mhurhangee/patent-ind-claim-en huggingface dataset:
A ferrite-rod antenna comprising a ferrite core having a first ferrite core portion , a second ferrite core portion and a third ferrite core portion , said first ferrite core portion and said third ferrite core portion being spaced apart from each other by said second ferrite core portion , and a first winding (W1) disposed above said first ferrite core portion and/or said third ferrite core portion and defining a first winding axis (A1), and a second winding (W2) disposed above said second ferrite core portion and defining a second winding axis (A3) which is not parallel to said first winding axis (A1), wherein the ferrite core at the second ferrite core portion is at least partially tapered relative to the first and third ferrite core portions in at least one direction, wherein the ferrite core at the second ferrite core portion has a small dimension in a direction parallel to the first winding axis (A1) relative to the first and third ferrite core portions , wherein the ferrite core has an elongated shape defining a longitudinal direction, and a dimension of the second ferrite core portion along the longitudinal direction is smaller than a dimension of the first ferrite core portion along the longitudinal direction and/or a dimension of the third ferrite core portion along the longitudinal direction, wherein the first and third ferrite core portions are spaced apart from each other by the second ferrite core portion along a connecting direction perpendicular to the longitudinal direction of the first and third ferrite core portions , wherein a dimension of the second ferrite core portion in a width direction perpendicular to the longitudinal direction and perpendicular to the connecting direction is smaller than or equal to a smallest dimension among dimensions of the first and third ferrite core portions in their respective width directions, and wherein said second ferrite core portion has a cylindrical shape, said first and third ferrite core portions are disposed on opposite end faces of said second ferrite core portion , and said second winding (W2) is disposed over a part of a circumferential surface of said second ferrite core portion.
A system, comprising: a hybrid power plant controller programmed to receive a plurality of signals representative of one or more operating parameters of a hybrid power plant comprising at least one gas turbine engine , at least one piston engine , and at least one catalyst system , wherein the one or more operating parameters comprise at least gas turbine acoustics, and wherein the hybrid power plant controller is programmed to utilize closed-loop optimal control to generate one or more operational setpoints based on the one or more operating parameters for the hybrid power plant to control performance of the hybrid power plant and to provide the one or more operational setpoints to respective controllers of the at least one gas turbine engine , the at least one piston engine , and the at least one catalyst system to control operation of the at least one gas turbine engine , the at least one piston engine , and the at least one catalyst system . a hybrid power plant controller programmed to receive a plurality of signals representative of one or more operating parameters of a hybrid power plant comprising at least one gas turbine engine , at least one piston engine , and at least one catalyst system , wherein the one or more operating parameters comprise at least gas turbine acoustics, and wherein the hybrid power plant controller is programmed to utilize closed-loop optimal control to generate one or more operational setpoints based on the one or more operating parameters for the hybrid power plant to control performance of the hybrid power plant and to provide the one or more operational setpoints to respective controllers of the at least one gas turbine engine , the at least one piston engine , and the at least one catalyst system to control operation of the at least one gas turbine engine , the at least one piston engine , and the at least one catalyst system .
A method for transmitting data in a wireless communication network, comprising: receiving , by a terminal, first configuration signaling, wherein the first configuration signaling is used to determine a first resource occupied by first data in a first slot; receiving , by the terminal, third configuration signaling, wherein the third configuration signaling is used to determine a second resource occupied by second data in the first slot; and when the second resource and the first resource have a resource overlap in the first slot, determining , by the terminal based on a preset policy, data transmitted in the first slot; wherein the first configuration signaling is used for scheduling of data in N slots, wherein the N slots comprise the first slot, and N is an integer greater than 1. receiving , by a terminal, first configuration signaling, wherein the first configuration signaling is used to determine a first resource occupied by first data in a first slot; receiving , by the terminal, third configuration signaling, wherein the third configuration signaling is used to determine a second resource occupied by second data in the first slot; and when the second resource and the first resource have a resource overlap in the first slot, determining , by the terminal based on a preset policy, data transmitted in the first slot; wherein the first configuration signaling is used for scheduling of data in N slots, wherein the N slots comprise the first slot, and N is an integer greater than 1.
Pack (11; 31) comprising a cavity (12; 33) with at least one piece-form cleaning agent (13; 45), which is produced as a result of a hot cleaning-agent substance being poured into the cavity (12; 33), the cleaning agent therefore adhering to the inner side of the cavity, and the pack (11; 31) has a microscopically roughened or microscopically structured surface at least in the region of the inner side of the cavity (12; 33), said inner sides serving as an abutment surface for the cleaning agent (13; 45), wherein the interactions of the microscopically roughened or microscopically structured surface with the solidified cleaning-agent substance are reduced in comparison with there being a smooth surface in the region of the inner side of the cavity (12; 33), wherein the viscosity of the molten and hot cleaning agent at 50°C is above 200 mPa*s, and it therefore solidifies essentially on the surface formed by the ends of the protruding structures.
