mhurhangee/patent-ind-claim-en huggingface dataset:
A tuft picker comprising a first part and a second part spaced by a distance (D), wherein the first part and the second part each comprise a working surface comprising each at least one picker eye with an opening in the working surface , wherein the opening of the first part and the opening of the second part are located at identical positions at the working surfaces and are spaced by the distance (D), thereby forming a picker eye volume comprising the picker eye from the first part and the picker eye from the second part and the interspace in between; and comprising a cover tool located between the first part and the second part , wherein the cover tool comprises a hook which is connected by a spacer to a main body , wherein the hook comprises a first surface and a second surface , wherein the form of the first surface corresponds to the working surfaces at the openings characterized in that the cover tool is movable relative to the picker eye volume from a first position to a second position, wherein the hook is located outside the picker eye volume in the first position of the cover tool and is located in the second position of the cover tool in such that it limits the picker eye volume at the interspace at the common building line of the working surfaces .
A system for controlling a wind turbine , comprising: at least one sensor configured to provide a wind speed signal indicative of a wind speed experienced by the wind turbine ; a turbine controller configured to control the operation of the wind turbine ; a secondary controller inserted between the at least one sensor and the turbine controller , the secondary controller separated from the turbine controller by a distance, the secondary controller configured to receive the wind speed signal from the at least one sensor over a communication interface configured to receive input signals associated with the wind speed and a power production of the wind turbine , wherein the secondary controller is configured to adjust the wind speed signal based at least in part on a signal bias to an adjusted wind speed signal and to provide the adjusted wind speed signal to the turbine controller ; wherein the secondary controller is configured to determine the signal bias based at least in part on the wind speed and the power production, and wherein the turbine controller is configured to determine a tip speed ratio setpoint for the wind turbine based at least in part on the adjusted wind speed signal, and to adjust a pitch angle associated with one or more rotor blades of the wind turbine based on the tip speed ratio set point. at least one sensor configured to provide a wind speed signal indicative of a wind speed experienced by the wind turbine ; a turbine controller configured to control the operation of the wind turbine ; a secondary controller inserted between the at least one sensor and the turbine controller , the secondary controller separated from the turbine controller by a distance, the secondary controller configured to receive the wind speed signal from the at least one sensor over a communication interface configured to receive input signals associated with the wind speed and a power production of the wind turbine , wherein the secondary controller is configured to adjust the wind speed signal based at least in part on a signal bias to an adjusted wind speed signal and to provide the adjusted wind speed signal to the turbine controller ; wherein the secondary controller is configured to determine the signal bias based at least in part on the wind speed and the power production, and wherein the turbine controller is configured to determine a tip speed ratio setpoint for the wind turbine based at least in part on the adjusted wind speed signal, and to adjust a pitch angle associated with one or more rotor blades of the wind turbine based on the tip speed ratio set point.
A dive computer for displaying output data to a user during a dive, wherein the dive computer comprises a user input unit configured for inputting input data to the dive computer by rotating a rotational input device , wherein the user input unit is further configured for inputting further input data to the dive computer by pushing or pulling the rotational input device , wherein the dive computer further comprises a housing at which the rotational input device is rotatably mounted, characterized in that the pushable rotational input device comprises a biasing mechanism configured for applying a predefined biasing force to the rotational input device for biasing the rotational input device into a non-pushed position, wherein the biasing force is predefined so as to prevent undesired triggering of a pushing operation by water pressure at the maximum diving depth, wherein the dive computer further comprises a magnetic coupling configured for coupling the housing to the rotational input device in a waterproof way. wherein the dive computer comprises a user input unit configured for inputting input data to the dive computer by rotating a rotational input device , wherein the user input unit is further configured for inputting further input data to the dive computer by pushing or pulling the rotational input device , wherein the dive computer further comprises a housing at which the rotational input device is rotatably mounted, characterized in that the pushable rotational input device comprises a biasing mechanism configured for applying a predefined biasing force to the rotational input device for biasing the rotational input device into a non-pushed position, wherein the biasing force is predefined so as to prevent undesired triggering of a pushing operation by water pressure at the maximum diving depth, wherein the dive computer further comprises a magnetic coupling configured for coupling the housing to the rotational input device in a waterproof way.
