mhurhangee/patent-ind-claim-en huggingface dataset:
An aqueous composition comprising a suspension of ZnO particles and a polymeric stabiliser containing carboxylic acid functions and carboxylic acid salt functions, said polymeric stabiliser being based on the following monomers: acrylic acid and/or methacrylic acid; acrylic acid salt and/or methacrylic acid salt.
A method of device-to-device, D2D, communication in a wireless communication network, the method comprising: determining , by a first wireless device, a division of a set of resources allocated for D2D communication into a plurality of regions, each region of the plurality of regions associated with a priority level, and wherein the set of resources comprises a plurality of resource pools; determining , using a priority of the first wireless device and the division of the set of resources, one or more resources from the plurality of resource pools for transmission of a communication from the first wireless device; and transmitting the communication to a second wireless device using the determined one or more resources; determining that a load associated with the set of resources allocated for D2D communication exceeds a threshold; and modifying the division of the set of resources allocated for D2D communication based on the load. determining , by a first wireless device, a division of a set of resources allocated for D2D communication into a plurality of regions, each region of the plurality of regions associated with a priority level, and wherein the set of resources comprises a plurality of resource pools; determining , using a priority of the first wireless device and the division of the set of resources, one or more resources from the plurality of resource pools for transmission of a communication from the first wireless device; and transmitting the communication to a second wireless device using the determined one or more resources; determining that a load associated with the set of resources allocated for D2D communication exceeds a threshold; and modifying the division of the set of resources allocated for D2D communication based on the load.
A concatenated encoder apparatus for use in a communication system , the concatenated encoder comprising: an outer encoder configured to receive a concatenated encoder input block d, split the concatenated encoder input block d into an outer code input array a , and encode the outer code input array a in accordance with a plurality of outer codes to generate an outer code output array b , wherein the plurality of outer codes comprises L outer codes, wherein L is an integer greater than one, wherein the plurality of outer codes are Reed-Solomon codes; and an inner encoder configured to generate a data container array v from the outer code output array b, and encode the data container array v in accordance with a plurality of inner codes to generate a concatenated code output array x, and send the concatenated code output array x to a channel , wherein the plurality of inner codes are identical copies of a layered polarization adjusted convolutional, LPAC, code, wherein the LPAC code is obtained from a polarization adjusted convolutional, PAC, code by partitioning a data index set of the PAC code into L layer index sets. an outer encoder configured to receive a concatenated encoder input block d, split the concatenated encoder input block d into an outer code input array a , and encode the outer code input array a in accordance with a plurality of outer codes to generate an outer code output array b , wherein the plurality of outer codes comprises L outer codes, wherein L is an integer greater than one, wherein the plurality of outer codes are Reed-Solomon codes; and an inner encoder configured to generate a data container array v from the outer code output array b, and encode the data container array v in accordance with a plurality of inner codes to generate a concatenated code output array x, and send the concatenated code output array x to a channel , wherein the plurality of inner codes are identical copies of a layered polarization adjusted convolutional, LPAC, code, wherein the LPAC code is obtained from a polarization adjusted convolutional, PAC, code by partitioning a data index set of the PAC code into L layer index sets.
A solar cell, comprising: a semiconductor substrate , wherein a rear surface of the semiconductor substrate has a first texture structure , the first texture structure has a non-pyramid-shaped microstructure and includes two or more first substructures at least partially stacked on one another, and in a direction away from the rear surface and perpendicular to the rear surface, a distance between a top surface of an outermost first substructure and a top surface of an adjacent first substructure is less than or equal to 2 μm, and a one-dimensional size of the top surface of the outermost first substructure is less than or equal to 45 μm, wherein the top surface of the first substructure has a polygonal shape; a first passivation layer located on a front surface of the semiconductor substrate , wherein the front surface of the semiconductor substrate has a second texture structure , the second texture structure has a pyramid-shaped microstructure, a doped layer is formed on the second texture structure , and the first passivation layer is formed on the doped layer; a tunnel oxide layer located on the first texture structure of the rear surface of the semiconductor substrate ; a doped conductive layer located on a surface of the tunnel oxide layer , a conductivity type of doping elements of the doped conductive layer being same as that of the semiconductor substrate ; and a second passivation layer located on a surface of the doped conductive layer . a semiconductor substrate , wherein a rear surface of the semiconductor substrate has a first texture structure , the first texture structure has a non-pyramid-shaped microstructure and includes two or more first substructures at least partially stacked on one another, and in a direction away from the rear surface and perpendicular to the rear surface, a distance between a top surface of an outermost first substructure and a top surface of an adjacent first substructure is less than or equal to 2 μm, and a one-dimensional size of the top surface of the outermost first substructure is less than or equal to 45 μm, wherein the top surface of the first substructure has a polygonal shape; a first passivation layer located on a front surface of the semiconductor substrate , wherein the front surface of the semiconductor substrate has a second texture structure , the second texture structure has a pyramid-shaped microstructure, a doped layer is formed on the second texture structure , and the first passivation layer is formed on the doped layer; a tunnel oxide layer located on the first texture structure of the rear surface of the semiconductor substrate ; a doped conductive layer located on a surface of the tunnel oxide layer , a conductivity type of doping elements of the doped conductive layer being same as that of the semiconductor substrate ; and a second passivation layer located on a surface of the doped conductive layer .
