mhurhangee/patent-ind-claim-en huggingface dataset:
Transplanter machine for transplanting seedlings rooted in sods in a previously cut furrow, adapted to operate according to a direction of travel (M), comprising: - a supporting frame connectable to an agricultural machine; - means for resting and advancing on the ground in said direction of travel (M) and means (3") for closing the furrow; - at least one transplanter unit (T), where said at least one transplanter unit (T) comprises: - feed means for a plurality of seedlings; - a ploughshare for the ground adapted to cut a furrow into which said seedlings are placed; - means for placing said seedlings in said furrow, - a cutter disc rotatingly associated with said supporting frame , in front of said ploughshare along said direction of travel (M), adapted to cut the ground in advance pre-forming said furrow, so that said ploughshare , subsequently, widens said preformed furrow, characterized in that said cutter disc has a variable thickness that increases gradually from a maximum circumference thereof to a centre thereof, wherein said cutter disc comprises two concave circular plates , facing and joined to each other so as to form a convex structure. - a supporting frame connectable to an agricultural machine; - means for resting and advancing on the ground in said direction of travel (M) and means (3") for closing the furrow; - at least one transplanter unit (T), - feed means for a plurality of seedlings; - a ploughshare for the ground adapted to cut a furrow into which said seedlings are placed; - means for placing said seedlings in said furrow, - a cutter disc rotatingly associated with said supporting frame , in front of said ploughshare along said direction of travel (M), adapted to cut the ground in advance pre-forming said furrow, so that said ploughshare , subsequently, widens said preformed furrow,
A portable terminal comprising: a power receiving circuit configured to wirelessly receive power from an external wireless charging apparatus; a shield member mounted to a rear surface of the power receiving circuit; a metal plate , wherein the metal plate is formed of a steel use stainless material, a circuit board , wherein the metal plate is located at an upper end of the circuit board , wherein the metal plate is configured to receive heat from the circuit board, and the circuit board being electrically connected to the power receiving circuit; and a heat dispersion member connected to the shield member and the metal plate and configured to disperse a heat generated from the shield member or the metal plate, wherein the heat dispersion member comprises a first dispersion sheet , a second dispersion sheet and a plurality of connection passages integrally connecting the first and second dispersion sheet, wherein a rear surface of the circuit board is provided on an upper surface of the first dispersion sheet , wherein a rear surface of the shield member is mounted on an upper surface of the second dispersion sheet , wherein the first dispersion sheet is configured to receive heat of the metal plate and the circuit board and to transfer and disperse the heat to the rear surface of the shield member , and the second dispersion sheet is configured to receive heat of the shield member and to transfer and disperse the heat to the metal plate . a power receiving circuit configured to wirelessly receive power from an external wireless charging apparatus; a shield member mounted to a rear surface of the power receiving circuit; a metal plate , wherein the metal plate is formed of a steel use stainless material, a circuit board , wherein the metal plate is located at an upper end of the circuit board , wherein the metal plate is configured to receive heat from the circuit board, and the circuit board being electrically connected to the power receiving circuit; and a heat dispersion member connected to the shield member and the metal plate and configured to disperse a heat generated from the shield member or the metal plate, wherein the heat dispersion member comprises a first dispersion sheet , a second dispersion sheet and a plurality of connection passages integrally connecting the first and second dispersion sheet, wherein a rear surface of the circuit board is provided on an upper surface of the first dispersion sheet , wherein a rear surface of the shield member is mounted on an upper surface of the second dispersion sheet , wherein the first dispersion sheet is configured to receive heat of the metal plate and the circuit board and to transfer and disperse the heat to the rear surface of the shield member , and the second dispersion sheet is configured to receive heat of the shield member and to transfer and disperse the heat to the metal plate .
A replacement insert for the repair of a joint connecting a wind turbine blade to a rotor hub of a wind turbine, comprising: a bushing having a first end , a second end , an outer surface , and an internal passageway ; a cover around at least a portion of the outer surface of the bushing , the cover defining an outer surface ; and a plurality of protrusions extending from the outer surface of the cover and configured to operate as spacers when the replacement insert is positioned in a bushing cavity in a said wind turbine blade, the plurality of protrusions defining a gap between the outer surface of the replacement insert and the walls that define a said bushing cavity. a bushing having a first end , a second end , an outer surface , and an internal passageway ; a cover around at least a portion of the outer surface of the bushing , the cover defining an outer surface ; and a plurality of protrusions extending from the outer surface of the cover and configured to operate as spacers when the replacement insert is positioned in a bushing cavity in a said wind turbine blade, the plurality of protrusions defining a gap between the outer surface of the replacement insert and the walls that define a said bushing cavity.
