mhurhangee/patent-ind-claim-en huggingface dataset:
A log splitter with a mechanical winch for pulling logs, parts of logs or wood towards the log splitter, wherein said log splitter comprises activation handles mechanically connected to an actuator arranged to trigger movement of an axe for splitting logs, and wherein the mechanical winch comprises: - housing of the winch, in which the drum for winding a pulling rope is installed together with a clutch, a sprocket with a chain and a brake, - a rope for activation of pulling with the winch, said rope being connected with the clutch of the drum via pulleys, and - a guide of the pulling rope installed on the said housing, and - the pulling rope with an end part, which is preferably equipped with forceps for gripping a log or a part of a log, characterized in that the log splitter with the mechanical winch is further provided with a safety mechanism arranged to allow choice of operation either of the log spitter or of the winch, wherein the safety mechanism is designed as a system of handles and levers and comprises at least: - a first vertical handle for choosing operation of the log splitter, wherein the first vertical handle is on one side connected to at least one activation handle of the log splitter and is on the other side connected with a lock of the winch, said lock having a shape arranged to prevent movement of a winch lever upon movement of the activation handle of the log splitter, thus preventing pulling of the activation rope ; and - a second vertical handle for choosing operation of the winch, wherein the second vertical handle is on one side connected to the winch lever arranged to move upon pulling the activation rope and is on the other side connected to the lock of the log splitter, said lock having a shape arranged to disable movement of the activation handle . - housing of the winch, in which the drum for winding a pulling rope is installed together with a clutch, a sprocket with a chain and a brake, - a rope for activation of pulling with the winch, said rope being connected with the clutch of the drum via pulleys, and - a guide of the pulling rope installed on the said housing, and - the pulling rope with an end part, which is preferably equipped with forceps for gripping a log or a part of a log, - a first vertical handle for choosing operation of the log splitter, wherein the first vertical handle is on one side connected to at least one activation handle of the log splitter and is on the other side connected with a lock of the winch, said lock having a shape arranged to prevent movement of a winch lever upon movement of the activation handle of the log splitter, thus preventing pulling of the activation rope ; and - a second vertical handle for choosing operation of the winch, wherein the second vertical handle is on one side connected to the winch lever arranged to move upon pulling the activation rope and is on the other side connected to the lock of the log splitter, said lock having a shape arranged to disable movement of the activation handle .
A surface-coated cutting tool comprising: a base material; and a coating film formed on said base material, wherein said coating film includes at least one TiCN layer, said TiCN layer has a columnar crystal region, and said columnar crystal region has a composition of TiC x N y , wherein 0.70 ≤ x/(x + y) ≤ 0.89, has a plane having a plane spacing of 0.8767 Å to 0.8787 Å, and has TC showing a maximum value in an orientation index TC (hkl). a base material; and a coating film formed on said base material, wherein said coating film includes at least one TiCN layer, said TiCN layer has a columnar crystal region, and said columnar crystal region has a composition of TiC x N y , wherein 0.70 ≤ x/(x + y) ≤ 0.89, has a plane having a plane spacing of 0.8767 Å to 0.8787 Å, and has TC showing a maximum value in an orientation index TC (hkl).
A method for manufacturing a brush head , the method comprising the steps of: stamping a plurality of openings into a backing material ; inserting at least one bristle tuft into each of the openings in the backing material; bonding a proximal end of each bristle tuft to at least a portion of proximal side of the backing material to create a merged proximal end head portion that secures the bristle tuft to the backing material to form a merged tuft assembly ; cutting at least one carrier element comprising at least one merged tuft assembly from the backing material ; positioning a platen of a neck in relation to the at least one carrier element of merged tuft assemblies; and injecting a matrix material around the platen and the carrier element of merged tuft assemblies such that the matrix material at least partially encompasses the platen and the carrier elements of the merged tuft assemblies. stamping a plurality of openings into a backing material ; inserting at least one bristle tuft into each of the openings in the backing material; bonding a proximal end of each bristle tuft to at least a portion of proximal side of the backing material to create a merged proximal end head portion that secures the bristle tuft to the backing material to form a merged tuft assembly ; cutting at least one carrier element comprising at least one merged tuft assembly from the backing material ; positioning a platen of a neck in relation to the at least one carrier element of merged tuft assemblies; and injecting a matrix material around the platen and the carrier element of merged tuft assemblies such that the matrix material at least partially encompasses the platen and the carrier elements of the merged tuft assemblies.