An air treatment appliance , comprising: a removable cartridge containing a liquid compound to be aerosolized and including a cartridge outlet through which the aerosolized compound is discharged; a pump operatively coupled to the removable cartridge to supply air to the removable cartridge to generate the aerosolized compound from the liquid compound contained in the removable cartridge ; a controller operatively coupled to the pump for controlling the pump to supply the air to the removable cartridge to generate the aerosolized compound and discharge the aerosolized compound from the cartridge outlet ; and an appliance housing that accommodates the removable cartridge , the pump and the controller within an internal cavity thereof, the appliance housing including a base , a cover coupled to the base to define the internal cavity , and an inner sub-housing located within the internal cavity , the inner sub-housing coupled to the base to collectively define a passageway having an air outlet positioned to discharge a flow of air across a path of the aerosolized compound discharged from the cartridge outlet during operation. a removable cartridge containing a liquid compound to be aerosolized and including a cartridge outlet through which the aerosolized compound is discharged; a pump operatively coupled to the removable cartridge to supply air to the removable cartridge to generate the aerosolized compound from the liquid compound contained in the removable cartridge ; a controller operatively coupled to the pump for controlling the pump to supply the air to the removable cartridge to generate the aerosolized compound and discharge the aerosolized compound from the cartridge outlet ; and an appliance housing that accommodates the removable cartridge , the pump and the controller within an internal cavity thereof, the appliance housing including a base , a cover coupled to the base to define the internal cavity , and an inner sub-housing located within the internal cavity , the inner sub-housing coupled to the base to collectively define a passageway having an air outlet positioned to discharge a flow of air across a path of the aerosolized compound discharged from the cartridge outlet during operation.
A thermal bonding sheet, comprising a precursor layer that is to become a sintered layer by heating, wherein the precursor layer includes sinterable metallic particles and an organic component, a 95% weight loss temperature of the organic component is 150°C or more and 300°C or less when thermogravimetry of the thermal bonding sheet is performed under an air atmosphere at a heating rate of 10°C/min, and wherein the organic component includes an organic binder and a basic substance, wherein the organic binder is a thermally decomposable binder which is a material having a carbon concentration obtained by the energy dispersive X-ray analysis after temperature rise from 23°C to 400°C at a heating rate of 10°C/min in an air atmosphere of 15% by weight or less even when it is contained in the precursor layer, and wherein the amount of the basic substance is from 1 to 150 parts by weight with respect to 100 parts by weight of the thermally decomposable binder. wherein the precursor layer includes sinterable metallic particles and an organic component, a 95% weight loss temperature of the organic component is 150°C or more and 300°C or less when thermogravimetry of the thermal bonding sheet is performed under an air atmosphere at a heating rate of 10°C/min, and wherein the organic component includes an organic binder and a basic substance, wherein the organic binder is a thermally decomposable binder which is a material having a carbon concentration obtained by the energy dispersive X-ray analysis after temperature rise from 23°C to 400°C at a heating rate of 10°C/min in an air atmosphere of 15% by weight or less even when it is contained in the precursor layer, and wherein the amount of the basic substance is from 1 to 150 parts by weight with respect to 100 parts by weight of the thermally decomposable binder.
