mhurhangee/patent-ind-claim-en huggingface dataset:
A method for provisioning individualized application instances, the method comprising: receiving a request to display an individualized application instance of an application, the request comprising at least one sparse metadata identifier associated with the individualized application instance; identifying a sparse metadata chunk associated with the application, wherein the sparse metadata chunk is identified based on the at least one sparse metadata identifier; obtaining said sparse metadata chunk from a sparse metadata layer; determining, based on the at least one sparse metadata identifier associated with the individualized application instance, that there is no sparse metadata chunk associated with one or more custom elements of the individualized application instance; identifying a base metadata chunk associated with the application and corresponding to the one or more custom elements for which no sparse metadata chunk is associated; obtaining the base metadata chunk from a base metadata layer; generating the individualized application instance from the identified sparse metadata chunk and from the identified base metadata chunk; and causing the individualized application instance to be displayed on a graphical user interface associated with the request. receiving a request to display an individualized application instance of an application, the request comprising at least one sparse metadata identifier associated with the individualized application instance; identifying a sparse metadata chunk associated with the application, wherein the sparse metadata chunk is identified based on the at least one sparse metadata identifier; obtaining said sparse metadata chunk from a sparse metadata layer; determining, based on the at least one sparse metadata identifier associated with the individualized application instance, that there is no sparse metadata chunk associated with one or more custom elements of the individualized application instance; identifying a base metadata chunk associated with the application and corresponding to the one or more custom elements for which no sparse metadata chunk is associated; obtaining the base metadata chunk from a base metadata layer; generating the individualized application instance from the identified sparse metadata chunk and from the identified base metadata chunk; and causing the individualized application instance to be displayed on a graphical user interface associated with the request.
A method performed by a terminal in a wireless communication system, the method comprising: receiving , from a base station, control information for scheduling downlink data, wherein the control information comprises a modulation order and a code rate of the downlink data; identifying a number of temporary information bits based on the control information; identifying a transport block size, TBS, based on the code rate and the number of temporary information bits; and decoding the downlink data based on the identified TBS, wherein the TBS is a number identified by subtracting 24 from a multiple of both 8 and a number of code blocks, CBs, for identifying the TBS, and wherein the number of CBs for identifying the TBS is identified based on the number of temporary information bits and whether the code rate is equal to or smaller than 1/4 or not. receiving , from a base station, control information for scheduling downlink data, wherein the control information comprises a modulation order and a code rate of the downlink data; identifying a number of temporary information bits based on the control information; identifying a transport block size, TBS, based on the code rate and the number of temporary information bits; and decoding the downlink data based on the identified TBS, wherein the TBS is a number identified by subtracting 24 from a multiple of both 8 and a number of code blocks, CBs, for identifying the TBS, and wherein the number of CBs for identifying the TBS is identified based on the number of temporary information bits and whether the code rate is equal to or smaller than 1/4 or not.
A position measurement system configured to determine a position of a first object relative to a second object, comprising: an encoder head (EH) mounted on the first object and configured to emit a measurement beam, a grating (G) mounted on the second object and configured to diffract the measurement beam, wherein the grating (G) comprises a first array of grating lines in a first direction and a second array of grating lines in a second direction to diffract the measurement beam (MB) incident on the first and second arrays in at least one first diffracted beam in the first direction and in at least one second diffracted beam in the second direction, wherein the at least one first diffracted beam is for position measurement in the first direction and wherein the at least one second diffracted beam is for position measurement in the second direction, wherein the measurement beam (MB) has a power quantity, characterized in that the grating (G) is configured to distribute the power quantity unevenly over the at least one first diffracted beam and the at least one second diffracted beam . an encoder head (EH) mounted on the first object and configured to emit a measurement beam, a grating (G) mounted on the second object and configured to diffract the measurement beam, wherein the grating (G) comprises a first array of grating lines in a first direction and a second array of grating lines in a second direction to diffract the measurement beam (MB) incident on the first and second arrays in at least one first diffracted beam in the first direction and in at least one second diffracted beam in the second direction, wherein the at least one first diffracted beam is for position measurement in the first direction and wherein the at least one second diffracted beam is for position measurement in the second direction, wherein the measurement beam (MB) has a power quantity,
A structure , which is a shoe insole or a nursing supporter, the structure comprising: a base layer ; and a covering layer including a linear structure and an impregnated layer , the covering layer being made of a resin material that is different from a resin material forming the base layer ; wherein the linear structure is configured to cover at least a part of the base layer , the linear structure is formed on the impregnated layer , and a resin forming the impregnated layer is impregnated in the base layer . a base layer ; and a covering layer including a linear structure and an impregnated layer , the covering layer being made of a resin material that is different from a resin material forming the base layer ; wherein the linear structure is configured to cover at least a part of the base layer , the linear structure is formed on the impregnated layer , and a resin forming the impregnated layer is impregnated in the base layer .