A process for the preparation of a window element, comprising - providing a switchable optical cell which comprises a switchable layer interposed between a first transparent substrate and a second transparent substrate, wherein the switchable layer comprises a liquid-crystalline medium having a negative dielectric anisotropy, a clearing point of 115°C or more, and an optical anisotropy Δn of 0.10 or less, and wherein the liquid-crystalline medium does not contain any compounds which comprise cyclohexylene groups with axial cyano substituents, and - laminating the switchable optical cell to a third substrate. - providing a switchable optical cell which comprises a switchable layer interposed between a first transparent substrate and a second transparent substrate, wherein the switchable layer comprises a liquid-crystalline medium having a negative dielectric anisotropy, a clearing point of 115°C or more, and an optical anisotropy Δn of 0.10 or less, and wherein the liquid-crystalline medium does not contain any compounds which comprise cyclohexylene groups with axial cyano substituents, and - laminating the switchable optical cell to a third substrate.
A method for tracking the quality of a beverage produced according to a batch process, the method comprising: adding a first ingredient to water to form a batch ; mixing the batch until the first ingredient is fully mixed; subsequently, adding a second ingredient to the batch ; mixing the batch until the second ingredient is fully mixed; continuously measuring the density of the batch using an in-line density device ; continuously monitoring changes in density of the batch ; continuously detecting deviations from a target recipe based on the changes in density; and correcting for any detected deviations by matching the density to the target recipe by addition of more of the first ingredient or the second ingredient. adding a first ingredient to water to form a batch ; mixing the batch until the first ingredient is fully mixed; subsequently, adding a second ingredient to the batch ; mixing the batch until the second ingredient is fully mixed; continuously measuring the density of the batch using an in-line density device ; continuously monitoring changes in density of the batch ; continuously detecting deviations from a target recipe based on the changes in density; and correcting for any detected deviations by matching the density to the target recipe by addition of more of the first ingredient or the second ingredient.
An information processing apparatus, comprising: a recognizing portion configured to perform image recognition processing with respect to an image photographed by a photographing portion and calculate, for each recognized area, the recognized area corresponding to an object recognized, a reliability of the recognition result; and an irradiation control portion configured to control an irradiation pattern of visible light in a photographing direction of the photographing portion and control light intensity of visible light with respect to a low-reliability area based on the reliability and at least one of a distance to an object and a speed of a vehicle where the information processing apparatus is installed, wherein the low-reliability area is the recognized area of which the reliability is lower than a prescribed threshold, wherein the irradiation control portion is configured to set the light intensity to zero when the distance to the object is equal or greater than a distance threshold, wherein the irradiation control portion is configured to increase the distance threshold as the speed of the vehicle increases. a recognizing portion configured to perform image recognition processing with respect to an image photographed by a photographing portion and calculate, for each recognized area, the recognized area corresponding to an object recognized, a reliability of the recognition result; and an irradiation control portion configured to control an irradiation pattern of visible light in a photographing direction of the photographing portion and control light intensity of visible light with respect to a low-reliability area based on the reliability and at least one of a distance to an object and a speed of a vehicle where the information processing apparatus is installed, wherein the low-reliability area is the recognized area of which the reliability is lower than a prescribed threshold, wherein the irradiation control portion is configured to set the light intensity to zero when the distance to the object is equal or greater than a distance threshold, wherein the irradiation control portion is configured to increase the distance threshold as the speed of the vehicle increases.
A rotor , comprising: an upper skin ; a lower skin ; and an at least partly corrugated core (202; 300) encased between the upper skin and the lower skin , wherein the core (202; 300) includes a first portion associated with a central disk portion of the rotor and a second portion associated with one or more rotor blade portions of the rotor, and wherein the first portion comprises a rosette comprising a plurality of corrugated structures that extend radially from a central bore hole of the rotor. an upper skin ; a lower skin ; and an at least partly corrugated core (202; 300) encased between the upper skin and the lower skin , wherein the core (202; 300) includes a first portion associated with a central disk portion of the rotor and a second portion associated with one or more rotor blade portions of the rotor, and wherein the first portion comprises a rosette comprising a plurality of corrugated structures that extend radially from a central bore hole of the rotor.
