mhurhangee/patent-ind-claim-en huggingface dataset:
A device for producing nut butter and/or nut milk from nuts, comprising: a base having a motor configured to drive a shaft ; an outer container positioned above the base ; a mixing container positioned within the outer container , the mixing container comprising inner sidewalls , and at least one screen arranged in the inner sidewalls , the inner sidewalls being substantially vertical, the at least one screen having a plurality of holes sized just large enough to allow nut milk to freely pass through; a cutting device positioned within the mixing container and mounted on the shaft , the cutting device configured to be driven by the motor during operation, the cutting device comprising a central hub and at least two blades , characterized in that the at least two blades are vertically offset and each having a blade tip , each blade tip positioned a radial distance from the inner sidewalls of the mixing container ; and one or more mixing arms are provided within the mixing container , the one or more mixing arms configured to scrape the inner sidewalls of the mixing container ; wherein a bottom blade of the at least two blades is spaced approximately 1.02 to 1.78 mm (0.04 to 0.07 inches) from the bottom inner surface of the mixing container ; wherein the plurality of holes of the at least one screen are approximately 100 mesh; wherein the radial distance between the inner sidewalls and each blade tip is between approximately 2.29 and 2.79 mm (0.09 and 0.11 inches). a base having a motor configured to drive a shaft ; an outer container positioned above the base ; a mixing container positioned within the outer container , the mixing container comprising inner sidewalls , and at least one screen arranged in the inner sidewalls , the inner sidewalls being substantially vertical, the at least one screen having a plurality of holes sized just large enough to allow nut milk to freely pass through; a cutting device positioned within the mixing container and mounted on the shaft , the cutting device configured to be driven by the motor during operation, the cutting device comprising a central hub and at least two blades , characterized in that the at least two blades are vertically offset and each having a blade tip , each blade tip positioned a radial distance from the inner sidewalls of the mixing container ; and one or more mixing arms are provided within the mixing container , the one or more mixing arms configured to scrape the inner sidewalls of the mixing container ; wherein a bottom blade of the at least two blades is spaced approximately 1.02 to 1.78 mm (0.04 to 0.07 inches) from the bottom inner surface of the mixing container ; wherein the plurality of holes of the at least one screen are approximately 100 mesh; wherein the radial distance between the inner sidewalls and each blade tip is between approximately 2.29 and 2.79 mm (0.09 and 0.11 inches).
An electrical submersible pump (ESP) for pumping well fluid from a well , comprising: a tubular pump housing having a longitudinal axis and a housing bore that is coaxial with the axis ; a plurality of centrifugal pump stages in the housing bore, each of the stages having an impeller and a diffuser ; a rotatable shaft mounted on the axis within the housing for rotating the impellers ; a non-rotatable bearing mounted in the housing , the bearing having a shaft passage through which the shaft extends; a sensor hole extending through the housing and into the bearing , the sensor hole having a bearing sensor hole portion extending within the bearing ; and a temperature sensor located within the sensor hole ; the housing comprising a cylindrical body and a base having a base bore in which the bearing is mounted, the base having a neck of a smaller outer diameter than an upper portion of the base defining a downward facing shoulder , the sensor hole having a base sensor hole portion extending upward and inward from the downward facing shoulder toward the longitudinal axis and being aligned with the bearing sensor hole portion ; a sensor line connected with the sensor and extending from the base for transmitting a signal from the sensor ; and a conical section in the base bore extending downward and inward from a cylindrical section in the base bore; wherein the bearing is mounted in the cylindrical section of the base bore, and the conical section extends downward from the bearing ; and a lower end of the bearing sensor hole portion is spaced from an upper end of the base sensor hole portion by a gap . a tubular pump housing having a longitudinal axis and a housing bore that is coaxial with the axis ; a plurality of centrifugal pump stages in the housing bore, each of the stages having an impeller and a diffuser ; a rotatable shaft mounted on the axis within the housing for rotating the impellers ; a non-rotatable bearing mounted in the housing , the bearing having a shaft passage through which the shaft extends; a sensor hole extending through the housing and into the bearing , the sensor hole having a bearing sensor hole portion extending within the bearing ; and a temperature sensor located within the sensor hole ; the housing comprising a cylindrical body and a base having a base bore in which the bearing is mounted, the base having a neck of a smaller outer diameter than an upper portion of the base defining a downward facing shoulder , the sensor hole having a base sensor hole portion extending upward and inward from the downward facing shoulder toward the longitudinal axis and being aligned with the bearing sensor hole portion ; a sensor line connected with the sensor and extending from the base for transmitting a signal from the sensor ; and a conical section in the base bore extending downward and inward from a cylindrical section in the base bore; wherein the bearing is mounted in the cylindrical section of the base bore, and the conical section extends downward from the bearing ; and a lower end of the bearing sensor hole portion is spaced from an upper end of the base sensor hole portion by a gap .