A method of transmitting an uplink signal by a user equipment, UE, in a wireless communication system supporting an unlicensed band, the method comprising: determining a remaining downlink maximum channel occupancy time, DL MCOT based on a common control-physical downlink control channel, CC-PDCCH, signal; determining, by the UE, whether to perform a single CCA slot listen-before-talk, LBT, or a category 4 LBT; performing, by the UE, a LBT that is determined as the single CCA slot LBT or the category 4 LBT, prior to transmitting an uplink signal in one or more subframes; and transmitting the uplink signal in the one or more subframes based on a result of the performed LBT, wherein, if the one or more subframes for the uplink signal transmission are inside the remaining DL MCOT, the UE performs the single CCA slot LBT different from the category 4 LBT that is available outside the remaining DL MCOT. determining a remaining downlink maximum channel occupancy time, DL MCOT based on a common control-physical downlink control channel, CC-PDCCH, signal; determining, by the UE, whether to perform a single CCA slot listen-before-talk, LBT, or a category 4 LBT; performing, by the UE, a LBT that is determined as the single CCA slot LBT or the category 4 LBT, prior to transmitting an uplink signal in one or more subframes; and transmitting the uplink signal in the one or more subframes based on a result of the performed LBT, wherein, if the one or more subframes for the uplink signal transmission are inside the remaining DL MCOT, the UE performs the single CCA slot LBT different from the category 4 LBT that is available outside the remaining DL MCOT.
A device for a wireless power transfer system, the device comprising a housing and a coil arranged inside the housing, the coil comprising a first conductor wire forming a first sub coil having a plurality of windings and a second conductor wire forming a second sub coil having a plurality of windings , the housing comprising a first holder for accommodating and holding the first sub coil , which first holder is configured to hold the first sub coil in a predetermined winding pattern, characterized in that the housing comprises a second holder for accommodating and holding the second sub coil , which second holder is configured to hold the second sub coil in a predetermined winding pattern, the first holder and the second holder being attached to each other such that the first sub coil and the second sub coil together form the coil with both the first sub coil and the second sub coil being arranged between the first holder and the second holder .
A three-dimensional object and a support structure , which support structure and three-dimensional object are produced by means of layer-wise applying and selectively solidifying of a building material in an additive manufacturing process, and which support structure is a three-dimensional structure that serves to provide support or stabilization to the three-dimensional object to be produced or to at least a part of the object, wherein the support structure has a reduced resistance to compressional and/or tensional forces applied to the support structure in a first extension direction (E) of the support structure and characterised in that in said first extension direction (E) the support structure has an alternating shape including a plurality of crests . wherein the support structure has a reduced resistance to compressional and/or tensional forces applied to the support structure in a first extension direction (E) of the support structure and characterised in that in said first extension direction (E) the support structure has an alternating shape including a plurality of crests .
A cover component for covering a surface of a display panel, the cover component comprising: a decorative layer that includes a colored region having a frame shape and a transmissive region provided on an inside of the colored region ; and a hard coat layer that includes an anti-reflection region and a region having a smooth shape around the anti-reflection region , the anti-reflection region being a region having a fine uneven shape formed on at least one surface of the hard coat layer , wherein the hard coat layer overlaps the decorative layer , and the anti-reflection region covers the transmissive region and protrudes into the colored region over a whole inner peripheral portion of the colored region. a decorative layer that includes a colored region having a frame shape and a transmissive region provided on an inside of the colored region ; and a hard coat layer that includes an anti-reflection region and a region having a smooth shape around the anti-reflection region , the anti-reflection region being a region having a fine uneven shape formed on at least one surface of the hard coat layer , wherein the hard coat layer overlaps the decorative layer , and the anti-reflection region covers the transmissive region and protrudes into the colored region over a whole inner peripheral portion of the colored region.
An ultrasound diagnostic apparatus , comprising: an ultrasound probe ; an image acquisition unit configured to acquire an ultrasound image by transmitting an ultrasound beam from the ultrasound probe toward a subject and receiving an ultrasound beam reflected from the subject; an image analysis unit configured to analyze the ultrasound image acquired by the image acquisition unit ; and a movement amount detection unit configured to detect a movement amount of the ultrasound probe , wherein the image analysis unit is configured to perform, after detection of the movement amount by the movement amount detection unit, image analysis on an ultrasound image of a single frame in a case where the movement amount of the ultrasound probe detected by the movement amount detection unit is equal to or greater than a predetermined threshold value, and perform analysis on a movement of a specific pattern commonly included in the ultrasound images of a plurality of frames in a case where the movement amount of the ultrasound probe detected by the movement amount detection unit is less than the predetermined threshold value. an ultrasound probe ; an image acquisition unit configured to acquire an ultrasound image by transmitting an ultrasound beam from the ultrasound probe toward a subject and receiving an ultrasound beam reflected from the subject; an image analysis unit configured to analyze the ultrasound image acquired by the image acquisition unit ; and a movement amount detection unit configured to detect a movement amount of the ultrasound probe , wherein the image analysis unit is configured to perform, after detection of the movement amount by the movement amount detection unit, image analysis on an ultrasound image of a single frame in a case where the movement amount of the ultrasound probe detected by the movement amount detection unit is equal to or greater than a predetermined threshold value, and perform analysis on a movement of a specific pattern commonly included in the ultrasound images of a plurality of frames in a case where the movement amount of the ultrasound probe detected by the movement amount detection unit is less than the predetermined threshold value.