An under voltage lockout circuit configured to set a minimum turn-on voltage for a load , comprising: an input node configured to receive an input voltage; a first resistor and a second resistor ; a first transistor configured to become conductive to supply the input voltage to the load when the input voltage to the under voltage lockout circuit exceeds a threshold; and a second transistor directly electrically coupled to the first transistor, the second transistor configured to become conductive to supply the input voltage to said first resistor and not to the load when the input voltage to the under voltage lockout circuit falls below the threshold, characterised in that a collector of the second transistor is electrically coupled, through the first resistor , to the input node and configured to be electrically coupled to a terminal of the load wherein a base of the second transistor is electrically coupled to a collector of the first transistor through said second resistor , and wherein the collector of the first transistor is directly electrically coupled to a node , wherein the node is directly electrically coupled to the second resistor and configured to be directly coupled to another terminal of the load . an input node configured to receive an input voltage; a first resistor and a second resistor ; a first transistor configured to become conductive to supply the input voltage to the load when the input voltage to the under voltage lockout circuit exceeds a threshold; and a second transistor directly electrically coupled to the first transistor, the second transistor configured to become conductive to supply the input voltage to said first resistor and not to the load when the input voltage to the under voltage lockout circuit falls below the threshold, characterised in that a collector of the second transistor is electrically coupled, through the first resistor , to the input node and configured to be electrically coupled to a terminal of the load wherein a base of the second transistor is electrically coupled to a collector of the first transistor through said second resistor , and wherein the collector of the first transistor is directly electrically coupled to a node , wherein the node is directly electrically coupled to the second resistor and configured to be directly coupled to another terminal of the load .
A method of locating and identifying a plurality of signal sources, (2, A, B, C, D, P, Q, R, S, T; 67, 68, 69, 70), said plurality of signal sources comprising sources of visible and/or invisible light (2, A, B, C, D, P, Q, R, S, T; 67, 68, 69, 70) and being located within a predetermined space, the method comprising: at a camera (33, 34, 35; 50, 51, 52; 63, 64, 65, 66) receiving over a plurality of image frames a respective identification code from each of said signal sources (2, A, B, C, D, P, Q, R, S, T; 67, 68, 69, 70), each of said identification codes comprising a plurality of temporally spaced pulses of visible and/or invisible light uniquely identifying one of said plurality of signal sources (2, A, B, C, D, P, Q, R, S, T; 67, 68, 69, 70) within said plurality of signal sources (2, A, B, C, D, P, Q, R, S, T; 67, 68, 69, 70); processing the plurality of image frames to generate identification data for each respective signal source (2, A, B, C, D, P, Q, R, S, T; 67, 68, 69, 70) from said identification code received from the respective signal source (2, A, B, C, D, P, Q, R, S, T; 67, 68, 69, 70) based upon said plurality of temporally spaced pulses of visible and/or invisible light; generating location data indicative of locations of said plurality of signal sources (2, A, B, C, D, P, Q, R, S, T; 67, 68, 69, 70), based upon said identification codes; and associating said location data with said identification data. at a camera (33, 34, 35; 50, 51, 52; 63, 64, 65, 66) receiving over a plurality of image frames a respective identification code from each of said signal sources (2, A, B, C, D, P, Q, R, S, T; 67, 68, 69, 70), each of said identification codes comprising a plurality of temporally spaced pulses of visible and/or invisible light uniquely identifying one of said plurality of signal sources (2, A, B, C, D, P, Q, R, S, T; 67, 68, 69, 70) within said plurality of signal sources (2, A, B, C, D, P, Q, R, S, T; 67, 68, 69, 70); processing the plurality of image frames to generate identification data for each respective signal source (2, A, B, C, D, P, Q, R, S, T; 67, 68, 69, 70) from said identification code received from the respective signal source (2, A, B, C, D, P, Q, R, S, T; 67, 68, 69, 70) based upon said plurality of temporally spaced pulses of visible and/or invisible light; generating location data indicative of locations of said plurality of signal sources (2, A, B, C, D, P, Q, R, S, T; 67, 68, 69, 70), based upon said identification codes; and associating said location data with said identification data.
