wherein each antenna port set comprises two or more antenna ports; wherein UE-RS symbol sequences associated with each antenna port of a first antenna port set are mapped to a common first set (U1) of resource elements, RE of the OFDM signal by code division multiplexing; wherein UE-RS symbols associated with antenna ports of a second antenna port set are mapped to a second set (U2) of resource elements of the OFDM signal; wherein the second set (U2) of resource elements and the first set (U1) of resource elements are orthogonal by frequency division multiplexing.
Method for optical distance measurement, wherein the method comprises emitting a plurality of measuring pulses , reflecting emitted measuring pulses at at least one object in a measuring range with a length , and receiving reflected measuring pulses , wherein N subgroups of measuring pulses are emitted , wherein each subgroup has a constant pulse spacing, wherein the constant pulse spacing of different subgroups differs, wherein the least common multiple of the constant pulse spacings of the N subgroups corresponds to at least twice the length of the measuring range , wherein the constant pulse spacings are prime to each other, characterized in that the method comprises determining possible object positions for each reflected and received measuring pulse on the basis of the determined transit times and accumulating all possible object positions in a histogram . wherein the method comprises emitting a plurality of measuring pulses , reflecting emitted measuring pulses at at least one object in a measuring range with a length , and receiving reflected measuring pulses , wherein N subgroups of measuring pulses are emitted , wherein each subgroup has a constant pulse spacing, wherein the constant pulse spacing of different subgroups differs, wherein the least common multiple of the constant pulse spacings of the N subgroups corresponds to at least twice the length of the measuring range , wherein the constant pulse spacings are prime to each other, characterized in that the method comprises determining possible object positions for each reflected and received measuring pulse on the basis of the determined transit times and accumulating all possible object positions in a histogram .
A supplemental device for attachment to an injection device which has a dose setting mechanism comprising a rotatable dialling sleeve , the supplemental device comprising: an electromechanical switch arrangement having an open state and a closed state, the electromechanical switch arrangement comprising a protrusion configured to protrude from a main body of the electromechanical switch arrangement so as to contact a surface of the injection device when a dose of zero units is dialled into the injection device, wherein the state of the electromechanical switch arrangement is configured to change when a dose dialled into the attached injection device is decreased from one unit to zero units; and a processor arrangement configured to: detect one or more changes in the state of the electromechanical switch arrangement; determine from the one or more state changes that the dose dialled into the injection device has decreased from one unit to zero units; and characterized in that in response to determining from the one or more state changes that the dose dialled into the injection device has decreased from one unit to zero units, to place the supplemental device into a power saving mode. an electromechanical switch arrangement having an open state and a closed state, the electromechanical switch arrangement comprising a protrusion configured to protrude from a main body of the electromechanical switch arrangement so as to contact a surface of the injection device when a dose of zero units is dialled into the injection device, wherein the state of the electromechanical switch arrangement is configured to change when a dose dialled into the attached injection device is decreased from one unit to zero units; and a processor arrangement configured to: detect one or more changes in the state of the electromechanical switch arrangement; determine from the one or more state changes that the dose dialled into the injection device has decreased from one unit to zero units; and characterized in that detect one or more changes in the state of the electromechanical switch arrangement; determine from the one or more state changes that the dose dialled into the injection device has decreased from one unit to zero units; and characterized in that in response to determining from the one or more state changes that the dose dialled into the injection device has decreased from one unit to zero units, to place the supplemental device into a power saving mode.
A workpiece transport device with a workpiece feed device and with a workpiece discharge device , wherein the workpiece feed device is formed with at least two workpiece receiving positions for loading a workpiece in the respective workpiece receiving position and with at least one workpiece removal position for removing a workpiece , with workpiece conveying means for conveying loaded workpieces in a conveying direction from the at least one workpiece receiving position to one of the workpiece removal positions , characterised in that at least one signal means is provided for signalling a selected workpiece receiving position in which a workpiece can be loaded, wherein the workpiece discharge device is formed with at least one workpiece receiving position for loading a workpiece in the respective workpiece receiving position and with at least two workpiece removal positions for removing a workpiece , wherein the workpiece discharge device is formed with workpiece conveying means for conveying loaded workpieces in a conveying direction from the at least one workpiece receiving position to one of the workpiece removal positions , and wherein at least one signal means is provided for signalling a selected workpiece removal position from which a workpiece can be removed.
A method for detecting a non-authentic slave component in an electronic device , the method comprising: receiving, by a slave component communicatively connected to a master component in the device , a command from the master component ; identifying the value of a response to the command based upon a frequency of a plurality of clock pulses used by the master component while sending the command; and sending the response to the master component , wherein the master component determines whether the slave component (205. 210) is one of an authentic slave component and a non-authentic slave component installed in the device based on the response. receiving, by a slave component communicatively connected to a master component in the device , a command from the master component ; identifying the value of a response to the command based upon a frequency of a plurality of clock pulses used by the master component while sending the command; and sending the response to the master component , wherein the master component determines whether the slave component (205. 210) is one of an authentic slave component and a non-authentic slave component installed in the device based on the response.
