mhurhangee/patent-ind-claim-en huggingface dataset:
A method of detecting an arc fault in a power circuit, the method comprising the steps of: a) injecting an AC-signal into the power circuit; b) measuring a response signal related to the injected AC-signal within in the power circuit; c) determining a frequency response of the power circuit from the response signal; d) analyzing the frequency response and identifying a preferred frequency range, wherein the preferred frequency range is chosen such that it does not comprise a distinct maximum of an impedance curve derived from the frequency response and that it is located around a minimum of the impedance curve; e) measuring during a working period a signal related to AC-current flowing in the power circuit within the preferred frequency range; and f) signaling an occurrence of an arc fault in the power circuit depending on the measured signal. a) injecting an AC-signal into the power circuit; b) measuring a response signal related to the injected AC-signal within in the power circuit; c) determining a frequency response of the power circuit from the response signal; d) analyzing the frequency response and identifying a preferred frequency range, wherein the preferred frequency range is chosen such that it does not comprise a distinct maximum of an impedance curve derived from the frequency response and that it is located around a minimum of the impedance curve; e) measuring during a working period a signal related to AC-current flowing in the power circuit within the preferred frequency range; and f) signaling an occurrence of an arc fault in the power circuit depending on the measured signal.
A travel control device for a working vehicle provided with a driving source , a torque converter that amplifies a torque transmitted from the driving source , a transmission that transmits the torque that has been amplified and output by the torque converter to perform speed change, the travel control device comprising: a switching device that switches speed change of the transmission into either manual speed change or automatic speed change, characterized in that the travel control device further comprises: a single speed stage selecting device in which a preset speed stage of a second speed or more excluding a first speed is selectably allocated among a plurality of speed stages of the transmission ; a first speed selecting device which is provided independently of the speed stage selecting device and, regardless of a switching state of the switching device , is configured to allow manual selection of the first speed which cannot be selected by the speed stage selecting device , so as to hold a speed stage at the first stage when the first speed stage is selected; and a control device which is arranged to control the speed change performed by the transmission based on instructions sent from the switching device , the speed stage selecting device , and the first speed selecting device . a single speed stage selecting device in which a preset speed stage of a second speed or more excluding a first speed is selectably allocated among a plurality of speed stages of the transmission ; a first speed selecting device which is provided independently of the speed stage selecting device and, regardless of a switching state of the switching device , is configured to allow manual selection of the first speed which cannot be selected by the speed stage selecting device , so as to hold a speed stage at the first stage when the first speed stage is selected; and a control device which is arranged to control the speed change performed by the transmission based on instructions sent from the switching device , the speed stage selecting device , and the first speed selecting device .
A method of controlling aerosol production in an aerosol-generating device, the device comprising: a heater comprising at least one heating element configured to heat an aerosol-forming substrate comprising an aerosol former; and a power source for providing power to the heating element, comprising the steps of: controlling the power provided to the heating element such that in a first phase power is provided such that the temperature of the heating element increases from an initial temperature to a first temperature, in a second phase power is provided such that the temperature of the heating element decreases to a second temperature lower than the first temperature and in a third phase power is provided such that the temperature of the heating element increases to a third temperature greater than the second temperature, wherein the first, second and third temperatures are sufficient that aerosol is produced continuously during the first, second and third phases. a heater comprising at least one heating element configured to heat an aerosol-forming substrate comprising an aerosol former; and a power source for providing power to the heating element, comprising the steps of: controlling the power provided to the heating element such that in a first phase power is provided such that the temperature of the heating element increases from an initial temperature to a first temperature, in a second phase power is provided such that the temperature of the heating element decreases to a second temperature lower than the first temperature and in a third phase power is provided such that the temperature of the heating element increases to a third temperature greater than the second temperature, wherein the first, second and third temperatures are sufficient that aerosol is produced continuously during the first, second and third phases.