A compound for use in a method of treating or managing cancer in a patient in need of such treatment or management, wherein the compound is 3-(4-((4-(morpholinomethyl)benzyl)oxy)-1-oxoisoindolin-2-yl)piperidine-2,6-dione of the following structure: or an enantiomer or mixture of enantiomers thereof, or a pharmaceutically acceptable salt, solvate, hydrate, co-crystal, clathrate, or polymorph thereof, and wherein the cancer is myeloma or lymphoma. or an enantiomer or mixture of enantiomers thereof, or a pharmaceutically acceptable salt, solvate, hydrate, co-crystal, clathrate, or polymorph thereof, and wherein the cancer is myeloma or lymphoma.
An optical filter having a value of L* measured by an SCE method of 20 or larger, wherein the optical filter comprises a matrix and fine particles dispersed in the matrix , wherein the optical filter has a regular transmittance of 60% or higher for light having a wavelength in at least a part of a wavelength range not shorter than 760 nm and not longer than 2000 nm, wherein in the case where a light resistance test of irradiating the optical filter with light from a xenon arc lamp (having an average total illuminance of light, having a wavelength not shorter than 300 nm and not longer than 400 nm, of 120 W/m 2 ) for 300 hours is performed, the optical filter exhibits a change in C* having an absolute value of 6 or smaller between before and after the light resistance test, the C* being measured by an SCE method by use of a spectrophotometer, wherein the fine particles form at least a colloidal amorphous array so as not to cause Bragg reflection and so that a transmittance curve of the filter in a visible light wavelength region includes a curved portion where the regular transmittance is decreased monotonically from a longer wavelength side to a shorter wavelength side, and the curved portion is shifted to the longer wavelength side as an angle of incidence is increased, and wherein the fine particles have an average value of inter-gravitational center distances of 200 nm or longer on a cross-section vertical to a planar direction of the filter. wherein the optical filter comprises a matrix and fine particles dispersed in the matrix , wherein the optical filter has a regular transmittance of 60% or higher for light having a wavelength in at least a part of a wavelength range not shorter than 760 nm and not longer than 2000 nm, wherein in the case where a light resistance test of irradiating the optical filter with light from a xenon arc lamp (having an average total illuminance of light, having a wavelength not shorter than 300 nm and not longer than 400 nm, of 120 W/m 2 ) for 300 hours is performed, the optical filter exhibits a change in C* having an absolute value of 6 or smaller between before and after the light resistance test, the C* being measured by an SCE method by use of a spectrophotometer, wherein the fine particles form at least a colloidal amorphous array so as not to cause Bragg reflection and so that a transmittance curve of the filter in a visible light wavelength region includes a curved portion where the regular transmittance is decreased monotonically from a longer wavelength side to a shorter wavelength side, and the curved portion is shifted to the longer wavelength side as an angle of incidence is increased, and wherein the fine particles have an average value of inter-gravitational center distances of 200 nm or longer on a cross-section vertical to a planar direction of the filter.
An insulated door panel for an appliance , the insulated door panel comprising: a metallic structural outer panel that includes folded side edges that extend from a front panel , wherein a corner gap is defined between each set of adjacent side edges ; interior blocks that are fixedly attached to an interior surface of the metallic structural outer panel , wherein each interior block is positioned to at least partially form an adhesive cavity within the metallic structural outer panel and within spaces defined by each corner gap ; a solid sealing member defined within each adhesive cavity , wherein the solid sealing member is a cured adhesive ; and a back panel attached at least to the side edges of the metallic structural outer panel , wherein an insulating cavity is defined between the back panel , the metallic structural outer panel , and the interior blocks . a metallic structural outer panel that includes folded side edges that extend from a front panel , wherein a corner gap is defined between each set of adjacent side edges ; interior blocks that are fixedly attached to an interior surface of the metallic structural outer panel , wherein each interior block is positioned to at least partially form an adhesive cavity within the metallic structural outer panel and within spaces defined by each corner gap ; a solid sealing member defined within each adhesive cavity , wherein the solid sealing member is a cured adhesive ; and a back panel attached at least to the side edges of the metallic structural outer panel , wherein an insulating cavity is defined between the back panel , the metallic structural outer panel , and the interior blocks .