An apparatus, comprising: an interface to detect a connection to a 3D printer and a connection to a powder supply/post-processing component; a processor in communication with the interface; and a timer in communication with the processor, wherein the timer is configured to begin tracking a cooling time when the interface is disconnected from the 3D printer and the processor is configured to transmit the cooling time to the powder supply/post-processing component when the interface detects the connection to the powder supply/post-processing component. an interface to detect a connection to a 3D printer and a connection to a powder supply/post-processing component; a processor in communication with the interface; and a timer in communication with the processor, wherein the timer is configured to begin tracking a cooling time when the interface is disconnected from the 3D printer and the processor is configured to transmit the cooling time to the powder supply/post-processing component when the interface detects the connection to the powder supply/post-processing component.
A system for performing an endoscopic surgical procedure in a surgical cavity , comprising: a) a gas delivery device housing a pump configured to deliver pressurized gas to an internal gas delivery lumen extending from the pump ; b) a gaseous sealing module housed within the gas delivery device , communicating with the internal gas delivery lumen and configured to generate a gaseous seal within an internal gas sealed tube extending from the gaseous sealing module , wherein the internal gas sealed tube is adapted and configured to communicate with a gas sealed lumen extending externally from the gas delivery device ; and c) an access port communicating with a distal end of the gas sealed lumen so as to provide sealed instrument access to the surgical cavity and maintain a stable pressure within the surgical cavity . a) a gas delivery device housing a pump configured to deliver pressurized gas to an internal gas delivery lumen extending from the pump ; b) a gaseous sealing module housed within the gas delivery device , communicating with the internal gas delivery lumen and configured to generate a gaseous seal within an internal gas sealed tube extending from the gaseous sealing module , wherein the internal gas sealed tube is adapted and configured to communicate with a gas sealed lumen extending externally from the gas delivery device ; and c) an access port communicating with a distal end of the gas sealed lumen so as to provide sealed instrument access to the surgical cavity and maintain a stable pressure within the surgical cavity .
An inkjet recording apparatus with a nozzle , a pressure chamber fluidly connected to an ink chamber , an actuator , and an inkjet head , the inkjet head comprising: a head driver configured to: generate and apply a driving signal to the actuator for ejecting a liquid from the pressure chamber connected to the nozzle , the driving signal including a contraction pulse (b) and a first expansion pulse (a) before the contraction pulse (b), the contraction pulse (b) causing the actuator to contract a volume of the pressure chamber and the first expansion pulse (a) causing the actuator to expand the volume of the pressure chamber ; characterized in that : where AL is a half time of an ink-inherent oscillation period, an application time of the first expansion pulse (a) is 1 AL and an application time of the contraction pulse (b) is equal to or greater than 1 AL and less than 2 AL, and the head driver is configured to end the application of the contraction pulse (b) when a nozzle flow rate is a negative peak, where the nozzle flow rate is a speed of the ink on a meniscus surface at an opening surface of the nozzle , a direction in which the ink is ejected vertically to the opening surface of the nozzle is positive direction of the nozzle flow rate, and a direction in which the direction of an ink chamber side vertical to the opening surface of the nozzle is negative direction of the nozzle flow rate. a head driver configured to: generate and apply a driving signal to the actuator for ejecting a liquid from the pressure chamber connected to the nozzle , the driving signal including a contraction pulse (b) and a first expansion pulse (a) before the contraction pulse (b), the contraction pulse (b) causing the actuator to contract a volume of the pressure chamber and the first expansion pulse (a) causing the actuator to expand the volume of the pressure chamber ; characterized in that : where AL is a half time of an ink-inherent oscillation period, an application time of the first expansion pulse (a) is 1 AL and an application time of the contraction pulse (b) is equal to or greater than 1 AL and less than 2 AL, and the head driver is configured to end the application of the contraction pulse (b) when a nozzle flow rate is a negative peak, where the nozzle flow rate is a speed of the ink on a meniscus surface at an opening surface of the nozzle , a direction in which the ink is ejected vertically to the opening surface of the nozzle is positive direction of the nozzle flow rate, and a direction in which the direction of an ink chamber side vertical to the opening surface of the nozzle is negative direction of the nozzle flow rate.