A multi-layered lip seal , comprising: a dynamic layer comprising a radially oriented segment , an axially oriented segment , and a curved segment intermediate the radially oriented segment and the axially oriented segment; a static layer directly abutting and directly fused to the dynamic layer, wherein the interface between the dynamic layer and the static layer is adhesive free, the static layer comprising a radially oriented segment , an axially oriented segment , and a curved segment intermediate the radially oriented segment and the axially oriented segment; wherein the dynamic layer comprises PTFE and at least one filler, and the static layer comprises PTFE and at least one filler homogenously distributed throughout the PTFE; wherein the at least one filler of the static layer comprises at least one of a stiffening filler, a reinforcement filler, a conductive filler, an abrasion resistance filler. a dynamic layer comprising a radially oriented segment , an axially oriented segment , and a curved segment intermediate the radially oriented segment and the axially oriented segment; a static layer directly abutting and directly fused to the dynamic layer, wherein the interface between the dynamic layer and the static layer is adhesive free, the static layer comprising a radially oriented segment , an axially oriented segment , and a curved segment intermediate the radially oriented segment and the axially oriented segment; wherein the dynamic layer comprises PTFE and at least one filler, and the static layer comprises PTFE and at least one filler homogenously distributed throughout the PTFE; wherein the at least one filler of the static layer comprises at least one of a stiffening filler, a reinforcement filler, a conductive filler, an abrasion resistance filler.
A method comprising: identifying, by a computing device, a first set of data blocks of a first point-in-time copy of a dataset invalidated by a second point-in-time copy of the dataset, when a threshold number of point-in-time copies is stored in a first storage tier, wherein the first storage tier stores at least the first and second point-in-time copies and the first point-in-time copy precedes in time the second point-in-time copy; migrating, by the computing device, the invalidated first set of data blocks of the first point-in-time copy of the dataset from the first storage tier to a second storage tier, wherein each of the first set of data blocks of the first point-in-time copy of the dataset has been at least partially overwritten by another data block in the second point-in-time copy of the dataset; and updating, by the computing device, a data map to indicate that the first set of data blocks of the first point-in-time copy of the dataset are no longer stored in the first storage tier. identifying, by a computing device, a first set of data blocks of a first point-in-time copy of a dataset invalidated by a second point-in-time copy of the dataset, when a threshold number of point-in-time copies is stored in a first storage tier, wherein the first storage tier stores at least the first and second point-in-time copies and the first point-in-time copy precedes in time the second point-in-time copy; migrating, by the computing device, the invalidated first set of data blocks of the first point-in-time copy of the dataset from the first storage tier to a second storage tier, wherein each of the first set of data blocks of the first point-in-time copy of the dataset has been at least partially overwritten by another data block in the second point-in-time copy of the dataset; and updating, by the computing device, a data map to indicate that the first set of data blocks of the first point-in-time copy of the dataset are no longer stored in the first storage tier.
A method for processing real-time data in a distribution unit of a distributed computer system, said computer system comprising node computers and at least one distribution unit, said distribution unit containing, in addition to a switching engine and a switching memory , one or more application computers having each one or more application central processing units and application memories , wherein the switching engine of the distribution unit, upon receiving a message intended for an application computer at one of its ports , forwards the message to the addressed application computer via a direct memory access (DMA) unit , which is arranged between the switching memory and the application memory of the addressed application computer and is controlled by the switching engine , characterized in that the computer system is a time-triggered computer system, and the switching engine and all application computers have access to a global sparse time base, wherein the switching engine of the distribution unit issues, at the global time points contained in a schedule created a priori, to a DMA unit arranged between the switching memory and an application computer or to each of the DMA units arranged between the switching memory and an application computer, the command instructing to start a DMA transfer of data from the switching memory to an application memory and to start a DMA transfer of data from an application memory to the switching memory.
