mhurhangee/patent-ind-claim-en huggingface dataset:
A method of transmitting an uplink channel by a user equipment, UE , in a wireless communication system, the method comprising: receiving, from a base station , downlink control information (i) including a field for a code point mapped to one of candidate values for a timing offset value for transmission of an uplink data channel to which at least one of channel state information, CSI, reporting or transmission of uplink data and (ii) representing a type related to an usage of an uplink data channel; and transmitting the uplink data channel to the base station , based on the timing offset value determined by (i) the type related to the usage of the uplink data channel represented by downlink control information and (ii) the code point of the field included in the downlink control information, wherein the candidate values for the timing offset value are configured based on the type related to the usage of the uplink data channel, wherein the type related to the usage of the uplink data channel comprises i) a first type in which only the CSI reporting is allocated, ii) a second type in which both the CSI reporting and the uplink data are allocated, and iii) a third type in which only the uplink data is allocated, and wherein at least two mapping configurations between (i) values of the code point and (ii) the candidate values for the timing offset value are configured for the first type, the second type and the third type. receiving, from a base station , downlink control information (i) including a field for a code point mapped to one of candidate values for a timing offset value for transmission of an uplink data channel to which at least one of channel state information, CSI, reporting or transmission of uplink data and (ii) representing a type related to an usage of an uplink data channel; and transmitting the uplink data channel to the base station , based on the timing offset value determined by (i) the type related to the usage of the uplink data channel represented by downlink control information and (ii) the code point of the field included in the downlink control information, wherein the candidate values for the timing offset value are configured based on the type related to the usage of the uplink data channel, wherein the type related to the usage of the uplink data channel comprises i) a first type in which only the CSI reporting is allocated, ii) a second type in which both the CSI reporting and the uplink data are allocated, and iii) a third type in which only the uplink data is allocated, and wherein at least two mapping configurations between (i) values of the code point and (ii) the candidate values for the timing offset value are configured for the first type, the second type and the third type.
A multivariable fluid level detection system comprising: a guided wave radar probe ; a first sensor integral (24a-24n) to the probe for producing a first sensor signal that is a function of a first sensed parameter, wherein the first sensor (24a-24n) comprises a force sensor and the first sensed parameter is force or acceleration of the probe ; a transmitter for transmitting guided microwave pulses down the probe ; a receiver for receiving reflected microwave pulses; a processor for producing a measurement of fluid level based upon a time difference between transmission of a pulse and receipt of a reflected pulse and upon the first sensed parameter. a guided wave radar probe ; a first sensor integral (24a-24n) to the probe for producing a first sensor signal that is a function of a first sensed parameter, wherein the first sensor (24a-24n) comprises a force sensor and the first sensed parameter is force or acceleration of the probe ; a transmitter for transmitting guided microwave pulses down the probe ; a receiver for receiving reflected microwave pulses; a processor for producing a measurement of fluid level based upon a time difference between transmission of a pulse and receipt of a reflected pulse and upon the first sensed parameter.
A robotic vehicle comprising: a body , a plurality of legs , each leg being moveably coupled to the body and having a propeller rotatably coupled thereto; and a controller operable: in a first mode, to cause the plurality of legs to move relative to the body so as to provide motive force for walking the robotic vehicle; and in a second mode, to cause the propellers to rotate relative to the legs that they are coupled to so as to provide thrust for flying the robotic vehicle and/or propelling the robotic vehicle in a liquid, wherein each leg of the plurality of legs is moveably coupled to the body by way of a three degree of freedom joint, and each leg further comprises a knee joint . a body , a plurality of legs , each leg being moveably coupled to the body and having a propeller rotatably coupled thereto; and a controller operable: in a first mode, to cause the plurality of legs to move relative to the body so as to provide motive force for walking the robotic vehicle; and in a second mode, to cause the propellers to rotate relative to the legs that they are coupled to so as to provide thrust for flying the robotic vehicle and/or propelling the robotic vehicle in a liquid, wherein each leg of the plurality of legs is moveably coupled to the body by way of a three degree of freedom joint, and each leg further comprises a knee joint . in a first mode, to cause the plurality of legs to move relative to the body so as to provide motive force for walking the robotic vehicle; and in a second mode, to cause the propellers to rotate relative to the legs that they are coupled to so as to provide thrust for flying the robotic vehicle and/or propelling the robotic vehicle in a liquid, wherein each leg of the plurality of legs is moveably coupled to the body by way of a three degree of freedom joint, and each leg further comprises a knee joint .