A milking arrangement comprising a milking machine for milking an animal, wherein the milking arrangement comprises • an analysing unit configured to determining a value of haptoglobin quantity in a milk sample taken from milk harvest by the milking machine , said analysing unit comprising • a blood detection sensor device configured to detect the presence of blood in said milk harvest by the milking machine, • a haptoglobin sensor device configured to provide a value of haptoglobin quantity in said milk sample, and • a processor ; wherein the processor being configured to adjusting said provided value of haptoglobin quantity based on the blood detection in the said milk. • an analysing unit configured to determining a value of haptoglobin quantity in a milk sample taken from milk harvest by the milking machine , said analysing unit comprising • a blood detection sensor device configured to detect the presence of blood in said milk harvest by the milking machine, • a haptoglobin sensor device configured to provide a value of haptoglobin quantity in said milk sample, and • a processor ; wherein the processor being configured to adjusting said provided value of haptoglobin quantity based on the blood detection in the said milk. • a blood detection sensor device configured to detect the presence of blood in said milk harvest by the milking machine, • a haptoglobin sensor device configured to provide a value of haptoglobin quantity in said milk sample, and • a processor ;
A method of preparing a lithium compound, comprising preparing a lithium phosphate; mixing the lithium phosphate with sulfuric acid to obtain a mixture; converting the lithium phosphate into lithium sulfate through a reaction in the mixture; and separating the lithium sulfate in a solid phase, wherein the step of converting the lithium phosphate into lithium sulfate through the reaction in the mixture, a sum concentration ([P+S] mol/L) of phosphorus (P) and sulfur (S) in a liquid phase of the mixture is greater than or equal to 5.5 mol/L and less than or equal to 15 mol/L, and wherein the step of preparing the lithium phosphate is preparing a solid-phase lithium phosphate in a slurry state in a solvent and the solvent is water or phosphoric acid. preparing a lithium phosphate; mixing the lithium phosphate with sulfuric acid to obtain a mixture; converting the lithium phosphate into lithium sulfate through a reaction in the mixture; and separating the lithium sulfate in a solid phase, wherein the step of converting the lithium phosphate into lithium sulfate through the reaction in the mixture, a sum concentration ([P+S] mol/L) of phosphorus (P) and sulfur (S) in a liquid phase of the mixture is greater than or equal to 5.5 mol/L and less than or equal to 15 mol/L, and wherein the step of preparing the lithium phosphate is preparing a solid-phase lithium phosphate in a slurry state in a solvent and the solvent is water or phosphoric acid.
An aerosol-generating article comprising: an aerosol-generating substrate and a mouthpiece disposed downstream of the aerosol-generating substrate , the mouthpiece comprising: a hollow tubular segment at its downstream end defining a mouth end cavity , the hollow tubular segment comprising: a hollow tube of crimped fibrous material; and a plurality of non-crimped fibers extending along and affixed to the inner surface of the hollow tube . a hollow tube of crimped fibrous material; and a plurality of non-crimped fibers extending along and affixed to the inner surface of the hollow tube .
A gas turbine engine comprising: a core nacelle ; a core engine disposed in the core nacelle , the core engine including at least a compressor section , a combustor section , and a turbine section , which define a core flow path; a bypass duct radially outwards of the core nacelle ; a component disposed in the core engine ; a cooling cavity disposed outside of the bypass duct ; a heat pipe containing a working medium sealed therein, the heat pipe including a first section configured to accept thermal energy from the component and/or transferred from the hot combustion gases in the core gas path and a second section configured to dissipate the thermal energy in the cooling cavity , characterized by : a tap from the compressor section , the tap configured to provide bleed air to the cooling cavity and dissipate the thermal energy from the second section , wherein the core nacelle defines an outer boundary of the cooling cavity . a core nacelle ; a core engine disposed in the core nacelle , the core engine including at least a compressor section , a combustor section , and a turbine section , which define a core flow path; a bypass duct radially outwards of the core nacelle ; a component disposed in the core engine ; a cooling cavity disposed outside of the bypass duct ; a heat pipe containing a working medium sealed therein, the heat pipe including a first section configured to accept thermal energy from the component and/or transferred from the hot combustion gases in the core gas path and a second section configured to dissipate the thermal energy in the cooling cavity , characterized by : a tap from the compressor section , the tap configured to provide bleed air to the cooling cavity and dissipate the thermal energy from the second section , wherein the core nacelle defines an outer boundary of the cooling cavity .
A dialysis machine having two hydraulic connectors at the dialyzate side to which a respective connection line having a filter coupling is connected for connection to a dialyzer , with the hydraulic connectors being an inflow connector for feeding fresh dialysis liquid to the dialyzer and a backflow connector for draining consumed dialyzate from the dialyzer , and having two parking positions associated with the respective hydraulic connectors for storing the filter couplings when not in operation, characterized in that both parking positions are provided with separate covers and the dialysis machine has releasable latching mechanisms for blocking the covers of the parking positions. characterized in that both parking positions are provided with separate covers and the dialysis machine has releasable latching mechanisms for blocking the covers of the parking positions.
A method comprising: acquiring measurement values from operating an electromagnetic measurement tool in a borehole, the measurement tool having an arrangement of transmitter and receiver antennas (111-N); generating new measurement values for a modified arrangement of the same transmitter and receiver antennas in which the horn effect is reduced in the modified arrangement, the generating by processing the measurement values from operating the measurement tool using a relationship including a tilt angle of a receiver antenna in the arrangement that is different from a tilt angle of the same receiver antenna in the modified arrangement; and using the new measurements to determine an estimate of a true formation resistivity. acquiring measurement values from operating an electromagnetic measurement tool in a borehole, the measurement tool having an arrangement of transmitter and receiver antennas (111-N); generating new measurement values for a modified arrangement of the same transmitter and receiver antennas in which the horn effect is reduced in the modified arrangement, the generating by processing the measurement values from operating the measurement tool using a relationship including a tilt angle of a receiver antenna in the arrangement that is different from a tilt angle of the same receiver antenna in the modified arrangement; and using the new measurements to determine an estimate of a true formation resistivity.