mhurhangee/patent-ind-claim-en huggingface dataset:
A computer-implemented method of determining a value indicative of damage incurred by a system of gears in a wind turbine, the method comprising: determining two or more centre harmonic frequency amplitudes according to vibrations of the system of gears; determining a plurality of sideband amplitudes of each of the two or more centre harmonic frequency amplitudes; summing the two or more centre harmonic frequency amplitudes to calculate a total centre harmonic frequency amplitude; summing each of the plurality of sideband amplitudes of the two or more centre harmonic frequency amplitudes to calculate a total sideband amplitude; determining a value indicative of damage incurred by the system of gears based upon the total sideband amplitude and the total centre harmonic frequency amplitude. determining two or more centre harmonic frequency amplitudes according to vibrations of the system of gears; determining a plurality of sideband amplitudes of each of the two or more centre harmonic frequency amplitudes; summing the two or more centre harmonic frequency amplitudes to calculate a total centre harmonic frequency amplitude; summing each of the plurality of sideband amplitudes of the two or more centre harmonic frequency amplitudes to calculate a total sideband amplitude; determining a value indicative of damage incurred by the system of gears based upon the total sideband amplitude and the total centre harmonic frequency amplitude.
A light emitter component, comprising: 1.1 a ceramic submount ; 1.2 at least a first pair of electrical traces fully disposed on a first side of the submount; 1.3 at least a first pair of electrical contacts disposed on a second side of the submount, wherein the first pair of electrical contacts is configured to electrically communicate with the first pair of electrical traces by one or more vias that are fully internal to the submount; 1.4 at least one light emitter chip disposed on the first side of the submount, the second side being an opposing side of the submount from the first side thereof, the at least one light emitter chip being configured to electrically communicate with the first pair of electrical traces; and 1.5 a non-ceramic reflector disposed about the at least one light emitter chip, at least a portion of the reflector being configured to conceal each trace of the first pair of electrical traces, such that each trace of the first pair of electrical traces is fully disposed under the reflector . 1.1 a ceramic submount ; 1.2 at least a first pair of electrical traces fully disposed on a first side of the submount; 1.3 at least a first pair of electrical contacts disposed on a second side of the submount, wherein the first pair of electrical contacts is configured to electrically communicate with the first pair of electrical traces by one or more vias that are fully internal to the submount; 1.4 at least one light emitter chip disposed on the first side of the submount, the second side being an opposing side of the submount from the first side thereof, the at least one light emitter chip being configured to electrically communicate with the first pair of electrical traces; and 1.5 a non-ceramic reflector disposed about the at least one light emitter chip, at least a portion of the reflector being configured to conceal each trace of the first pair of electrical traces, such that each trace of the first pair of electrical traces is fully disposed under the reflector .
A walk-behind mower , said walk-behind mower comprising: a frame ; a power source attached to said frame ; a selectively steerable drive wheel rotatably attached to said frame ; a set of follower wheels attached to said frame ; a steering wheel assembly attached to said frame , said steering wheel assembly comprising: a steering column ; a steering wheel attached to said steering column ; a universal joint connecting said steering wheel assembly to said frame ; a mower deck attached to said frame ; and a mower blade assembly attached to said deck , wherein said steering wheel assembly is configured to apply a force to said frame on a vertical axis passing through said selectively steerable drive wheel , and characterised in that said vertical axis is co-linear with a vertical centerline of said steerable drive wheel . a frame ; a power source attached to said frame ; a selectively steerable drive wheel rotatably attached to said frame ; a set of follower wheels attached to said frame ; a steering wheel assembly attached to said frame , said steering wheel assembly comprising: a steering column ; a steering wheel attached to said steering column ; a steering column ; a steering wheel attached to said steering column ; a universal joint connecting said steering wheel assembly to said frame ; a mower deck attached to said frame ; and a mower blade assembly attached to said deck , wherein said steering wheel assembly is configured to apply a force to said frame on a vertical axis passing through said selectively steerable drive wheel , and characterised in that said vertical axis is co-linear with a vertical centerline of said steerable drive wheel .