A battery comprising: a cathode made of a bicontinuous body having a three-dimensional network structure in which a plurality of nanostructures are integrated by noncovalent bonds and having flexibility because bonded portions of the nanostructures are deformable; an anode ; an electrolyte made of a salt and sandwiched between the cathode and the anode ; and a catalyst carried by the cathode , wherein the catalyst is made of at least one metal selected from iron, manganese, zinc, copper, and molybdenum, or an oxide of at least one metal selected from calcium, iron, manganese, zinc, copper, and molybdenum, wherein each of the plurality of nanostructures comprises: a nanosheet made of carbon; or a nanofiber made of at least one of carbon, and carbonized cellulose, and the cathode is an air electrode. a cathode made of a bicontinuous body having a three-dimensional network structure in which a plurality of nanostructures are integrated by noncovalent bonds and having flexibility because bonded portions of the nanostructures are deformable; an anode ; an electrolyte made of a salt and sandwiched between the cathode and the anode ; and a catalyst carried by the cathode , wherein the catalyst is made of at least one metal selected from iron, manganese, zinc, copper, and molybdenum, or an oxide of at least one metal selected from calcium, iron, manganese, zinc, copper, and molybdenum, wherein each of the plurality of nanostructures comprises: a nanosheet made of carbon; or a nanofiber made of at least one of carbon, and carbonized cellulose, and the cathode is an air electrode. a nanosheet made of carbon; or a nanofiber made of at least one of carbon, and carbonized cellulose, and the cathode is an air electrode.
An air delivery conduit , comprising: a textile forming a tubular member adapted to deliver pressurized air, the textile including a warp and a weft, wherein the textile is wound about in a helical arrangement, the warp of the textile being arranged to follow the helix and the weft being arranged along the longitudinal axis of the conduit. a textile forming a tubular member adapted to deliver pressurized air, the textile including a warp and a weft, wherein the textile is wound about in a helical arrangement, the warp of the textile being arranged to follow the helix and the weft being arranged along the longitudinal axis of the conduit.
Conveyor belt system with a conveyor belt which extends between a first roller and a second roller so that the conveyor belt has a transport side and a return side , wherein the conveyor belt system further comprises a frame for positioning the conveyor belt, wherein the conveyor belt has a central zone which is demarcated by two upright ribs , which upright ribs extend in the longitudinal direction over substantially the whole conveyor belt, wherein the frame has at least at the position of the transport side and at the position of the two transverse ends a groove in which an upright rib is in each case received, wherein each upright rib is situated at a distance from an edge of the conveyor belt so that two further zones of the conveyor belt are situated outside the ribs, wherein provided on each side of the central zone are two upright ribs extending parallel to each other and at a distance from each other in the longitudinal direction over substantially the whole conveyor belt, characterized in that the frame has at the position of the two transverse ends and at least at the position of the transport side a further groove parallel to the groove , such that the parallel ribs are received in the groove and the further groove, wherein the grooves receiving the inner of the parallel ribs stop at a distance from the second roller and wherein the further grooves receiving the outer of the parallel ribs extend continuously over the second roller .
A photovoltaic module backplane, the photovoltaic module backplane comprising an insulating layer , a reflective layer , a first decorative layer and a first transparent protective layer which are stacked in sequence, wherein matrix resins of the reflective layer and the first decorative layer are fluorine-containing resins.
Reinforcement part for reinforcing a vehicle component , comprising a structural wall extending along a longitudinal axis (X) of the reinforcement part, wherein the structural wall at least partly encloses walls of a ribbing structure for supporting structural strength of the reinforcement part, the reinforcement part, when viewed in cross-section, having a first side region configured for allowing a first load portion to pass through and a second side region configured for allowing a second load portion to pass through, wherein the first load portion represents the largest load portion occurring at the cross-section, wherein the ribbing structure is at least provided at the first side region and the second side region, characterized in that at the second side region, when viewed along the longitudinal axis, the walls of the ribbing structure are provided with cut-outs , the structural wall at the second side region being shaped to at least partially cover the contours of the cut-outs, in such a way, that a continuously shaped cut-out is formed in the structural wall for routing cabling , whereas the walls of the ribbing structure at the first side region are free from cut-outs to keep the ribbing structure at the first side region intact.