A method for forming a nanofiltration hollow fiber membrane comprising a poly(amide-imide) (PAI) hollow fiber substrate having a lumen and a polyethyleneimine (PEI)-cross-linked PAI skin layer formed on a shell side, wherein the PAI hollow fiber substrate is made of asymmetric microporous hollow fibers made of PAI material, the method comprising contacting the PAI hollow fiber substrate with an aqueous solution of polyethyleneimine (PEI) at a temperature of between 50°C and 80°C for a period of between 1 and 180 min to cross-link PAI in the skin layer of the PAI hollow fiber substrate by PEI after sealing both ends of the PAI hollow fiber substrate, wherein concentration of the aqueous PEI solution ranges from between 0.2 to 5 wt%.
A method for transmitting a status report of a data stream by a user equipment, UE, in a communication system, the method comprising: receiving , from a transmission entity, first packets transmitted using a first radio access technology, RAT, and second packets transmitted using a second RAT, wherein the first packets and the second packets are included in the data stream; detecting at least one missing sequence number from first sequence numbers of the first packets and second sequence numbers of the second packets stored in a reception buffer; when at least one missing sequence number is detected, determining that an occurrence cause of the at least one missing sequence number is due to either a transmission delay time difference between the first RAT and the second RAT or a reception failure; when the occurrence cause of the at least one missing sequence number is the transmission delay time difference and if a skew timer is not running , starting the skew timer; and when the skew timer has expired , transmitting , to the transmitting entity, the status report comprising information indicating that at least one packet corresponding to the at least one missing sequence number has not been received due to the transmission delay time difference. receiving , from a transmission entity, first packets transmitted using a first radio access technology, RAT, and second packets transmitted using a second RAT, wherein the first packets and the second packets are included in the data stream; detecting at least one missing sequence number from first sequence numbers of the first packets and second sequence numbers of the second packets stored in a reception buffer; when at least one missing sequence number is detected, determining that an occurrence cause of the at least one missing sequence number is due to either a transmission delay time difference between the first RAT and the second RAT or a reception failure; when the occurrence cause of the at least one missing sequence number is the transmission delay time difference and if a skew timer is not running , starting the skew timer; and when the skew timer has expired , transmitting , to the transmitting entity, the status report comprising information indicating that at least one packet corresponding to the at least one missing sequence number has not been received due to the transmission delay time difference.
A system for the thermal decomposition of solid waste comprising: a plurality of cylindrical canister sections configured to hold solid waste; a connecting ring structure for connecting cylindrical canister sections at at least one end of each one of the plurality of cylindrical canister sections ; a floor structure at the bottom of each one of the plurality of canister sections ; a heated air opening for heated air introduction located in the floor structure in the lowest of the plurality of canister sections ; a conical structure centrally positioned above the heated air opening; a carbon pillow positioned around the conical structure configured to prevent the heated air from directly contacting the waste material; an autoclave for holding the plurality of cylindrical canister sections ; and an exhaust port from the autoclave for removing gases produced during the thermal decomposition of the solid waste. a plurality of cylindrical canister sections configured to hold solid waste; a connecting ring structure for connecting cylindrical canister sections at at least one end of each one of the plurality of cylindrical canister sections ; a floor structure at the bottom of each one of the plurality of canister sections ; a heated air opening for heated air introduction located in the floor structure in the lowest of the plurality of canister sections ; a conical structure centrally positioned above the heated air opening; a carbon pillow positioned around the conical structure configured to prevent the heated air from directly contacting the waste material; an autoclave for holding the plurality of cylindrical canister sections ; and an exhaust port from the autoclave for removing gases produced during the thermal decomposition of the solid waste.