A self-propelled vehicle comprising: a chassis ; first and second drive wheels connected to the chassis; first and second drive systems connected to the first and second drive wheels for independently controlling a rotational drive speed of each of the first and second drive wheels; a steering system for steering the vehicle comprising: a steering device , the steering device being an operator control; a steering actuator connected to the operator control; characterised by : a steering position sensor that produces a signal based on the position of the steering actuator; and a control unit that adjusts the rotational drive speed of the first drive wheel and the rotational drive speed of the second drive wheel based at least in part on the signal produced by the steering position sensor, a difference in rotational drive speed between the first and second drive wheels steering the vehicle. a chassis ; first and second drive wheels connected to the chassis; first and second drive systems connected to the first and second drive wheels for independently controlling a rotational drive speed of each of the first and second drive wheels; a steering system for steering the vehicle comprising: a steering device , the steering device being an operator control; a steering actuator connected to the operator control; a steering device , the steering device being an operator control; a steering actuator connected to the operator control; characterised by : a steering position sensor that produces a signal based on the position of the steering actuator; and a control unit that adjusts the rotational drive speed of the first drive wheel and the rotational drive speed of the second drive wheel based at least in part on the signal produced by the steering position sensor, a difference in rotational drive speed between the first and second drive wheels steering the vehicle. a steering position sensor that produces a signal based on the position of the steering actuator; and a control unit that adjusts the rotational drive speed of the first drive wheel and the rotational drive speed of the second drive wheel based at least in part on the signal produced by the steering position sensor, a difference in rotational drive speed between the first and second drive wheels steering the vehicle.
Battery system , comprising: a battery module carrier with a carrier frame accommodating a first component carrier and a second component carrier , the first component carrier comprising a control electronics assembly and a signal port ; and, the second component carrier being configured for accommodating a battery submodule , wherein the carrier frame is configured to provide an external electronic connection to the first component carrier via the signal port , wherein each of the first component carrier and the second component carrier are configured to be individually attached and detached from the carrier frame , wherein the battery module carrier further comprises external coolant ports configured for fluidly connecting to an external coolant circuit, the external coolant ports being connected to or integrated in the carrier frame , wherein the second component carrier comprises second coolant ports and a second ground plate with a second coolant duct fluidly connected to the second coolant ports , and wherein the second coolant ports are fluidly connected to the external coolant ports. a battery module carrier with a carrier frame accommodating a first component carrier and a second component carrier , the first component carrier comprising a control electronics assembly and a signal port ; and, the second component carrier being configured for accommodating a battery submodule , wherein the carrier frame is configured to provide an external electronic connection to the first component carrier via the signal port , wherein each of the first component carrier and the second component carrier are configured to be individually attached and detached from the carrier frame , wherein the battery module carrier further comprises external coolant ports configured for fluidly connecting to an external coolant circuit, the external coolant ports being connected to or integrated in the carrier frame , wherein the second component carrier comprises second coolant ports and a second ground plate with a second coolant duct fluidly connected to the second coolant ports , and wherein the second coolant ports are fluidly connected to the external coolant ports.
An obstruction for mounting along a perimeter of a vessel or marine installation, wherein the vessel or marine installation comprises a deck having a perimeter railing and an upstanding plate along an edge of the deck, the obstruction having an elongate body comprising: a longitudinal groove for receiving a lowermost course of rails of the perimeter railing; and a tongue for overhanging the plate on an outboard or seaward side thereof, the tongue comprising a rear surface intended to face in an inboard direction when the obstruction is mounted along the perimeter of the vessel or marine installation; characterized in that : a separation (s) between the rear surface of the tongue and a centreline (X-X') of the longitudinal groove is between 30 and 300 mm; and the centreline (X-X') of the longitudinal groove and the separation (s) together define a plane subtending an angle (θ) of between 90 and 135 degrees to the rear surface of the tongue. a longitudinal groove for receiving a lowermost course of rails of the perimeter railing; and a tongue for overhanging the plate on an outboard or seaward side thereof, the tongue comprising a rear surface intended to face in an inboard direction when the obstruction is mounted along the perimeter of the vessel or marine installation; characterized in that : a separation (s) between the rear surface of the tongue and a centreline (X-X') of the longitudinal groove is between 30 and 300 mm; and the centreline (X-X') of the longitudinal groove and the separation (s) together define a plane subtending an angle (θ) of between 90 and 135 degrees to the rear surface of the tongue. a separation (s) between the rear surface of the tongue and a centreline (X-X') of the longitudinal groove is between 30 and 300 mm; and the centreline (X-X') of the longitudinal groove and the separation (s) together define a plane subtending an angle (θ) of between 90 and 135 degrees to the rear surface of the tongue.