A method of operating a mobile device including an above-lock state and a below-lock state, the method comprising: responsive to receiving first input data using a specified hardware button of the mobile device when the device is in the above-lock state, invoking an image-capture application indicated by the first input data on the mobile device unless an object is detected in proximity with the mobile device by a sensor coupled to the mobile device , wherein one or more private image operations of the invoked image-capture application available in the below-lock state are unavailable while the mobile device is in the above-lock state; and while still being in the above-lock state and responsive to receiving a request for at least one of the unavailable private image operations indicated by second input data, presenting an unlock user interface. responsive to receiving first input data using a specified hardware button of the mobile device when the device is in the above-lock state, invoking an image-capture application indicated by the first input data on the mobile device unless an object is detected in proximity with the mobile device by a sensor coupled to the mobile device , wherein one or more private image operations of the invoked image-capture application available in the below-lock state are unavailable while the mobile device is in the above-lock state; and while still being in the above-lock state and responsive to receiving a request for at least one of the unavailable private image operations indicated by second input data, presenting an unlock user interface.
A method comprising, by a first computing device : accessing a digital map of a real-world region, wherein the digital map comprises one or more three-dimensional meshes corresponding to one or more three-dimensional objects within the real-world region; receiving , from a second computing device , an object query comprising an identifier for an anchor (305A-D) in the digital map, positional information relative to the anchor, and information associated with a directional vector; determining a position within the digital map based on the identifier for the anchor and the positional information relative to the anchor; determining a three-dimensional mesh in the digital map that intersects with a directional vector sent by the second computing device from the determined position within the digital map; identifying metadata associated with the three-dimensional mesh; and sending the metadata to the second computing device; wherein the metadata comprises semantic information associated with the identified object, for rendering on the second computing device. accessing a digital map of a real-world region, wherein the digital map comprises one or more three-dimensional meshes corresponding to one or more three-dimensional objects within the real-world region; receiving , from a second computing device , an object query comprising an identifier for an anchor (305A-D) in the digital map, positional information relative to the anchor, and information associated with a directional vector; determining a position within the digital map based on the identifier for the anchor and the positional information relative to the anchor; determining a three-dimensional mesh in the digital map that intersects with a directional vector sent by the second computing device from the determined position within the digital map; identifying metadata associated with the three-dimensional mesh; and sending the metadata to the second computing device; wherein the metadata comprises semantic information associated with the identified object, for rendering on the second computing device.
A wind turbine , comprising: a tower ; a nacelle mounted atop the tower ; a rotor rotatably coupled to the nacelle , the rotor comprising at least one rotor blade ; a yaw drive for adjusting a yaw angle of the nacelle ; a native yaw drive control system including one or more native sensors for detecting one or more parameters indicative of a wind condition and a native controller communicatively coupled to the native yaw drive and the one or more native sensors ; and a system configured for controlling the yaw drive of the wind turbine when the native yaw drive control system is non-operational, the system comprising: an external sensor configured to detect a parameter indicative of a wind condition experienced by the wind turbine ; and, an external controller communicatively coupled to the external sensor , the external controller being configured to control the yaw drive based on measurement signals received from the external sensor , wherein the external sensor and the external controller are electrically isolated from the native yaw drive control system . a tower ; a nacelle mounted atop the tower ; a rotor rotatably coupled to the nacelle , the rotor comprising at least one rotor blade ; a yaw drive for adjusting a yaw angle of the nacelle ; a native yaw drive control system including one or more native sensors for detecting one or more parameters indicative of a wind condition and a native controller communicatively coupled to the native yaw drive and the one or more native sensors ; and a system configured for controlling the yaw drive of the wind turbine when the native yaw drive control system is non-operational, the system comprising: an external sensor configured to detect a parameter indicative of a wind condition experienced by the wind turbine ; and, an external controller communicatively coupled to the external sensor , the external controller being configured to control the yaw drive based on measurement signals received from the external sensor , an external sensor configured to detect a parameter indicative of a wind condition experienced by the wind turbine ; and, an external controller communicatively coupled to the external sensor , the external controller being configured to control the yaw drive based on measurement signals received from the external sensor , wherein the external sensor and the external controller are electrically isolated from the native yaw drive control system .
A heating and cooling module for controlling the temperature of at least two coolant circuits, having an evaporator region and having a condenser region , wherein the evaporator region has a first flow section which can be traversed by a first coolant, and the condenser region has a second flow section which can be traversed by a second coolant, and wherein the heating and cooling module has a third flow section which can be traversed by a refrigerant, wherein the evaporator region and the condenser region are arranged on a common base plate , characterised in that the base plate has the fluid inlets and the fluid outlets for the first coolant, the second coolant and the refrigerant, and the base plate has flow channels which can in each case be traversed by one of the coolants or the refrigerant, wherein the evaporator region and the condenser region are in fluid communication with the respective fluid inlets and the respective fluid outlets of the base plate via the flow channels.