System for determining a pointing direction of a pointer in 3D space, comprising: a 3D imaging unit , and a processing unit coupled to the 3D imaging unit , wherein the processing unit comprises a determination module that is configured to determine a pointing direction of a pointer of a user that is monitored by the 3D imaging unit when the user has the intention to point to an object , and a calibration module that is configured to generate at least one calibration parameter by comparing the determined pointing direction to the position of the object and to transfer the at least one calibration parameter to the determination module in order to calibrate the determination module , characterized in that the determination module is configured to determine the pointing direction of the pointer pointing to the same object for a plurality of times and to determine a peak in the distribution of the determined pointing directions , and the calibration module is configured to generate the at least one calibration parameter by comparing the pointing direction corresponding to the peak in the distribution of the determined pointing directions to the position of the object . a 3D imaging unit , and a processing unit coupled to the 3D imaging unit , wherein the processing unit comprises a determination module that is configured to determine a pointing direction of a pointer of a user that is monitored by the 3D imaging unit when the user has the intention to point to an object , and a calibration module that is configured to generate at least one calibration parameter by comparing the determined pointing direction to the position of the object and to transfer the at least one calibration parameter to the determination module in order to calibrate the determination module ,
A method for cell activation and deactivation, applied to a terminal device, the method comprising at least one of: activating, by the terminal device, a secondary cell corresponding to a target Bandwidth Part, BWP, based on an instruction for activating the target BWP; or deactivating, by the terminal device, the secondary cell corresponding to the target BWP based on an instruction for deactivating the target BWP , wherein the method further comprises: before activating the secondary cell corresponding to the target BWP, determining, by the terminal device based on the instruction for activating the target BWP, whether to activate the secondary cell corresponding to the target BWP, characterized in that the step of determining, by the terminal device based on the instruction for activating the target BWP, whether to activate the secondary cell corresponding to the target BWP comprises: determining, by the terminal device based on the instruction for activating the target BWP, whether the secondary cell corresponding to the target BWP is in an activated state; and if the secondary cell corresponding to the target BWP is not in the activated state, determining to activate the secondary cell and to activate the target BWP for the secondary cell. activating, by the terminal device, a secondary cell corresponding to a target Bandwidth Part, BWP, based on an instruction for activating the target BWP; or deactivating, by the terminal device, the secondary cell corresponding to the target BWP based on an instruction for deactivating the target BWP , wherein the method further comprises: before activating the secondary cell corresponding to the target BWP, determining, by the terminal device based on the instruction for activating the target BWP, whether to activate the secondary cell corresponding to the target BWP, characterized in that the step of determining, by the terminal device based on the instruction for activating the target BWP, whether to activate the secondary cell corresponding to the target BWP comprises: determining, by the terminal device based on the instruction for activating the target BWP, whether the secondary cell corresponding to the target BWP is in an activated state; and if the secondary cell corresponding to the target BWP is not in the activated state, determining to activate the secondary cell and to activate the target BWP for the secondary cell. determining, by the terminal device based on the instruction for activating the target BWP, whether the secondary cell corresponding to the target BWP is in an activated state; and if the secondary cell corresponding to the target BWP is not in the activated state, determining to activate the secondary cell and to activate the target BWP for the secondary cell.
A light control device comprising a light control sheet and a controller; wherein the light control sheet comprises: a light control layer that can be switched between at least a first state and a second state by changing alignment of liquid crystal molecules by application of a drive voltage; and two transparent electrode layers sandwiching the light control layer , wherein the drive voltage is applied between the transparent electrode layers ; wherein the controller converts a value of transmitted image definition into a value of the drive voltage, the transmitted image definition, C n , being calculated from the following Formula : C n = 100 × M − m / M + m where n represents an optical comb width, M represents a maximum light intensity, and m represents a minimum light intensity; and wherein the light control layer is transparent in the first state; the light control layer is turbid in the second state; the light control layer is in the second state when there is no application of the drive voltage; and when the light control layer is in the second state, the light control sheet has a transmitted image definition of 70% or less based on a control performed by the controller, the transmitted image definition being based on JIS K 7374:2007 with the optical comb width, n, set to 0.125 mm. a light control layer that can be switched between at least a first state and a second state by changing alignment of liquid crystal molecules by application of a drive voltage; and two transparent electrode layers sandwiching the light control layer , wherein the drive voltage is applied between the transparent electrode layers ; wherein the controller converts a value of transmitted image definition into a value of the drive voltage, the transmitted image definition, C n , being calculated from the following Formula : C n = 100 × M − m / M + m where n represents an optical comb width, M represents a maximum light intensity, and m represents a minimum light intensity; and wherein the light control layer is transparent in the first state; the light control layer is turbid in the second state; the light control layer is in the second state when there is no application of the drive voltage; and when the light control layer is in the second state, the light control sheet has a transmitted image definition of 70% or less based on a control performed by the controller, the transmitted image definition being based on JIS K 7374:2007 with the optical comb width, n, set to 0.125 mm.
