mhurhangee/patent-ind-claim-en huggingface dataset:
An agitating mechanism adapted to be disposed in a toner container in which toner is stored, the agitating mechanism comprising: an agitating member configured to agitate the toner; and a rotation shaft member configured to support the agitating member that agitates the toner, the rotation shaft member is adapted to be provided, together with the agitating member , in the toner container so as to be rotatable, the rotation shaft member having through holes that pass through the rotation shaft member in a first direction orthogonal to a rotation axis direction , characterized in that the rotation shaft member includes: paired outer walls that are spaced from each other in a second direction orthogonal to the rotation axis direction and the first direction , and extend along the rotation axis direction ; a separation wall that, together with the paired outer walls , separates the through holes adjacent to each other along the rotation axis direction ; and a projecting member integrally provided on each of the paired outer walls to reinforce the rotation shaft member , the separation wall has an inclined surface that inclines relative to the first direction , the agitating member has a film-like shape and extends along the second direction , and the projecting member respectively projects from the rotation shaft member in the second direction parallel to the agitating member . an agitating member configured to agitate the toner; and a rotation shaft member configured to support the agitating member that agitates the toner, the rotation shaft member is adapted to be provided, together with the agitating member , in the toner container so as to be rotatable, the rotation shaft member having through holes that pass through the rotation shaft member in a first direction orthogonal to a rotation axis direction , characterized in that the rotation shaft member includes: paired outer walls that are spaced from each other in a second direction orthogonal to the rotation axis direction and the first direction , and extend along the rotation axis direction ; a separation wall that, together with the paired outer walls , separates the through holes adjacent to each other along the rotation axis direction ; and a projecting member integrally provided on each of the paired outer walls to reinforce the rotation shaft member , paired outer walls that are spaced from each other in a second direction orthogonal to the rotation axis direction and the first direction , and extend along the rotation axis direction ; a separation wall that, together with the paired outer walls , separates the through holes adjacent to each other along the rotation axis direction ; and a projecting member integrally provided on each of the paired outer walls to reinforce the rotation shaft member , the separation wall has an inclined surface that inclines relative to the first direction , the agitating member has a film-like shape and extends along the second direction , and the projecting member respectively projects from the rotation shaft member in the second direction parallel to the agitating member .
A foamable composition comprising a first esterified acid and a second esterified acid reacted with an epoxy-based material, wherein the composition is substantially free of any additional curing agent.
A method of manufacturing a printed circuit board (PCB) comprising: providing a foil-laminated substrate having one or more stacked circuit layer pairs and comprising a substrate having first and second sides with a first foil layer on each of the first side of the substrate and on the second side of the substrate, the first foil layers corresponding, respectively, to first and second sides of the foil-laminated substrate corresponding to the first and second sides of the substrate; forming at least one via-hole defined by a sidewall in the substrate; the at least one via-hole having opposing first and second ends with the first end extending through the first foil layer on the first side of the foil-laminated substrate; the at least one via-hole extending from its first end in the first foil layer on the first side of the foil-laminated substrate through to at least one circuit layer of the foil-laminated substrate; and countersinking the first end of the at least one via-hole on the first side of the substrate through at least the first foil layer such that the sidewall at the first end of the via-hole has a beveled surface , wherein the countersinking of the via-hole comprises a clearance_ between an outer diameter of the countersink and the sidewall of the via hole; and depositing a conductive layer on the sidewall extending onto the beveled surface of the at least one via hole such that the conductive layer interlocks with the first foil layer on the first side of the foil laminated substrate. providing a foil-laminated substrate having one or more stacked circuit layer pairs and comprising a substrate having first and second sides with a first foil layer on each of the first side of the substrate and on the second side of the substrate, the first foil layers corresponding, respectively, to first and second sides of the foil-laminated substrate corresponding to the first and second sides of the substrate; forming at least one via-hole defined by a sidewall in the substrate; the at least one via-hole having opposing first and second ends with the first end extending through the first foil layer on the first side of the foil-laminated substrate; the at least one via-hole extending from its first end in the first foil layer on the first side of the foil-laminated substrate through to at least one circuit layer of the foil-laminated substrate; and countersinking the first end of the at least one via-hole on the first side of the substrate through at least the first foil layer such that the sidewall at the first end of the via-hole has a beveled surface , wherein the countersinking of the via-hole comprises a clearance_ between an outer diameter of the countersink and the sidewall of the via hole; and depositing a conductive layer on the sidewall extending onto the beveled surface of the at least one via hole such that the conductive layer interlocks with the first foil layer on the first side of the foil laminated substrate.