An exhaust recycling system comprising: an internal combustion engine 18 including engine controls 1 configured for operating the engine so as to produce exhaust emissions containing carbon nano soot therein; a solubilizing tank 24 containing an operating level of water including nitric acid in solution in the water; an exhaust duct 28 for connection between the engine and the solubilizing tank for communicating the exhaust emissions containing carbon nano soot from the engine to the solubilizing tank; an injection array 69 supported in the tank below the operating level of the water, the injection array being in communication with the exhaust duct so as to be arranged to inject the exhaust emissions into the water within the solubilizing tank so as to solubilize the carbon nano soot as carbon nano tubes within the water in the solubilizing tank; and a gas outlet 94 on the solubilizing tank for receiving a gas flow exiting the tank such that some water and some solubilized carbon nano tubes are carried with the gas flow for subsequent delivery to a plant growing medium; wherein the engine controls are arranged to operate the engine in pyrolysis to produce the carbon nano soot, and wherein the water in the solubilizing tank contains the nitric acid at saturation level therein, carbonic acid at saturation level therein, fulvic acid therein, and aromatic compounds therein. an internal combustion engine 18 including engine controls 1 configured for operating the engine so as to produce exhaust emissions containing carbon nano soot therein; a solubilizing tank 24 containing an operating level of water including nitric acid in solution in the water; an exhaust duct 28 for connection between the engine and the solubilizing tank for communicating the exhaust emissions containing carbon nano soot from the engine to the solubilizing tank; an injection array 69 supported in the tank below the operating level of the water, the injection array being in communication with the exhaust duct so as to be arranged to inject the exhaust emissions into the water within the solubilizing tank so as to solubilize the carbon nano soot as carbon nano tubes within the water in the solubilizing tank; and a gas outlet 94 on the solubilizing tank for receiving a gas flow exiting the tank such that some water and some solubilized carbon nano tubes are carried with the gas flow for subsequent delivery to a plant growing medium; wherein the engine controls are arranged to operate the engine in pyrolysis to produce the carbon nano soot, and wherein the water in the solubilizing tank contains the nitric acid at saturation level therein, carbonic acid at saturation level therein, fulvic acid therein, and aromatic compounds therein.
An electronic device for controlling a screen, the electronic device comprising: a touch screen display ; and a controller configured to: display a first screen via the touch screen display; detect an input for splitting the touch screen display into a plurality of areas including a first area and a second area, the input being input via the touch screen display; and in response to detecting the input, display the first screen with a reduced size within the first area, and display at least one recommended function within the second area, wherein the controller is configured to determine, based on a distance of a movement of the input, a number of the plurality of areas. a touch screen display ; and a controller configured to: display a first screen via the touch screen display; detect an input for splitting the touch screen display into a plurality of areas including a first area and a second area, the input being input via the touch screen display; and in response to detecting the input, display the first screen with a reduced size within the first area, and display at least one recommended function within the second area, wherein the controller is configured to determine, based on a distance of a movement of the input, a number of the plurality of areas. display a first screen via the touch screen display; detect an input for splitting the touch screen display into a plurality of areas including a first area and a second area, the input being input via the touch screen display; and in response to detecting the input, display the first screen with a reduced size within the first area, and display at least one recommended function within the second area, wherein the controller is configured to determine, based on a distance of a movement of the input, a number of the plurality of areas.
A data transmission method, wherein a terminal in a radio resource control, RRC, inactive state moves from a coverage of an anchor base station to that of a serving base station, and the method comprises: receiving (S201), by a first base station, a first message sent by a second base station, wherein the first message is a paging message and used to indicate that the second base station has data that needs to-be-transmitted to the first base station, wherein the data that needs to-be-transmitted is uplink data that needs to be transmitted to a core network, the first base station is the anchor base station, and the second base station is the serving base station; or wherein the data that needs to-be-transmitted is downlink data that needs to be transmitted to the terminal, the first base station is the serving base station, and the second base station is the anchor base station; and sending (S203), by the first base station, a second message to the second base station, wherein the second message carries at least one address, and the address is associated with the data that needs to-be-transmitted and is used to identify data transmission through the interface between the base stations, wherein the first message carries a quantity of addresses, and a quantity of the at least one address in the second message is the same as the quantity of the addresses carried in the first message. receiving (S201), by a first base station, a first message sent by a second base station, wherein the first message is a paging message and used to indicate that the second base station has data that needs to-be-transmitted to the first base station, wherein the data that needs to-be-transmitted is uplink data that needs to be transmitted to a core network, the first base station is the anchor base station, and the second base station is the serving base station; or wherein the data that needs to-be-transmitted is downlink data that needs to be transmitted to the terminal, the first base station is the serving base station, and the second base station is the anchor base station; and sending (S203), by the first base station, a second message to the second base station, wherein the second message carries at least one address, and the address is associated with the data that needs to-be-transmitted and is used to identify data transmission through the interface between the base stations, wherein the first message carries a quantity of addresses, and a quantity of the at least one address in the second message is the same as the quantity of the addresses carried in the first message.