A negative electrode active material comprising: negative electrode active material particles which comprise artificial graphite in a form of a secondary particle and a carbon layer formed on a surface of the artificial graphite; and a coating layer which is formed on the negative electrode active material particle and comprises a compound represented by Formula 1: <Formula 1> X a Y b wherein, in Formula 1, X is Cu, Y is Si or Sn, a is 3, and b is 1. negative electrode active material particles which comprise artificial graphite in a form of a secondary particle and a carbon layer formed on a surface of the artificial graphite; and a coating layer which is formed on the negative electrode active material particle and comprises a compound represented by Formula 1: <Formula 1> X a Y b wherein, in Formula 1, X is Cu, Y is Si or Sn, a is 3, and b is 1.
An assembly for a multistage turbine of a turbomachine, the assembly comprising a static sealing device, a nozzle comprising a radially outer end and an outer casing surrounding the nozzle , the static sealing device being arranged radially between said radially outer end of the nozzle and the outer casing , and comprising an annular seal borne by the nozzle and an annular structure defining a plurality of radial annular walls axially spaced apart from one another, characterized in that at least one first wall of said radial annular walls being in annular contact radially inwardly with the annular seal and having a longitudinal dimension that is less than a longitudinal dimension of the annular seal .
A compound for use in a method for treating, preventing or managing an immune-related disease or an inflammatory disease, wherein the method comprises administering to a patient in need thereof an effective amount of said compound, and wherein the compound is a compound of formula I or a pharmaceutically acceptable salt, solvate, hydrate, stereoisomer, tautomer or racemic mixture thereof, and wherein the disease is lupus, scleroderma, lupus pernio, sarcoidosis, Sjögren syndrome, ANCA-induced vasculitis, anti-phospholipid syndrome or myasthenia gravis.
A condensation particle counter, CPC, comprising a system to correct for a detection efficiency of the CPC at a non-standard absolute-pressure, wherein the non-standard absolute-pressure is a pressure that is either higher or lower than a pressure at which the CPC was calibrated, the system comprising: a pressure transducer mounted proximate the CPC to determine a value of absolute pressure of an aerosol stream through the CPC under the non-standard absolute-pressure; a sensor to monitor values of a saturator temperature of a saturator block of the CPC, a condenser temperature of a condenser block of the CPC, and a flow rate of the aerosol stream through the CPC; and a processing device to compensate for detection efficiency of the CPC based on the determined absolute pressure of the aerosol stream through the CPC and at least one of the monitored values of saturator temperature, condenser temperature, and flow rate, the processing device further to compensate for particle measurements reported by the CPC for the non-standard absolute pressure, wherein the processing device is configured to use the determined value of absolute pressure of the aerosol stream through the CPC to provide a feedback control loop in the CPC to adjust at least one of the saturator temperature and the condenser temperature to compensate for the particle measurements to correct for the non-standard absolute-pressure. a pressure transducer mounted proximate the CPC to determine a value of absolute pressure of an aerosol stream through the CPC under the non-standard absolute-pressure; a sensor to monitor values of a saturator temperature of a saturator block of the CPC, a condenser temperature of a condenser block of the CPC, and a flow rate of the aerosol stream through the CPC; and a processing device to compensate for detection efficiency of the CPC based on the determined absolute pressure of the aerosol stream through the CPC and at least one of the monitored values of saturator temperature, condenser temperature, and flow rate, the processing device further to compensate for particle measurements reported by the CPC for the non-standard absolute pressure, wherein the processing device is configured to use the determined value of absolute pressure of the aerosol stream through the CPC to provide a feedback control loop in the CPC to adjust at least one of the saturator temperature and the condenser temperature to compensate for the particle measurements to correct for the non-standard absolute-pressure.
A method, comprising: pre-processing a picture prior to, and in preparation for, compression by encoding, wherein said pre-processing step comprises selectively removing, based on location of pixels within the spatial domain of the picture, and not in the frequency domain, portions of said picture and leaving the remaining portions of said picture to be encoded using a data pruner having a processor , characterized in transmitting side information indicating a location of the removed portions within the picture to a decoder or other device, wherein the selectively removed portions are diagonal lines of said picture, and wherein the diagonal lines are neither rows nor columns and encoding the pre-processed picture.