One or more computer-readable media having instructions that, when executed by one or more processors, cause a user equipment, UE, to perform operations comprising: receiving from an access node configuration information comprising a power control, PC, parameter set of a downlink-beam-specific PC process, wherein the PC parameter set comprises a downlink-beam-specific path loss scaling factor, ∝ c b , in beam b of serving cell c or a downlink-beam-specific command, g t c b , at subframe t for beam b in serving cell c for performing a closed-loop PC process; performing the downlink-beam-specific PC process based at least on a parameter of the PC parameter set; and communicating with the access node according to the downlink-beam-specific PC process. receiving from an access node configuration information comprising a power control, PC, parameter set of a downlink-beam-specific PC process, wherein the PC parameter set comprises a downlink-beam-specific path loss scaling factor, ∝ c b , in beam b of serving cell c or a downlink-beam-specific command, g t c b , at subframe t for beam b in serving cell c for performing a closed-loop PC process; performing the downlink-beam-specific PC process based at least on a parameter of the PC parameter set; and communicating with the access node according to the downlink-beam-specific PC process.
A method for manufacturing a honeycomb structure, the method comprising: - providing a paper honeycomb core comprising a plurality of adjacent cells formed between walls ; - applying adhesive to edges of the honeycomb core ; and - forming the honeycomb structure by attaching a surface of at least one outer cover layer to the edges of the walls of the honeycomb core ; characterized in that it further comprises: - before forming the honeycomb structure, calibrating the honeycomb core by processing at least some of the walls of the honeycomb core by defibrating at least some of the honeycomb walls at their edges such as to limit their height and increase the width (w2) of the edge with respect to the width (w1) of the inner portion of the wall . - providing a paper honeycomb core comprising a plurality of adjacent cells formed between walls ; - applying adhesive to edges of the honeycomb core ; and - forming the honeycomb structure by attaching a surface of at least one outer cover layer to the edges of the walls of the honeycomb core ; - before forming the honeycomb structure, calibrating the honeycomb core by processing at least some of the walls of the honeycomb core by defibrating at least some of the honeycomb walls at their edges such as to limit their height and increase the width (w2) of the edge with respect to the width (w1) of the inner portion of the wall .
Analysis system comprising a microfluidic device with a microstructure which comprises at least one fluid inlet , at least one fluid outlet , at least one fluid channel running between the at least one fluid inlet and the at least one fluid outlet and at least one microactuator for moving at least one fluid through the at least one fluid channel , and a casing in which the microstructure is arranged, and a control and/or reading device for the microfluidic device , characterized in that the microstructure comprises a cover foil whose adhesive properties can be thermally influenced, the microfluidic device comprises at least one thermally activatable valve formed by means of the cover foil , above which valve a heat and/or light passage opening is formed in the casing , the casing comprises an outer contour adapted to the control and/or reading device, the microstructure is firmly fixed at a defined position in the casing and the control and/or analysis device comprises at least one light-emitting diode that can be arranged or is arranged above the respective heat and/or light passage opening , wherein the at least one fluid outlet opens into at least one waste container which is formed separately from the microstructure and is arranged in the casing , wherein the at least one waste container is a bag and in the casing , next to the microstructure , an empty space is formed, into which the bag expands when it is filled; or wherein the at least one fluid outlet opens into at least one waste container which is formed separately from the microstructure , wherein the waste container is a microcanister having fixed dimensions or a fixed cavity as a part of the casing and wherein the at least one waste container comprises at least one vent opening.
A movable contact arm assembly for a circuit breaker assembly , the circuit breaker assembly including a housing assembly , a conductor assembly , and an operating mechanism , said housing assembly defining a substantially enclosed space , said conductor assembly including a fixed contact conductor assembly and a movable contact conductor assembly , said conductor assembly substantially disposed in said housing assembly enclosed space , said fixed contact conductor assembly including a fixed contact , said movable contact conductor assembly including a cross bar assembly and a conductive base conductor assembly , said cross bar assembly including a primary pivot first component and a secondary pivot first component , said conductive base conductor assembly including a clinch joint first component and a secondary pivot second component , said operating mechanism including an actuator coupling first component , said operating mechanism operatively coupled to said movable contact conductor assembly and structured to move said movable contact arm assembly between an open, first position and a closed, second position, said movable contact arm assembly comprising: an elongated member including a distal tip , a first end , a medial portion , an actuator coupling second component structured to be coupled with said actuator coupling first component , a primary pivot second component , a secondary pivot second component , a clinch joint second component , a second end , and a proximal tip ; wherein said elongated member is configured to generate a loop force during an over-current event; and wherein a loop force first portion is disposed on a first longitudinal side of said primary pivot second component , and, a loop force second portion is disposed on a second longitudinal side of said primary pivot second component , characterised in that the loop force first portion and the loop force second portion counteract each other by being disposed on opposite sides of the primary pivot second component on said elongated member . an elongated member including a distal tip , a first end , a medial portion , an actuator coupling second component structured to be coupled with said actuator coupling first component , a primary pivot second component , a secondary pivot second component , a clinch joint second component , a second end , and a proximal tip ; wherein said elongated member is configured to generate a loop force during an over-current event; and wherein a loop force first portion is disposed on a first longitudinal side of said primary pivot second component , and, a loop force second portion is disposed on a second longitudinal side of said primary pivot second component , characterised in that the loop force first portion and the loop force second portion counteract each other by being disposed on opposite sides of the primary pivot second component on said elongated member .