A device to capture moisture from a structural member supporting components in an aircraft , the device comprising: a flexible tray configured to snap-fit onto an exterior of the structural member and to collect the moisture from the structural member ; and a diverter coupled to the flexible tray and configured to divert the moisture collected by the flexible tray away from the structural member , wherein the flexible tray comprises opposing lateral sides for extending along opposing sides of the structural member , a bottom that extends between the lateral sides and forms a capture area underneath the structural member in an attached state in which the device is snap-fit onto the structural member , and an outlet in the bottom of the flexible tray and with the diverter coupled to the flexible tray at the outlet , and wherein the tray is flexible such that the lateral sides are forcable, by a force, outwardly for placing the tray around the structural member and when the force is removed, apply a rebound force to the structural member maintaining the attached state alone. a flexible tray configured to snap-fit onto an exterior of the structural member and to collect the moisture from the structural member ; and a diverter coupled to the flexible tray and configured to divert the moisture collected by the flexible tray away from the structural member , wherein the flexible tray comprises opposing lateral sides for extending along opposing sides of the structural member , a bottom that extends between the lateral sides and forms a capture area underneath the structural member in an attached state in which the device is snap-fit onto the structural member , and an outlet in the bottom of the flexible tray and with the diverter coupled to the flexible tray at the outlet , and wherein the tray is flexible such that the lateral sides are forcable, by a force, outwardly for placing the tray around the structural member and when the force is removed, apply a rebound force to the structural member maintaining the attached state alone.
Method for operating a household appliance comprising at least one hob , a worktop and a sensor means for detecting a force acting on the hob and/or the worktop , characterised in that the method comprises the following steps: reading in a sensor signal which represents the force and which represents a centre of gravity of the contents of an item of cookware placed on the hob and/or the worktop as well as a change, caused by a stirring or turning movement, in the centre of gravity of the contents of an item of cookware placed on the hob and/or the worktop ; and evaluating the sensor signal in order to identify a stirring movement from stirring the contents of the item of cookware located on the hob and/or the worktop ; providing a control signal from a controller for controlling the hob and/or a playback device using the sensor signal , a control signal being provided in the provision step in order to output the notification if it was identified in the evaluation step that the stirring movement is below a predetermined stirring time and/or the notification being output if it was identified in the evaluation step that the stirring movement is below a predetermined stirring speed. reading in a sensor signal which represents the force and which represents a centre of gravity of the contents of an item of cookware placed on the hob and/or the worktop as well as a change, caused by a stirring or turning movement, in the centre of gravity of the contents of an item of cookware placed on the hob and/or the worktop ; and evaluating the sensor signal in order to identify a stirring movement from stirring the contents of the item of cookware located on the hob and/or the worktop ; providing a control signal from a controller for controlling the hob and/or a playback device using the sensor signal , a control signal being provided in the provision step in order to output the notification if it was identified in the evaluation step that the stirring movement is below a predetermined stirring time and/or the notification being output if it was identified in the evaluation step that the stirring movement is below a predetermined stirring speed.
A method of detecting the presence of a cathinone moiety in a sample, the method comprising the steps of contacting the sample with a solution comprising neocuproine, a source of copper(II) and an alkali metal halide catalyst to catalyse the formation of a cathinone neocuproine complex and observing a colour change, where present, that correlates with the presence of cathinone, and wherein the method takes place at environmental temperature.