A respiratory device comprising: a housing having a hose port ; a magnetic proximity switch positioned within the housing adjacent to the hose port and electrically coupled to a control system ; a filter sized to be positioned on the hose port, the filter having a filtration chamber positioned between a filter inlet and a filter outlet ; and a metal end piece coupled to the inlet of the filter, wherein the metal end piece is positioned around a perimeter of the filter inlet such that the filter inlet is positionable on the hose port at any rotational position, wherein the metal end piece is configured to activate the magnetic proximity switch, such that the switch sends a signal to the control system when the filter inlet is coupled to the hose port, and wherein the control system is configured to render the respiratory device inoperable if the signal is not sent to the control system. a housing having a hose port ; a magnetic proximity switch positioned within the housing adjacent to the hose port and electrically coupled to a control system ; a filter sized to be positioned on the hose port, the filter having a filtration chamber positioned between a filter inlet and a filter outlet ; and a metal end piece coupled to the inlet of the filter, wherein the metal end piece is positioned around a perimeter of the filter inlet such that the filter inlet is positionable on the hose port at any rotational position, wherein the metal end piece is configured to activate the magnetic proximity switch, such that the switch sends a signal to the control system when the filter inlet is coupled to the hose port, and wherein the control system is configured to render the respiratory device inoperable if the signal is not sent to the control system.
An epoxy resin composition comprising all of the following components (A) to (D): component (A): an epoxy resin; component (B): a hardener; component (C): a diisocyanate compound having consecutive double bonds, an alicyclic structure, or heterocyclic structure; and component (D): a polyisocyanate compound excluding the component (C), wherein a content of the component (A) is 30% by mass or more and 95% by mass or less per 100% by mass of a total mass of the epoxy resin composition, and a ratio Wc/Wd of a content Wc of the component (C) to a content Wd of the component (D) is 0.01 or more and 10 or less. component (A): an epoxy resin; component (B): a hardener; component (C): a diisocyanate compound having consecutive double bonds, an alicyclic structure, or heterocyclic structure; and component (D): a polyisocyanate compound excluding the component (C), wherein a content of the component (A) is 30% by mass or more and 95% by mass or less per 100% by mass of a total mass of the epoxy resin composition, and a ratio Wc/Wd of a content Wc of the component (C) to a content Wd of the component (D) is 0.01 or more and 10 or less.
A power determining method, comprising: Receiving , by a terminal (UE), a first offset value from a network device (gNB), wherein the first offset value is determined based on a penetration loss on a first carrier and a penetration loss on a second carrier, a frequency of the first carrier being significantly different from a frequency of the second carrier, the first carrier is an uplink carrier of the terminal, and the second carrier is a time division duplex, TDD, carrier or a downlink carrier of the terminal comprising a reference signal; determining , by the terminal based on receive power for receiving a downlink signal on the second carrier and the first offset value, power for sending an uplink signal on the first carrier, when the receive power for receiving the downlink signal on the second carrier by the terminal is less than or equal to a first threshold; or when a path loss for receiving the downlink signal on the second carrier by the terminal is less than or equal to a second threshold,; or when reference signal received power, RSRP, for receiving the downlink signal on the second carrier by the terminal is less than or equal to a third threshold. Receiving , by a terminal (UE), a first offset value from a network device (gNB), wherein the first offset value is determined based on a penetration loss on a first carrier and a penetration loss on a second carrier, a frequency of the first carrier being significantly different from a frequency of the second carrier, the first carrier is an uplink carrier of the terminal, and the second carrier is a time division duplex, TDD, carrier or a downlink carrier of the terminal comprising a reference signal; determining , by the terminal based on receive power for receiving a downlink signal on the second carrier and the first offset value, power for sending an uplink signal on the first carrier, when the receive power for receiving the downlink signal on the second carrier by the terminal is less than or equal to a first threshold; or when a path loss for receiving the downlink signal on the second carrier by the terminal is less than or equal to a second threshold,; or when reference signal received power, RSRP, for receiving the downlink signal on the second carrier by the terminal is less than or equal to a third threshold.