A rubber composition for tires, comprising: a diene rubber; silica having a BET specific surface area measured in accordance with ASTM D3037-81 of 170 to 270 m 2 /g; sulfur; a liquid resin having a softening point measured using a ring and ball softening point measuring apparatus in accordance with JIS K 6220-1:2001 of -20 to 45°C; and at least one resin selected from the group consisting of terpene resins having a softening point of 46 to 160°C, and rosin resins having a softening point of 46 to 140°C, and aromatic petroleum resins having a softening point of 46 to 140°C, wherein an amount of the liquid resin is 0.5 to 20 parts by mass, and an amount of the silica is 40 to 120 parts by mass, each per 100 parts by mass of a rubber component of the rubber composition, the liquid resin is a coumarone-indene resin. a diene rubber; silica having a BET specific surface area measured in accordance with ASTM D3037-81 of 170 to 270 m 2 /g; sulfur; a liquid resin having a softening point measured using a ring and ball softening point measuring apparatus in accordance with JIS K 6220-1:2001 of -20 to 45°C; and at least one resin selected from the group consisting of terpene resins having a softening point of 46 to 160°C, and rosin resins having a softening point of 46 to 140°C, and aromatic petroleum resins having a softening point of 46 to 140°C, wherein an amount of the liquid resin is 0.5 to 20 parts by mass, and an amount of the silica is 40 to 120 parts by mass, each per 100 parts by mass of a rubber component of the rubber composition, the liquid resin is a coumarone-indene resin.
A method of wireless communication performed by a user equipment, UE , having dual connectivity with first and second network nodes comprising respective first and second cell groups, the method comprising: determining , at the UE a timing difference between a first carrier of the first cell group and a second carrier of the second cell group, wherein the cell groups are different from one another; and offsetting , at the UE , a timing of at least one operation in relation to a radio resource configuration of the first carrier or the second carrier by a number of subframes determined in accordance with the timing difference, wherein the at least one operation comprises implementing a measurement gap on the second carrier and offsetting the timing comprises offsetting the measurement gap on the second carrier in relation to a measurement gap configuration of the first carrier, or wherein the at least one operation comprises a discontinuous reception, DRX, operation on the first carrier and offsetting the timing comprises offsetting a subframe in which radio frequency, RF, retuning is performed in connection with the DRX operation. determining , at the UE a timing difference between a first carrier of the first cell group and a second carrier of the second cell group, wherein the cell groups are different from one another; and offsetting , at the UE , a timing of at least one operation in relation to a radio resource configuration of the first carrier or the second carrier by a number of subframes determined in accordance with the timing difference, wherein the at least one operation comprises implementing a measurement gap on the second carrier and offsetting the timing comprises offsetting the measurement gap on the second carrier in relation to a measurement gap configuration of the first carrier, or wherein the at least one operation comprises a discontinuous reception, DRX, operation on the first carrier and offsetting the timing comprises offsetting a subframe in which radio frequency, RF, retuning is performed in connection with the DRX operation.
A method comprising: using a first computer , in response to detecting a change in a data source: automatically generating a dataset comprising a subset of data from the data source, generating a unique dataset identifier , and associating the dataset identifier with the dataset in digital data storage; generating a display description that comprises: the dataset identifier ; and for each particular graphical data display widget among two or more graphical data display widgets, instructions that specify a widget type, an order and one or more widget configuration values for the particular graphical data display widget wherein the instructions comprise a set of first instructions of a first widget configured to specify a first ordinal value that is higher in order than a second ordinal value in a set of second instructions of a second widget; and transmitting the display description to a second computer . automatically generating a dataset comprising a subset of data from the data source, generating a unique dataset identifier , and associating the dataset identifier with the dataset in digital data storage; generating a display description that comprises: the dataset identifier ; and for each particular graphical data display widget among two or more graphical data display widgets, instructions that specify a widget type, an order and one or more widget configuration values for the particular graphical data display widget wherein the instructions comprise a set of first instructions of a first widget configured to specify a first ordinal value that is higher in order than a second ordinal value in a set of second instructions of a second widget; and the dataset identifier ; and for each particular graphical data display widget among two or more graphical data display widgets, instructions that specify a widget type, an order and one or more widget configuration values for the particular graphical data display widget wherein the instructions comprise a set of first instructions of a first widget configured to specify a first ordinal value that is higher in order than a second ordinal value in a set of second instructions of a second widget; and transmitting the display description to a second computer .