A bypass system for a vapor cycle machine , the system comprising: a refrigerant filter/dryer receiving a flow of liquid refrigerant from an inlet line and discharging the liquid refrigerant to an outlet line ; a bypass line interconnecting the inlet line and the outlet line ; a bypass valve positioned upstream the refrigerant filter/dryer and configured to divert a portion or all of the flow of liquid refrigerant from the inlet line into the bypass line ; a flow limiting orifice positioned in the bypass line ; one or more secondary filter dryer function (FDF) components positioned in the bypass line , to maintain a filter/dryer function for the liquid refrigerant flowing in a bypass condition, downstream the flow limiting orifice , the one or more secondary filter dryer function (FDF) components having a lower capacity compared to the refrigerant filter/dryer and a combination of the flow limiting orifice and the one or more secondary filter dryer function (FDF) components being configured to provide comparable flow of the liquid refrigerant flowing in the bypass line to normal flow condition defined by the refrigerant filter/dryer ; and a condition sensor providing a condition status signal indicative of refrigerant filter/dryer physical condition of terminal life, said bypass valve operable responsive to the condition status signal . a refrigerant filter/dryer receiving a flow of liquid refrigerant from an inlet line and discharging the liquid refrigerant to an outlet line ; a bypass line interconnecting the inlet line and the outlet line ; a bypass valve positioned upstream the refrigerant filter/dryer and configured to divert a portion or all of the flow of liquid refrigerant from the inlet line into the bypass line ; a flow limiting orifice positioned in the bypass line ; one or more secondary filter dryer function (FDF) components positioned in the bypass line , to maintain a filter/dryer function for the liquid refrigerant flowing in a bypass condition, downstream the flow limiting orifice , the one or more secondary filter dryer function (FDF) components having a lower capacity compared to the refrigerant filter/dryer and a combination of the flow limiting orifice and the one or more secondary filter dryer function (FDF) components being configured to provide comparable flow of the liquid refrigerant flowing in the bypass line to normal flow condition defined by the refrigerant filter/dryer ; and a condition sensor providing a condition status signal indicative of refrigerant filter/dryer physical condition of terminal life, said bypass valve operable responsive to the condition status signal .
A declutching system for handle arrangement of a motor vehicle comprising an axle whereon are arranged a housing and a declutching member , the declutching system presenting two positions, a clutch position wherein the declutching member blocks the housing in rotation around the axle by cooperating with at least one cam of the housing and a declutch position wherein the declutching member allows the housing to rotate around the axle , characterized in that , the declutching member comprises a body to which extends at least one reversible deformable leg , wherein in the clutched position of the declutching system , the at least one reversible deformable leg cooperates with the at least one cam of the housing and blocks into rotation the housing around the axle , and wherein in the declutched position of the declutching system , the at least one reversible deformable leg is deformed in the direction of the body and thereof enabling the rotationally displacement of the housing around the axle . the declutching member comprises a body to which extends at least one reversible deformable leg , wherein in the clutched position of the declutching system , the at least one reversible deformable leg cooperates with the at least one cam of the housing and blocks into rotation the housing around the axle , and wherein in the declutched position of the declutching system , the at least one reversible deformable leg is deformed in the direction of the body and thereof enabling the rotationally displacement of the housing around the axle .
A textile processing device comprising: - a processing chamber , - a vapour supply unit configured to supply water vapour with a predetermined vapour property to the processing chamber, - a vapour detection unit configured to detect a vapour parameter of the water vapour supplied to the processing chamber , and - a hot air supply unit configured to supply hot air with a predetermined hot air property to the processing chamber - a hot air detection unit configured to detect a hot air parameter of the hot air supplied to the processing chamber , characterised by - a textile attachment unit configured to supply a textile to the processing chamber , - a vapour control unit configured to change a vapour property of the water vapour supplied to the processing chamber in response to the detected vapour parameter, and - a hot air control unit configured to change a hot air property of the hot air supplied to the processing chamber in response to the detected hot air parameter, wherein the hot air control unit is further configured to change a hot air property of the hot air supplied to the processing chamber in response to the detected vapour parameter. - a processing chamber , - a vapour supply unit configured to supply water vapour with a predetermined vapour property to the processing chamber, - a vapour detection unit configured to detect a vapour parameter of the water vapour supplied to the processing chamber , and - a hot air supply unit configured to supply hot air with a predetermined hot air property to the processing chamber - a hot air detection unit configured to detect a hot air parameter of the hot air supplied to the processing chamber , - a textile attachment unit configured to supply a textile to the processing chamber , - a vapour control unit configured to change a vapour property of the water vapour supplied to the processing chamber in response to the detected vapour parameter, and - a hot air control unit configured to change a hot air property of the hot air supplied to the processing chamber in response to the detected hot air parameter, wherein the hot air control unit is further configured to change a hot air property of the hot air supplied to the processing chamber in response to the detected vapour parameter.