An interdental brush comprising an elongated support core and a neck element connecting the support core to a handle , the handle , the neck element and the support core being integrally molded from a first plastic component made of hard material, a second plastic component made of soft material being molded onto the support core in the form of an integral layer with bristles projecting therefrom, and the injection point for the second plastic component made of soft material being located at the rear end of the handle facing away from the neck element , the parts molded from the first plastic component having troughs or channels which enable or at least support the flow of the second plastic component, and the neck element having an elongated channel and the handle having a trough-shaped indentation so that the second plastic component flows from the injection point at the rear end of the handle through the trough-shaped indentation of the handle and the elongated channel of the neck element to the support core , where said second plastic component finally forms the layer with the bristles .
A pool cleaning robot comprising: a hollow body, a fluid input, a fluid output, a propulsion unit for moving the pool cleaning robot within a pool, a filtering unit, and a sensing module that comprises a gas pressure sensor , a first space , a second space and a diaphragm ; wherein the diaphragm seals the second space and separates the first space from the second space ; wherein the diaphragm , via the first space , is fluidly coupled to the filtering unit; wherein the diaphragm is configured to define a gas pressure within the second space as a function of, at least, a fluid pressure within the first space ; wherein the gas pressure sensor is located within the second space and is configured to measure the gas pressure within the second space ; and wherein the pool cleaning robot is characterized by further comprising a processor that is configured to receive information about the gas pressure within the second space and to determine a cleanliness level of the filtering unit based on the gas pressure within the second space . a hollow body, a fluid input, a fluid output, a propulsion unit for moving the pool cleaning robot within a pool, a filtering unit, and a sensing module that comprises a gas pressure sensor , a first space , a second space and a diaphragm ; wherein the diaphragm seals the second space and separates the first space from the second space ; wherein the diaphragm , via the first space , is fluidly coupled to the filtering unit; wherein the diaphragm is configured to define a gas pressure within the second space as a function of, at least, a fluid pressure within the first space ; wherein the gas pressure sensor is located within the second space and is configured to measure the gas pressure within the second space ; and wherein the pool cleaning robot is characterized by further comprising a processor that is configured to receive information about the gas pressure within the second space and to determine a cleanliness level of the filtering unit based on the gas pressure within the second space .
A cylindrical body for an implant, comprising: a cylindrical substrate having an elongation rate in the longitudinal direction, as measured under a tensile load of 20 N, of from 10to 50%; and a block copolymer composed of a polyalkylene glycol block(s) and a polyhydroxyalkanoic acid block(s); wherein a film of the block copolymer is coated on the cylindrical substrate; wherein the ratio of the total mass of the alkylene glycol residue(s) with respect to the total mass of said block copolymer is from 5 to 25%; and wherein said block copolymer has a Young's modulus, as measured in the form of a film, of 200 MPa or less. a cylindrical substrate having an elongation rate in the longitudinal direction, as measured under a tensile load of 20 N, of from 10to 50%; and a block copolymer composed of a polyalkylene glycol block(s) and a polyhydroxyalkanoic acid block(s); wherein a film of the block copolymer is coated on the cylindrical substrate; wherein the ratio of the total mass of the alkylene glycol residue(s) with respect to the total mass of said block copolymer is from 5 to 25%; and wherein said block copolymer has a Young's modulus, as measured in the form of a film, of 200 MPa or less.
A lockcase for a gate lock, comprising a housing and at least two removably insertable panels , wherein the panels are interchangeable, wherein at least one panel comprises a lock interface to allow access to at least one lock mechanism, the lock interface being selected from a mechanical keypad, a digital keypad, an electrically-operated interface, a wirelessly-operated interface, a solenoid, a push button, a knob, a handle and an aperture for receiving a Euro cylinder lock mechanism, and wherein the lock interface is compatible with the lock mechanism, characterized in that the panels are non-identical, so as to allow assembly into a gate lock having a desired handedness. wherein the panels are interchangeable, wherein at least one panel comprises a lock interface to allow access to at least one lock mechanism, the lock interface being selected from a mechanical keypad, a digital keypad, an electrically-operated interface, a wirelessly-operated interface, a solenoid, a push button, a knob, a handle and an aperture for receiving a Euro cylinder lock mechanism, and wherein the lock interface is compatible with the lock mechanism, characterized in that the panels are non-identical, so as to allow assembly into a gate lock having a desired handedness.