A sensor module comprising: a ceramic module body comprising: a diaphragm displaceable by a pressure of a fluid to be measured introduced into the sensor module; and a detector comprising a strain gauge wherein the detector is provided on a flat surface of the diaphragm opposite to a surface of the diaphragm that is to be in contact with the fluid to be measured, the detector detecting a displacement of the diaphragm ; characterized in that the sensor module further comprises: a cylindrical portion integral with a periphery of the diaphragm ; a pad provided on a flat surface of the cylindrical portion radially outwardly adjacent to the flat surface of the diaphragm ; and an electronic component provided on the flat surface of the cylindrical portion and electrically connected to the detector and the pad , wherein the electronic component is provided opposite to the pad with respect to the flat surface of the diaphragm , and at least one outer groove is provided on an outer periphery of the cylindrical portion in parallel with an axial direction of the cylindrical portion . a ceramic module body comprising: a diaphragm displaceable by a pressure of a fluid to be measured introduced into the sensor module; and a detector comprising a strain gauge wherein the detector is provided on a flat surface of the diaphragm opposite to a surface of the diaphragm that is to be in contact with the fluid to be measured, the detector detecting a displacement of the diaphragm ; a diaphragm displaceable by a pressure of a fluid to be measured introduced into the sensor module; and a detector comprising a strain gauge wherein the detector is provided on a flat surface of the diaphragm opposite to a surface of the diaphragm that is to be in contact with the fluid to be measured, the detector detecting a displacement of the diaphragm ; characterized in that the sensor module further comprises: a cylindrical portion integral with a periphery of the diaphragm ; a pad provided on a flat surface of the cylindrical portion radially outwardly adjacent to the flat surface of the diaphragm ; and an electronic component provided on the flat surface of the cylindrical portion and electrically connected to the detector and the pad , wherein a cylindrical portion integral with a periphery of the diaphragm ; a pad provided on a flat surface of the cylindrical portion radially outwardly adjacent to the flat surface of the diaphragm ; and an electronic component provided on the flat surface of the cylindrical portion and electrically connected to the detector and the pad , wherein the electronic component is provided opposite to the pad with respect to the flat surface of the diaphragm , and at least one outer groove is provided on an outer periphery of the cylindrical portion in parallel with an axial direction of the cylindrical portion .
A method for monitoring and predicting power line conductor health comprising the steps of: - providing original manufacturer conductor specifications for a conductor; - installing said conductor in a power line system; - preparing an initially designed conductor health model using said original manufacturer conductor specifications; - continually measuring an in-use temperature and an in-use clearance of said conductor after installation to provide in-use conductor health data; - calculating a creep of said conductor from said in-use conductor health data; - calibrating said initially designed conductor health model with said in-use conductor health data to provide a calibrated conductor health model; - evaluating a strength of a conductor based on said calibrated conductor health model; and - predicting the remaining strength of said conductor. - providing original manufacturer conductor specifications for a conductor; - installing said conductor in a power line system; - preparing an initially designed conductor health model using said original manufacturer conductor specifications; - continually measuring an in-use temperature and an in-use clearance of said conductor after installation to provide in-use conductor health data; - calculating a creep of said conductor from said in-use conductor health data; - calibrating said initially designed conductor health model with said in-use conductor health data to provide a calibrated conductor health model; - evaluating a strength of a conductor based on said calibrated conductor health model; and - predicting the remaining strength of said conductor.