Circuit breaker comprising a nozzle , at least two contact elements (210; 220), a gas reservoir and a continuity of nozzle material configured to direct the propagation of a leader from the first contact element to the second contact element along at least a first surface of the nozzle , wherein the leader is highly conductive plasma, the nozzle is manufactured by 3D printing as a single piece and configured to surround the at least two contact elements (210; 220) of the circuit breaker at least partially, at least one of the contact elements (210; 220) is configured to be movable and the nozzle comprising an arcing zone formed along a central axis (CA) of the nozzle and a gas channel formed within the nozzle and configured to fluidly connect the gas reservoir to the arcing zone . the leader is highly conductive plasma, the nozzle is manufactured by 3D printing as a single piece and configured to surround the at least two contact elements (210; 220) of the circuit breaker at least partially, at least one of the contact elements (210; 220) is configured to be movable and the nozzle comprising an arcing zone formed along a central axis (CA) of the nozzle and a gas channel formed within the nozzle and configured to fluidly connect the gas reservoir to the arcing zone .
A matrix processor for performing arithmetic operations, the matrix processor comprising: a plurality of sub-circuits coupled within a two-dimensional array, a first input circuit arranged in a first dimension of the two-dimensional array, the first input circuit being coupled to receive N operands from a first logic circuit , the N operands being formatted in accordance with a first width related to the first dimension and being representative of a row in an input data matrix , wherein columns of the input data matrix are vectorized forms of input matrices corresponding to areas of input data ; and a second input circuit arranged in a second dimension of the two-dimensional array, the second input circuit coupled to receive M operands from a second logic circuit , the M operands being formatted in accordance with a second width related to the second dimension and being representative of a column in a weight data matrix , wherein rows of the weight data matrix are vectorized forms of weight matrices corresponding to filters of a convolution operation , wherein: the plurality of sub-circuits is configured to perform dot multiplications of the N operands and the M operands to generate dot products with each of the sub-circuits being configured to perform a dot multiplication of a respective column of the input data matrix and a respective row of the weight data matrix to generate a dot product representing the convolution of the corresponding area of the input data with the corresponding filter of the convolution operation . a plurality of sub-circuits coupled within a two-dimensional array, a first input circuit arranged in a first dimension of the two-dimensional array, the first input circuit being coupled to receive N operands from a first logic circuit , the N operands being formatted in accordance with a first width related to the first dimension and being representative of a row in an input data matrix , wherein columns of the input data matrix are vectorized forms of input matrices corresponding to areas of input data ; and a second input circuit arranged in a second dimension of the two-dimensional array, the second input circuit coupled to receive M operands from a second logic circuit , the M operands being formatted in accordance with a second width related to the second dimension and being representative of a column in a weight data matrix , wherein rows of the weight data matrix are vectorized forms of weight matrices corresponding to filters of a convolution operation , wherein: the plurality of sub-circuits is configured to perform dot multiplications of the N operands and the M operands to generate dot products with each of the sub-circuits being configured to perform a dot multiplication of a respective column of the input data matrix and a respective row of the weight data matrix to generate a dot product representing the convolution of the corresponding area of the input data with the corresponding filter of the convolution operation .
A soy protein product having a protein content of at least 60 wt% (N x 6.25) d.b. with a natural pH of 6, which has a non-beany flavour, and which is: poorly soluble in water over a pH range from 4 to 7, or substantially insoluble in water over a pH range of 2 to 7, obtainable by the process of claim 6.
An automatic calibration method for a robot system, comprising steps of: S100: calibrating intrinsic parameters of a sensor and calibrating a sensor coordinate system (O c ) of the calibrated sensor with respect to a world coordinate system (O) by means of a calibration target; and S200: defining a first target point in the world coordinate system (O), and recognizing the first target point by using the calibrated sensor , and controlling a robot under the guidance of the calibrated sensor to move an original point of a tool coordinate system (O t ) of a tool mounted on the robot to reach the same first target point with a first group of different poses, and calculating a first transfer matrix tcp T t of the tool coordinate system (O t ) with respect to a tool center point coordinate system (O tcp ) of the robot based on pose data of the robot at the same first target point. S100: calibrating intrinsic parameters of a sensor and calibrating a sensor coordinate system (O c ) of the calibrated sensor with respect to a world coordinate system (O) by means of a calibration target; and S200: defining a first target point in the world coordinate system (O), and recognizing the first target point by using the calibrated sensor , and controlling a robot under the guidance of the calibrated sensor to move an original point of a tool coordinate system (O t ) of a tool mounted on the robot to reach the same first target point with a first group of different poses, and calculating a first transfer matrix tcp T t of the tool coordinate system (O t ) with respect to a tool center point coordinate system (O tcp ) of the robot based on pose data of the robot at the same first target point.