A faucet valve comprising: a first valve body including a first slide surface , and formed from an alumina-based sintered body; and a second valve body including a second slide surface , and formed from an alumina-based sintered body, the first and second slide surfaces at least partially being in contact with each other with water in between, wherein at least part of the second slide surface is formed from a first amorphous carbon layer , characterised in that the hardness of the first amorphous carbon layer is equal to or less than that of the alumina-based sintered body forming the first valve body , and in the first amorphous carbon layer, a ratio (ID/IG) of a D peak to a G peak, measured by Raman spectroscopy, is greater than 0.5 but less than 1.9, or greater than 1.0 but less than 1.5, or 1.1 or greater but 1.4 or less. a first valve body including a first slide surface , and formed from an alumina-based sintered body; and a second valve body including a second slide surface , and formed from an alumina-based sintered body, the first and second slide surfaces at least partially being in contact with each other with water in between, wherein at least part of the second slide surface is formed from a first amorphous carbon layer , characterised in that the hardness of the first amorphous carbon layer is equal to or less than that of the alumina-based sintered body forming the first valve body , and in the first amorphous carbon layer, a ratio (ID/IG) of a D peak to a G peak, measured by Raman spectroscopy, is greater than 0.5 but less than 1.9, or greater than 1.0 but less than 1.5, or 1.1 or greater but 1.4 or less.
Method for controlling an electric drive of a rolling closure or of a blind, wherein the roller closure or the blind can be moved between a lower end point and an upper end point by means of the electric drive, comprising the steps: • registering a closing command, • generating a first control signal which causes the roller closure or the blind to move in the direction of the lower end point by means of the electric drive, • generating a second control signal which causes the electric drive to stop before the roller closure or the blind has reached the lower end point , • waiting for a predefined delay, and • generating a third control signal which causes the roller closure or the blind to approach the lower end point by means of the electric drive. • registering a closing command, • generating a first control signal which causes the roller closure or the blind to move in the direction of the lower end point by means of the electric drive, • generating a second control signal which causes the electric drive to stop before the roller closure or the blind has reached the lower end point , • waiting for a predefined delay, and • generating a third control signal which causes the roller closure or the blind to approach the lower end point by means of the electric drive.
An optical beam tracking system comprising signal processing hardware configured: to receive axis signals from a multi-axis position sensing detector , each axis signal indicative of a beam position of an optical beam incident on the multi-axis position sensing detector , each axis signal corresponding to an axis of the multi-axis position sensing detector ; to generate a reference signal by summing the axis signals ; for each axis of the multi-axis position sensing detector : to convert a phase of a first axis signal of the axis to have a 90 degree phase difference from a second axis signal of the axis ; to generate an axis-phasor signal by summing the first and second axis signals , the axis-phasor signal having an angle that maps to the beam position of the optical beam; and to compare the axis-phasor signal and the reference signal to determine a phase difference, the reference signal based on the axis signals, the phase difference mapping to a beam position error along the corresponding axis on the multi-axis position sensing detector ; and to determine a mirror position of a mirror directing the optical beam based on the beam position error of at least one axis of the multi-axis position sensing detector . to receive axis signals from a multi-axis position sensing detector , each axis signal indicative of a beam position of an optical beam incident on the multi-axis position sensing detector , each axis signal corresponding to an axis of the multi-axis position sensing detector ; to generate a reference signal by summing the axis signals ; for each axis of the multi-axis position sensing detector : to convert a phase of a first axis signal of the axis to have a 90 degree phase difference from a second axis signal of the axis ; to generate an axis-phasor signal by summing the first and second axis signals , the axis-phasor signal having an angle that maps to the beam position of the optical beam; and to compare the axis-phasor signal and the reference signal to determine a phase difference, the reference signal based on the axis signals, the phase difference mapping to a beam position error along the corresponding axis on the multi-axis position sensing detector ; and to convert a phase of a first axis signal of the axis to have a 90 degree phase difference from a second axis signal of the axis ; to generate an axis-phasor signal by summing the first and second axis signals , the axis-phasor signal having an angle that maps to the beam position of the optical beam; and to compare the axis-phasor signal and the reference signal to determine a phase difference, the reference signal based on the axis signals, the phase difference mapping to a beam position error along the corresponding axis on the multi-axis position sensing detector ; and to determine a mirror position of a mirror directing the optical beam based on the beam position error of at least one axis of the multi-axis position sensing detector .