Method for the production of bitumen blocks, comprising the steps: - forming of bitumen drops from molten bitumen in a drop former , - depositing of the bitumen drops on a rotating belt of a belt cooler, - solidifying of the bitumen drops on the belt of the belt cooler into tablets, and - removing of the tablets from the belt , characterized by - filling of the tablets into bags , wherein bitumen with penetration values according to DIN EN 1426 of more than 10 decimillimeters is used, and wherein the tablets, inside the bags filled with tablets, combine at least partially into a compact bitumen mass. - forming of bitumen drops from molten bitumen in a drop former , - depositing of the bitumen drops on a rotating belt of a belt cooler, - solidifying of the bitumen drops on the belt of the belt cooler into tablets, and - removing of the tablets from the belt , characterized by - filling of the tablets into bags , wherein bitumen with penetration values according to DIN EN 1426 of more than 10 decimillimeters is used, and wherein the tablets, inside the bags filled with tablets, combine at least partially into a compact bitumen mass.
An access node for a wireless network, comprising: at least one processor ; and at least one memory including computer program code , wherein said at least one memory and computer program code are configured, with said at least one processor, to cause the access node to perform the following: receiving , from a wireless device at a location, a channel measurement signal; determining precoding coefficients for the location based on the channel measurement signal; characterized in that said at least one memory and computer program code are configured, with said at least one processor, to cause the access node to perform the following: storing the precoding coefficients as linked to the location; and utilizing , in a sensing phase, the precoding coefficients to sense the location for one or more objects at the location. least one processor ; and at least one memory including computer program code , wherein said at least one memory and computer program code are configured, with said at least one processor, to cause the access node to perform the following: receiving , from a wireless device at a location, a channel measurement signal; determining precoding coefficients for the location based on the channel measurement signal; characterized in that said at least one memory and computer program code are configured, with said at least one processor, to cause the access node to perform the following: storing the precoding coefficients as linked to the location; and utilizing , in a sensing phase, the precoding coefficients to sense the location for one or more objects at the location. storing the precoding coefficients as linked to the location; and utilizing , in a sensing phase, the precoding coefficients to sense the location for one or more objects at the location.
A device for treating a biological fluid with light comprising: a) a housing defining an irradiation chamber ; b) a tray having a first side and a second side located interior of the irradiation chamber for supporting on the first side a container of the biological fluid; c) a first array of multiple light sources mounted in the housing on the first side of the tray; d) a first light energy sensor mounted in the housing on the first side of the tray in association with each of the multiple light sources in the first array ; e) a second light energy sensor mounted in the housing on the second side of the tray ; and f) a programmable controller having an operator input for receiving a target light dose for the biological fluid and configured to automatically: i) activate the first array of multiple light sources , ii) measure a first light intensity with the first light energy sensors , iii) measure a second light intensity with the second light energy sensor , iv) compare the first light intensity to the second light intensity to determine an attenuation factor, characterized by v) applying the attenuation factor to the first light intensity to determine a time to achieve the target light dose, and vi) deactivating the first array of multiple light sources after the time to achieve the target light dose has elapsed. a) a housing defining an irradiation chamber ; b) a tray having a first side and a second side located interior of the irradiation chamber for supporting on the first side a container of the biological fluid; c) a first array of multiple light sources mounted in the housing on the first side of the tray; d) a first light energy sensor mounted in the housing on the first side of the tray in association with each of the multiple light sources in the first array ; e) a second light energy sensor mounted in the housing on the second side of the tray ; and f) a programmable controller having an operator input for receiving a target light dose for the biological fluid and configured to automatically: i) activate the first array of multiple light sources , ii) measure a first light intensity with the first light energy sensors , iii) measure a second light intensity with the second light energy sensor , iv) compare the first light intensity to the second light intensity to determine an attenuation factor, characterized by v) applying the attenuation factor to the first light intensity to determine a time to achieve the target light dose, and vi) deactivating the first array of multiple light sources after the time to achieve the target light dose has elapsed.