A system comprising: an apparatus configured to heat smokable material to volatilize at least one component of the smokable material, the apparatus comprising: a heating zone configured to receive at least a portion of an article including smokable material; a magnetic field generator configured to generate a plurality of varying magnetic fields; and an elongate heating element disposed at least partially around the heating zone and including heating material that is heatable by penetration with the varying magnetic field to thereby heat the heating zone ; wherein the magnetic field generator is for generating the plurality of varying magnetic fields for penetrating different respective portions of the heating element ; and characterised in that the system further comprises: the article for use with the apparatus, the article comprising the smokable material. an apparatus configured to heat smokable material to volatilize at least one component of the smokable material, the apparatus comprising: a heating zone configured to receive at least a portion of an article including smokable material; a magnetic field generator configured to generate a plurality of varying magnetic fields; and an elongate heating element disposed at least partially around the heating zone and including heating material that is heatable by penetration with the varying magnetic field to thereby heat the heating zone ; wherein the magnetic field generator is for generating the plurality of varying magnetic fields for penetrating different respective portions of the heating element ; and characterised in that the system further comprises: a heating zone configured to receive at least a portion of an article including smokable material; a magnetic field generator configured to generate a plurality of varying magnetic fields; and an elongate heating element disposed at least partially around the heating zone and including heating material that is heatable by penetration with the varying magnetic field to thereby heat the heating zone ; wherein the magnetic field generator is for generating the plurality of varying magnetic fields for penetrating different respective portions of the heating element ; and characterised in that the system further comprises: the article for use with the apparatus, the article comprising the smokable material.
A combination composition comprising as active components, in synergistically effective amounts (i) a huperzine of natural or synthetic origin, a pharmaceutically acceptable salt thereof or a plant extract containing huperzine, (ii) at least two compounds selected from the group consisting of: hydroxycinnamic acids, of natural or synthetic origin, mixtures thereof and a plant extract containing the same, wherein said hydroxycinnamic acids are caffeic acid and ferulic acid and wherein the molar ratio huperzine/caffeic acid/ferulic acid is comprised between from 0.01/0.5/10 to 0.1/5/1000, preferentially from 0.01/0.5/10 to 0.1/0.5/1000 or equal to 0.01/50/100 or equal to 0.01/5/100. (i) a huperzine of natural or synthetic origin, a pharmaceutically acceptable salt thereof or a plant extract containing huperzine, (ii) at least two compounds selected from the group consisting of: hydroxycinnamic acids, of natural or synthetic origin, mixtures thereof and a plant extract containing the same,
A motor drive unit for driving a motor of a motorized window treatment, the motor drive unit comprising: a motor drive circuit configured to control power delivered to the motor; a rotational sensing circuit configured to generate a sensor signal that indicates rotation of the motor; a control circuit configured to generate a drive signal to control the motor drive circuit to control the power delivered to the motor, the control circuit configured to detect a stall condition of the motor, and to reduce the power delivered to the motor after a first period of time from first detecting the stall condition; and a stall prevention circuit configured to reduce the power delivered to the motor after a second period of time from first determining that the rotational sensing circuit is not generating the sensor signal while the control circuit is generating the drive signal to rotate the motor, the second period of time longer than the first period of time. a motor drive circuit configured to control power delivered to the motor; a rotational sensing circuit configured to generate a sensor signal that indicates rotation of the motor; a control circuit configured to generate a drive signal to control the motor drive circuit to control the power delivered to the motor, the control circuit configured to detect a stall condition of the motor, and to reduce the power delivered to the motor after a first period of time from first detecting the stall condition; and a stall prevention circuit configured to reduce the power delivered to the motor after a second period of time from first determining that the rotational sensing circuit is not generating the sensor signal while the control circuit is generating the drive signal to rotate the motor, the second period of time longer than the first period of time.
Use of a composition for promoting reprogramming a differentiated cell into a pluripotent stem cell in vitro comprising a repressor of mitofusin gene expression, an inhibitor of mitofusin protein activity, or a mixture thereof as an active ingredient, wherein the repressor of mitofusin gene expression is (a) at least one selected from the group consisting of an antisense oligonucleotide, siRNA, shRNA, and microRNA of mitofusing gene, and/or (b) a repressor of mitofusin promoter activity, wherein the repressor of mitofusin promoter activity is at least one selected from the group consisting of tetramethylpyrazine, 21- [4-(2,6-di-1-pyrolidinyl-4-pyrimidinyl)-1-piperazinyl]pregna-1,4,9 -triene-3,20-dione maleate, retinyl palmitate and D-α-tocopherylquinone.