A vehicle , comprising: a controller to control an operation of at least one component of the vehicle ; a clock to synchronize the operation of the component of the vehicle ; a memory to store a clock offset to the clock of the vehicle to adjust the synchronization of the operation of the component of the vehicle ; a receiver to receive a set of heartbeat messages from a set of neighboring vehicles , each heartbeat message received from a neighboring vehicle includes a time of transmission of the heartbeat message , a location of the neighboring vehicle and a velocity of the neighboring vehicle , wherein the receiver receives each heartbeat message at a corresponding receipt time measured using the clock of the vehicle ; and a processor to update the clock offset stored in the memory in response to determining concurrently an unknown clock offset and an unknown location of the vehicle at a particular time by comparing a first trilateration of distances traveled by light between the times of the transmission of the heartbeat messages and corresponding receipt times adjusted with the unknown clock offset with a second trilateration of distances between the vehicle at the unknown location and the locations of the neighboring vehicles retrieved from the heartbeat messages . a controller to control an operation of at least one component of the vehicle ; a clock to synchronize the operation of the component of the vehicle ; a memory to store a clock offset to the clock of the vehicle to adjust the synchronization of the operation of the component of the vehicle ; a receiver to receive a set of heartbeat messages from a set of neighboring vehicles , each heartbeat message received from a neighboring vehicle includes a time of transmission of the heartbeat message , a location of the neighboring vehicle and a velocity of the neighboring vehicle , wherein the receiver receives each heartbeat message at a corresponding receipt time measured using the clock of the vehicle ; and a processor to update the clock offset stored in the memory in response to determining concurrently an unknown clock offset and an unknown location of the vehicle at a particular time by comparing a first trilateration of distances traveled by light between the times of the transmission of the heartbeat messages and corresponding receipt times adjusted with the unknown clock offset with a second trilateration of distances between the vehicle at the unknown location and the locations of the neighboring vehicles retrieved from the heartbeat messages .
Pull-opening cap of longitudinal axis X, having on the one hand a fixed body fitted with a fastening relief configured to be fastened to a neck of a container containing a product, and on the other hand a head able to move in translation along the axis X relative to the fixed body , the mobile head defining a product outlet orifice , the fixed body and the mobile head together delimiting an internal passage for dispensing the product, and the mobile head being movable between a position for blocking the dispensing of the product and a position for dispensing the product at the outlet orifice , and the cap having an air intake passage , characterized in that the product outlet orifice forms an orifice for the passage of the air entering or leaving the air intake passage .
A method for monitoring state of charge, "SOC", of a flow battery system, the flow battery system comprising a stack , an anode electrolyte storage tank , a cathode electrolyte storage tank and an electrolyte circulating pipeline , characterized in that the monitoring method comprises the following steps: Step 1: determining SOCs of at least two pairs of different monitoring positions, any pair of monitoring positions being as followings: an inside of the anode electrolyte storage tank and an inside of the cathode electrolyte storage tank, inside an anode electrolyte outlet pipeline of the stack and inside a cathode electrolyte outlet pipeline of the stack, or inside an anode electrolyte inlet pipeline of the stack and inside a cathode electrolyte inlet pipeline of the stack; Step 2: configuring coefficients according to a ratio of a power to a capacity of the flow battery system; according to the SOCs respectively corresponding to each pair of monitoring positions, acquiring a SOC sum of a flow battery system; calculating the SOC sum of the flow battery system according to a formula SOC sum = ΣN n × SOC n , wherein N n are the coefficients, ∑N n = 1, n is pairs of monitoring positions, n is equal to 2 or 3. Step 1: determining SOCs of at least two pairs of different monitoring positions, any pair of monitoring positions being as followings: an inside of the anode electrolyte storage tank and an inside of the cathode electrolyte storage tank, inside an anode electrolyte outlet pipeline of the stack and inside a cathode electrolyte outlet pipeline of the stack, or inside an anode electrolyte inlet pipeline of the stack and inside a cathode electrolyte inlet pipeline of the stack; Step 2: configuring coefficients according to a ratio of a power to a capacity of the flow battery system; according to the SOCs respectively corresponding to each pair of monitoring positions, acquiring a SOC sum of a flow battery system; calculating the SOC sum of the flow battery system according to a formula SOC sum = ΣN n × SOC n , wherein N n are the coefficients, ∑N n = 1, n is pairs of monitoring positions, n is equal to 2 or 3.
Method for producing a homogenised distribution of light quantity with a spatial light modulator that comprises a multitude of controllable tiltable micro-mirrors arranged in rows and columns, in which the light of a spatially emitting light source is projected by means of an optical system , wherein an illuminated field of the projected light source is guided over a projection surface, a number of pixels increasing towards the middle of the illuminated field not being illuminated such that a homogenisation of the light intensity of all pixels being illuminated on the projection surface is attained in the time integral, characterised in that the light source is a LED data projector .