A combination of a Wnt agonist and a histone deacetylase (HDAC) inhibitor for use in a method of increasing LGR5 positive epithelial stem cells within epithelial tissue in a subject having damaged sensory hair cells of the organ of Corti in the inner ear, said combination comprising an amount of the Wnt agonist and HDAC inhibitor sufficient to increase LGR5 positive epithelial stem cells within epithelial tissue, wherein the epithelial stem cells are present within the inner ear of the subject.
A low-pressure casting mold for an aluminum wheel, comprising a bottom mold , a sprue cup , a sprue bushing , a filter screen , a sprue spreader , a top mold , a side mold and a cooling duct , wherein in the cavity surface of the side mold , V-shaped grooves are formed opposite to a hump, follow the contour of the hump, and cover the whole hot spot area in the length direction; the depths of the V-shaped grooves are 1-1.5 mm, the included angles are 60-120°, and the V-shaped grooves are uniformly distributed on the circumference of the side mold at the intervals of 10 mm; in the back cavity of the side mold , a cavity is formed opposite to the hump, and is concentric with a wheel casting and annular; the bottom surface of the cavity follows the contour of the hump, and is 8-12 mm away from the wall of a mold cavity; the height of the cavity is equivalent to the range of hump hot spots; the two side surfaces of the cavity are at least 10 mm away from the fitting surfaces of the side mold; the cooling duct is arranged in the cavity of the side mold, and comprises a main air pipe and an annular branch ; the main air pipe is perpendicular to the annular branch , and is in a single inlet form; the annular branch is concentric with the wheel casting, and the main air pipe is 5-10 mm away from the bottom surface of the cavity; the two ends of the annular branch are welded to form plugs to form a closed duct; air outlet holes are arranged on the annular branch , and the air outlet holes are perpendicular to the bottom surface of the cavity; the diameters of the air outlet holes are 3 mm, and the holes are uniformly distributed at intervals of 10-15 mm in the circumferential direction.
A system for electrical brain stimulation comprising: a plurality of electrodes arranged in a plurality of electrode groups, each electrode group comprising two or more electrodes where at least one electrode is set to a different potential level such that a voltage difference is generated between members of an electrode group, the plurality of electrodes being arranged on one of an exterior surface of a patient's scalp, an exterior surface of the patient's skull, in the patient's skull, on the patient's brain or dura surface, or in the patient's brain; a ground-independent switching circuit configured to selectively activate and deactivate electrode groups via at least one ground-independent switch; and wherein axes connecting electrodes set to different potential levels within each electrode group or axes of generated electrical fields intersect at one or more predetermined focal points, wherein the ground-independent switching circuit is programmed to sequentially activate and deactivate electrode groups, and wherein the system utilizes the capacitive properties of a neuronal and/or glial cell membrane to implement a charge integrating mechanism, which temporally integrates an effect of multiple independent, sequential electrical pulses delivered through the two or more activated electrodes. a plurality of electrodes arranged in a plurality of electrode groups, each electrode group comprising two or more electrodes where at least one electrode is set to a different potential level such that a voltage difference is generated between members of an electrode group, the plurality of electrodes being arranged on one of an exterior surface of a patient's scalp, an exterior surface of the patient's skull, in the patient's skull, on the patient's brain or dura surface, or in the patient's brain; an exterior surface of a patient's scalp, an exterior surface of the patient's skull, in the patient's skull, on the patient's brain or dura surface, or in the patient's brain; a ground-independent switching circuit configured to selectively activate and deactivate electrode groups via at least one ground-independent switch; and wherein axes connecting electrodes set to different potential levels within each electrode group or axes of generated electrical fields intersect at one or more predetermined focal points, wherein the ground-independent switching circuit is programmed to sequentially activate and deactivate electrode groups, and wherein the system utilizes the capacitive properties of a neuronal and/or glial cell membrane to implement a charge integrating mechanism, which temporally integrates an effect of multiple independent, sequential electrical pulses delivered through the two or more activated electrodes.