A method of video decoding performed in a video decoder, the method comprising: receiving (S1510)a bit stream including bins of syntax elements, the syntax elements corresponding to coefficients of a region of a transform skipped block in a coded picture, the syntax elements including a first flag indicating whether an absolute coefficient level of one of the coefficients is greater than a first threshold value, and a second flag indicating whether the absolute coefficient level of the one of the coefficients is greater than a second threshold value, the second threshold value being greater than the first threshold value; characterized in that the method further comprises: determining (S1520) a number of the bins of the second flag that are context coded based on coded information of the coefficients; performing (S1530) context modeling to determine a context model for each of the number of the bins of the second flag; and decoding (S1540) the number of the bins of the second flag based on the determined context models wherein the coded information of the coefficients includes a number of the first flag in a current coefficient group, CG, including the coefficients, a number the first flag in a previous CG, whether a current block corresponding to the transform skipped block is intra coded or inter coded, a size of the transform skipped block, a width of the transformed skipped block, a height of the transformed skipped block, or an aspect ratio of the transformed skipped block. determining (S1520) a number of the bins of the second flag that are context coded based on coded information of the coefficients; performing (S1530) context modeling to determine a context model for each of the number of the bins of the second flag; and decoding (S1540) the number of the bins of the second flag based on the determined context models wherein the coded information of the coefficients includes a number of the first flag in a current coefficient group, CG, including the coefficients, a number the first flag in a previous CG, whether a current block corresponding to the transform skipped block is intra coded or inter coded, a size of the transform skipped block, a width of the transformed skipped block, a height of the transformed skipped block, or an aspect ratio of the transformed skipped block.
A reagent composition for a biosensor, the reagent composition comprising: at least two kinds of electron transfer mediator including Naphthol Green B and a ruthenium complex; and an enzyme, and wherein the concentration of the Naphthol Green B is equal to or greater than 0.1 part by weight and equal to or less than 20 parts by weight with respect to a buffer solution concentration of 100 parts by weight. at least two kinds of electron transfer mediator including Naphthol Green B and a ruthenium complex; and an enzyme, and wherein the concentration of the Naphthol Green B is equal to or greater than 0.1 part by weight and equal to or less than 20 parts by weight with respect to a buffer solution concentration of 100 parts by weight.
A collection of resin particles, wherein the resin particles comprise one or more vinyl aromatic polymers, and the total weight of polymerized units of all vinyl aromatic monomers is 90% or more by weight of the polymer; wherein the polymer comprises methylene bridge groups between aromatic rings; wherein the polymer comprises amino groups and the total amount of amino groups bonded to the resin particles is 0.1 to 1.4 equivalents per liter of the collection of resin particles; wherein quaternary ammonium groups bonded to the polymer are either absent or else are present in an amount of 0.05 equivalents or less per liter of the collection of resin particles; wherein the resin particles have water retention capacity of 40% to 50% by weight of water based on the weight of the collection of resin particles; and wherein the resin particles have surface area of from 10 to 100 m 2 /g, using the Brunauer-Emmett-Teller (BET) method using nitrogen gas. wherein the resin particles comprise one or more vinyl aromatic polymers, and the total weight of polymerized units of all vinyl aromatic monomers is 90% or more by weight of the polymer; wherein the polymer comprises methylene bridge groups between aromatic rings; wherein the polymer comprises amino groups and the total amount of amino groups bonded to the resin particles is 0.1 to 1.4 equivalents per liter of the collection of resin particles; wherein quaternary ammonium groups bonded to the polymer are either absent or else are present in an amount of 0.05 equivalents or less per liter of the collection of resin particles; wherein the resin particles have water retention capacity of 40% to 50% by weight of water based on the weight of the collection of resin particles; and wherein the resin particles have surface area of from 10 to 100 m 2 /g, using the Brunauer-Emmett-Teller (BET) method using nitrogen gas.
Arrangement for pressing together queueing preforms downstream of an outlet of a device for straightening and aligning the preforms, which preforms are made of a thermoplastic material, comprise a body and a collar and are intended to be ultimately shaped into a container by a forming station, comprising a gas conveyor and an outlet conveyor consisting of a brush conveyor comprising straight support bars between which the body of the preforms can be received and on which the collar can rest so as to be able to slide, the brush conveyor comprising two continuous belts which comprise, on the outer surfaces, a set of brushes that are designed to come into contact with the preforms so as to move them along by friction, and are able to bend so as to slide on the body of the preforms without impeding the motion of the continuous belts , characterized in that the gas conveyor is arranged directly upstream of the brush conveyor , and is arranged to blow jets of pressurised gas onto the preforms in the gas conveyor so as to accelerate the sliding of the preforms towards the brush conveyor .