A damper system for orthopedic devices, having a proximal fastening device and a distal fastening device which are coupled to each other and displaceable relative to each other, having a first hydraulic or pneumatic damper device , which is arranged between the fastening devices and has a flexion chamber and an extension chamber which are separated from each other by a movable piston and are fluidically connected to each other by at least one overflow line , characterized in that a second damper device with parallel action, and with a speed-independent hysteresis behavior, is arranged between the fastening devices and is designed as a tube structure damper.
A method for transmission across a link having multiple lanes, comprising: creating a transaction layer packet, TLP, ; creating a data link layer packet, DLLP; calculating a cyclic redundancy check, CRC, code for the TLP, the CRC code comprising eight bytes; calculating an error correcting code, ECC, for the TLP, the DLLP and the CRC code; generating a flit comprising a plurality of symbols, the plurality of symbols including TLP symbols to store the TLP, DLLP symbols to store the DLLP, eight consecutive CRC symbols to store the CRC code and ECC symbols to store the ECC , the DLLP symbols being placed after the TLP symbols in the flit, the CRC symbols being placed after the DLLP symbols in the flit, and the ECC symbols being placed after the CRC symbols in the flit; and transmitting the flit across the multiple lanes of the link . creating a transaction layer packet, TLP, ; creating a data link layer packet, DLLP; calculating a cyclic redundancy check, CRC, code for the TLP, the CRC code comprising eight bytes; calculating an error correcting code, ECC, for the TLP, the DLLP and the CRC code; generating a flit comprising a plurality of symbols, the plurality of symbols including TLP symbols to store the TLP, DLLP symbols to store the DLLP, eight consecutive CRC symbols to store the CRC code and ECC symbols to store the ECC , the DLLP symbols being placed after the TLP symbols in the flit, the CRC symbols being placed after the DLLP symbols in the flit, and the ECC symbols being placed after the CRC symbols in the flit; and transmitting the flit across the multiple lanes of the link .
A method comprising: instructing a drone device to fly proximate to a potential surveillance area while in a learning mode; while in the learning mode: instructing a camera carried by the drone device to capture learning mode video or images of the potential surveillance area ; receiving the learning mode video or images of the potential surveillance area from the camera or the drone device; and identifying learning mode privacy masking areas in the learning mode video or images; instructing the drone device to fly proximate to an active surveillance area while in a standard mode; while in the standard mode: instructing the camera carried by the drone device to capture standard mode video or images of the active surveillance area ; receiving the standard mode video or images of the active surveillance area from the camera or the drone device; identifying standard mode privacy masking areas in the standard mode video or images, if any; and dynamically masking a portion of the standard mode video or images that contains any of the learning mode privacy masking areas or the standard mode privacy masking areas. instructing a drone device to fly proximate to a potential surveillance area while in a learning mode; while in the learning mode: instructing a camera carried by the drone device to capture learning mode video or images of the potential surveillance area ; receiving the learning mode video or images of the potential surveillance area from the camera or the drone device; and identifying learning mode privacy masking areas in the learning mode video or images; instructing a camera carried by the drone device to capture learning mode video or images of the potential surveillance area ; receiving the learning mode video or images of the potential surveillance area from the camera or the drone device; and identifying learning mode privacy masking areas in the learning mode video or images; instructing the drone device to fly proximate to an active surveillance area while in a standard mode; while in the standard mode: instructing the camera carried by the drone device to capture standard mode video or images of the active surveillance area ; receiving the standard mode video or images of the active surveillance area from the camera or the drone device; identifying standard mode privacy masking areas in the standard mode video or images, if any; and dynamically masking a portion of the standard mode video or images that contains any of the learning mode privacy masking areas or the standard mode privacy masking areas. instructing the camera carried by the drone device to capture standard mode video or images of the active surveillance area ; receiving the standard mode video or images of the active surveillance area from the camera or the drone device; identifying standard mode privacy masking areas in the standard mode video or images, if any; and dynamically masking a portion of the standard mode video or images that contains any of the learning mode privacy masking areas or the standard mode privacy masking areas.