A composition comprising: a microemulsion; and a reductant dispersed in the composition; wherein the reductant is incorporated into the microemulsion; wherein the microemulsion comprises: (a) a first component selected from the group consisting of soapstock, acid oil of soapstock, a neutralized acid oil of soapstock, and any combinations thereof; and (b) a second component selected from the group consisting of ethoxylated monoglyceride, lecithin, sodium stearoyl lactylate, polylactate, ethyl lactate, a carboxylic acid, a salt of a carboxylic acid, and any combinations thereof; and wherein the reductant is an in-situ chemical reductant for the chemical or abiotic reduction of a contaminant, and is selected from the group consisting of ferrous oxide, magnetite, hematite, maghemite, ferrous hydroxide, ferric hydroxide, goethite, akaganeite, lepidocrocite, ferroxyhyte, ferrihydrite, schwertmannite, green rust, fougerite, iron sulfide, troilite, greigite, pyrrhotite, mackinawite, marcasite, pyrite, siderite, vivianite, iron gluconate, iron sulfate, iron chloride, iron lactate, and combinations of any thereof. a microemulsion; and a reductant dispersed in the composition; wherein the reductant is incorporated into the microemulsion; wherein the microemulsion comprises: (a) a first component selected from the group consisting of soapstock, acid oil of soapstock, a neutralized acid oil of soapstock, and any combinations thereof; and (b) a second component selected from the group consisting of ethoxylated monoglyceride, lecithin, sodium stearoyl lactylate, polylactate, ethyl lactate, a carboxylic acid, a salt of a carboxylic acid, and any combinations thereof; and (a) a first component selected from the group consisting of soapstock, acid oil of soapstock, a neutralized acid oil of soapstock, and any combinations thereof; and (b) a second component selected from the group consisting of ethoxylated monoglyceride, lecithin, sodium stearoyl lactylate, polylactate, ethyl lactate, a carboxylic acid, a salt of a carboxylic acid, and any combinations thereof; and
A rigid decorative member comprising: a base ; and a rigid decorative coating with plural layers, each of said plural layers containing a reaction compound of an alloy of Ti and one or two or more metals selected from Nb, Ta, and V, and of one or two or more non-metallic elements selected from nitrogen, oxygen, and carbon on the base, wherein the plural rigid decorative coating layers comprise an adhesion layer stacked on the base, a gradient adhesion layer stacked on the adhesion layer, an abrasion-resistant layer stacked on the gradient adhesion layer, and a golden adjustment gradient layer stacked on the abrasion-resistant layer; a non-metallic element in the adhesion layer is low-concentration oxygen; a non-metallic element in the gradient adhesion layer, the abrasion-resistant layer, and the golden adjustment gradient layer mainly comprises nitrogen and selectively carbon and/or oxygen; the content of a non-metallic element in a reaction compound included in the gradient adhesion layer is increased in a gradient manner in a thickness direction with departing from the substrate; and the content of a non-metallic element in a reaction compound included in the golden adjustment gradient layer is increased or decreased in a gradient manner in a thickness direction with departing from the substrate. a base ; and a rigid decorative coating with plural layers, each of said plural layers containing a reaction compound of an alloy of Ti and one or two or more metals selected from Nb, Ta, and V, and of one or two or more non-metallic elements selected from nitrogen, oxygen, and carbon on the base, wherein the plural rigid decorative coating layers comprise an adhesion layer stacked on the base, a gradient adhesion layer stacked on the adhesion layer, an abrasion-resistant layer stacked on the gradient adhesion layer, and a golden adjustment gradient layer stacked on the abrasion-resistant layer; a non-metallic element in the adhesion layer is low-concentration oxygen; a non-metallic element in the gradient adhesion layer, the abrasion-resistant layer, and the golden adjustment gradient layer mainly comprises nitrogen and selectively carbon and/or oxygen; the content of a non-metallic element in a reaction compound included in the gradient adhesion layer is increased in a gradient manner in a thickness direction with departing from the substrate; and the content of a non-metallic element in a reaction compound included in the golden adjustment gradient layer is increased or decreased in a gradient manner in a thickness direction with departing from the substrate.