An electrical connector comprising: a housing having a plurality of terminal channels extending from a rear to a front of the housing, the front of the housing configured to interface with a mating connector ; terminals loaded into corresponding terminal channels from the rear of the housing, the terminals extending along a terminal axis between a mating end and a terminating end , the terminating end including an insulation crimp barrel , which is the rear-most portion of said terminating end , configured to be crimped to an insulated jacket of a cable , the insulation crimp barrel having at least one tab that protrudes radially outward from the terminal axis; and a stuffer coupled to the rear of the housing, the stuffer including multiple teeth received in corresponding terminal channels, wherein, when one of the terminals is not fully loaded in the terminal channel, the corresponding tooth engages one or more said tabs of the terminal and forces the terminal further into the terminal channel, characterized in that the insulation crimp barrel has multiple tabs dispersed around a perimeter of said insulation crimp barrel . a housing having a plurality of terminal channels extending from a rear to a front of the housing, the front of the housing configured to interface with a mating connector ; terminals loaded into corresponding terminal channels from the rear of the housing, the terminals extending along a terminal axis between a mating end and a terminating end , the terminating end including an insulation crimp barrel , which is the rear-most portion of said terminating end , configured to be crimped to an insulated jacket of a cable , the insulation crimp barrel having at least one tab that protrudes radially outward from the terminal axis; and a stuffer coupled to the rear of the housing, the stuffer including multiple teeth received in corresponding terminal channels, wherein, when one of the terminals is not fully loaded in the terminal channel, the corresponding tooth engages one or more said tabs of the terminal and forces the terminal further into the terminal channel, characterized in that the insulation crimp barrel has multiple tabs dispersed around a perimeter of said insulation crimp barrel .
An airbag formed from an uncoated woven fabric comprising: yarn formed from synthetic fibers woven in the warp direction and weft direction to form a top surface and a bottom surface; wherein all of the yarn used in the warp direction and weft direction of the fabric is formed from the same synthetic fiber formed from a single polymer; wherein the fabric has a static air permeability (SAP) of 3 l/dm 2 /min or lower when the fabric is unaged; wherein the tensile strength of the fabric in both the warp and weft directions is 1000 N or greater when the fabric is unaged; wherein a majority of the yarn on the top surface and/or a majority of the yarn on the bottom surface have fibers with a permanently modified cross-section and that are fused together; wherein permanently modified cross-section means a fiber cross section that is a modified or compressed version of the cross section of the majority of the fiber used in the fabric; wherein the SAP and tensile strength are measured according to the methods described in the Test Methods section of the description. yarn formed from synthetic fibers woven in the warp direction and weft direction to form a top surface and a bottom surface; wherein all of the yarn used in the warp direction and weft direction of the fabric is formed from the same synthetic fiber formed from a single polymer; wherein the fabric has a static air permeability (SAP) of 3 l/dm 2 /min or lower when the fabric is unaged; wherein the tensile strength of the fabric in both the warp and weft directions is 1000 N or greater when the fabric is unaged; wherein a majority of the yarn on the top surface and/or a majority of the yarn on the bottom surface have fibers with a permanently modified cross-section and that are fused together; wherein permanently modified cross-section means a fiber cross section that is a modified or compressed version of the cross section of the majority of the fiber used in the fabric; wherein the SAP and tensile strength are measured according to the methods described in the Test Methods section of the description.
A mobile robot , comprising: one or more horizontal drives that propel the mobile robot in at least one direction along at least two horizontal dimensions; and one or more vertical drives that propel the mobile robot in at least one direction along at least one vertical dimension; wherein the one or more horizontal drives are configured to engage with horizontal tracks of a multi-level storage structure , and the one or more vertical drives are configured to engage with inclined or vertical tracks of the multi-level storage structure ; wherein the mobile robot is configured to propel itself horizontally along levels of the multi-level storage structure , and to propel itself vertically from level to level of the multi-level storage structure using the inclined or vertical tracks of the multi-level storage structure while maintaining a horizontal attitude; characterized in that the mobile robot further comprises a drive axle to which the one or more horizontal drives and one or more vertical drives are coupled, wherein the drive axle is extendable and retractable to selectively engage or disengage the one or more horizontal drives and one or more vertical drives with a desired track of a horizontal orientation, or with a desired track of an inclined or vertical orientation. one or more horizontal drives that propel the mobile robot in at least one direction along at least two horizontal dimensions; and one or more vertical drives that propel the mobile robot in at least one direction along at least one vertical dimension; wherein the one or more horizontal drives are configured to engage with horizontal tracks of a multi-level storage structure , and the one or more vertical drives are configured to engage with inclined or vertical tracks of the multi-level storage structure ; wherein the mobile robot is configured to propel itself horizontally along levels of the multi-level storage structure , and to propel itself vertically from level to level of the multi-level storage structure using the inclined or vertical tracks of the multi-level storage structure while maintaining a horizontal attitude; characterized in that the mobile robot further comprises a drive axle to which the one or more horizontal drives and one or more vertical drives are coupled, wherein the drive axle is extendable and retractable to selectively engage or disengage the one or more horizontal drives and one or more vertical drives with a desired track of a horizontal orientation, or with a desired track of an inclined or vertical orientation.