A method for automatically predicting a suboptimal shooting mistake comprising: providing a plurality of good example reference data examples of shot dispersion patterns and examples from a sensor mounted on a weapon that do not indicate the suboptimal shooting mistake to a machine learning algorithm ; providing a plurality of bad example reference data examples of shot dispersion patterns and examples from the sensor mounted on the weapon that do indicate the suboptimal shooting mistake to the machine learning algorithm ; calculating an error value for the machine learning algorithm based on differences between a desired response of the machine learning algorithm and an actual response of the machine learning algorithm to the plurality of good example reference data examples and to the plurality of bad example reference data examples ; adjusting weights in the machine learning algorithm and back propagating the error value until the error value is below a given threshold value; obtaining training data of a trainee's shot dispersion data and from at least one sensor mounted on a trainee's weapon, wherein the at least one sensor is identical to the sensor used in examples from the reference data; using the machine learning algorithm including the weights to classify the training data into a classification of either including the suboptimal shooting mistake or not including the suboptimal shooting mistake; and, displaying feedback on a screen about the suboptimal shooting mistake based on the classification providing a plurality of good example reference data examples of shot dispersion patterns and examples from a sensor mounted on a weapon that do not indicate the suboptimal shooting mistake to a machine learning algorithm ; providing a plurality of bad example reference data examples of shot dispersion patterns and examples from the sensor mounted on the weapon that do indicate the suboptimal shooting mistake to the machine learning algorithm ; calculating an error value for the machine learning algorithm based on differences between a desired response of the machine learning algorithm and an actual response of the machine learning algorithm to the plurality of good example reference data examples and to the plurality of bad example reference data examples ; adjusting weights in the machine learning algorithm and back propagating the error value until the error value is below a given threshold value; obtaining training data of a trainee's shot dispersion data and from at least one sensor mounted on a trainee's weapon, wherein the at least one sensor is identical to the sensor used in examples from the reference data; using the machine learning algorithm including the weights to classify the training data into a classification of either including the suboptimal shooting mistake or not including the suboptimal shooting mistake; and, displaying feedback on a screen about the suboptimal shooting mistake based on the classification
A spring assisted drug delivery device comprising: a housing ; a piston rod having a longitudinal axis, a distal end and a proximal end that is axially movable in a distal direction relative to the housing , a mid-body fixed inside of the housing and coupled to the piston rod in such a manner that the piston rod is axially movable in the distal direction relative to the mid-body , wherein a preloaded spring is operatively coupled to the piston rod in such a manner that, during a dose administration step, the spring is released and the stored force in the spring supports driving the piston rod in the distal direction, characterized in that the preloaded spring is operatively coupled between the mid-body and the piston rod , and in that the preloaded spring is operatively coupled between the mid-body and a bearing of the piston rod . a housing ; a piston rod having a longitudinal axis, a distal end and a proximal end that is axially movable in a distal direction relative to the housing , a mid-body fixed inside of the housing and coupled to the piston rod in such a manner that the piston rod is axially movable in the distal direction relative to the mid-body , wherein a preloaded spring is operatively coupled to the piston rod in such a manner that, during a dose administration step, the spring is released and the stored force in the spring supports driving the piston rod in the distal direction, characterized in that the preloaded spring is operatively coupled between the mid-body and the piston rod , and in that the preloaded spring is operatively coupled between the mid-body and a bearing of the piston rod .
A lanyard comprising: a housing comprising an opening ; a reel rotatably mounted within the housing ; an elongate structure wound around the reel , the elongate structure having an inner end coupled to the reel and an opposing outer end extending out of the opening ; a first coupling mechanism coupled to the outer end of the elongate structure ; a second coupling mechanism coupled to the housing ; a retraction system coupled to the reel , wherein the retraction system biases the elongate structure to be rewound onto the reel ; and characterized by : an arm coupled to the housing , the arm comprising a body , a first end of the body , and an opposing second end of the body , wherein the arm actuates between: a locked position in which the first end extends out of the housing and the second end does not extend out of the housing , the arm interfacing with the reel to bias the reel from rotating when the arm is in the locked position; and an unlocked position in which the second end extends out of the housing and the first end does not extend out of the housing , wherein the arm does not bias the reel from rotating when the arm is in the unlocked position. a housing comprising an opening ; a reel rotatably mounted within the housing ; an elongate structure wound around the reel , the elongate structure having an inner end coupled to the reel and an opposing outer end extending out of the opening ; a first coupling mechanism coupled to the outer end of the elongate structure ; a second coupling mechanism coupled to the housing ; a retraction system coupled to the reel , wherein the retraction system biases the elongate structure to be rewound onto the reel ; and a locked position in which the first end extends out of the housing and the second end does not extend out of the housing , the arm interfacing with the reel to bias the reel from rotating when the arm is in the locked position; and an unlocked position in which the second end extends out of the housing and the first end does not extend out of the housing , wherein the arm does not bias the reel from rotating when the arm is in the unlocked position.