A method for determining a location of a cursor on a navigational map, the method comprising: calculating (S201, S203) at least one boundary rectangle for a path on the navigational map, the path comprising at least two waypoints, each waypoint being connected to a next successive waypoint by a respective line segment in such a manner that each line segment has two endpoints; calculating (S205) a respective segment boundary rectangle for each line segment along with its two endpoints, wherein each segment boundary rectangle is aligned with the boundary rectangle; determining (S207, S209) whether the cursor is located within the at least one boundary rectangle; determining (S211), when the cursor is located within the at least one boundary rectangle, whether the cursor is located within one segment boundary rectangle amongst the respective segment boundary rectangles; and locking, when the cursor is located within the one segment boundary rectangle, the cursor to the one segment boundary rectangle. calculating (S201, S203) at least one boundary rectangle for a path on the navigational map, the path comprising at least two waypoints, each waypoint being connected to a next successive waypoint by a respective line segment in such a manner that each line segment has two endpoints; calculating (S205) a respective segment boundary rectangle for each line segment along with its two endpoints, wherein each segment boundary rectangle is aligned with the boundary rectangle; determining (S207, S209) whether the cursor is located within the at least one boundary rectangle; determining (S211), when the cursor is located within the at least one boundary rectangle, whether the cursor is located within one segment boundary rectangle amongst the respective segment boundary rectangles; and locking, when the cursor is located within the one segment boundary rectangle, the cursor to the one segment boundary rectangle.
A hot stamped article, a chemical composition of the hot stamped article comprising, by mass%, C: 0.15% to less than 0.35%, Si: 0.005% to 0.25%, Mn: 0.5% to 3.0%, sol. Al: 0.0002% to 3.0%, Cr: 0.05% to 1.00%, B: 0.0005% to 0.010%, Nb: 0.01% to 0.15%, Mo: 0.005% to 1.00%, Ti: 0% to 0.15%, Ni: 0% to 3.00%, P: 0.10% or less, S: 0.10% or less, N: 0.010% or less, and a balance of Fe and unavoidable impurities, a microstructure of the hot stamped article comprising prior austenite having an average grain size of 3 μm or less and further containing at least one of lower bainite, martensite, and tempered martensite in an area ratio of 90% or more, and a grain boundary solid solution ratio Z defined by Z=(mass% of one or both of Nb and Mo at grain boundaries)/(mass% of one or both of Nb and Mo at time of melting) being 0.3 or more; wherein the average grain size, the area ratio and Z are determined as disclosed in the description. a chemical composition of the hot stamped article comprising, by mass%, C: 0.15% to less than 0.35%, Si: 0.005% to 0.25%, Mn: 0.5% to 3.0%, sol. Al: 0.0002% to 3.0%, Cr: 0.05% to 1.00%, B: 0.0005% to 0.010%, Nb: 0.01% to 0.15%, Mo: 0.005% to 1.00%, Ti: 0% to 0.15%, Ni: 0% to 3.00%, P: 0.10% or less, S: 0.10% or less, N: 0.010% or less, and a balance of Fe and unavoidable impurities, a microstructure of the hot stamped article comprising prior austenite having an average grain size of 3 μm or less and further containing at least one of lower bainite, martensite, and tempered martensite in an area ratio of 90% or more, and a grain boundary solid solution ratio Z defined by Z=(mass% of one or both of Nb and Mo at grain boundaries)/(mass% of one or both of Nb and Mo at time of melting) being 0.3 or more; wherein the average grain size, the area ratio and Z are determined as disclosed in the description.
An air-conditioning control device to estimate a startup time of an air conditioner (AC) on a basis of a machine learning model which has performed, by using a training data group including a dense region and a sparse region having less training data than the dense region, learning for estimating the startup time of the air conditioner from air-conditioning data which is information regarding control of the air conditioner, the air-conditioning control device comprising: an air-conditioning data acquisition unit to acquire the air-conditioning data; a determination unit to determine whether or not the air-conditioning data is present in the sparse region, wherein the determination unit determines whether or not the air-conditioning data is present in the sparse region on the basis of a criterion set in advance; an estimation unit to, in a case where the determination unit determines that the air-conditioning data is present in the sparse region, apply extrapolation using a non-learning model for associating the air-conditioning data with the startup time to the machine learning model, and estimate the startup time of the air conditioner from the air-conditioning data by using the non-learning model; and a control unit to perform control to start up the air conditioner at the startup time estimated by the estimation unit. an air-conditioning data acquisition unit to acquire the air-conditioning data; a determination unit to determine whether or not the air-conditioning data is present in the sparse region, wherein the determination unit determines whether or not the air-conditioning data is present in the sparse region on the basis of a criterion set in advance; an estimation unit to, in a case where the determination unit determines that the air-conditioning data is present in the sparse region, apply extrapolation using a non-learning model for associating the air-conditioning data with the startup time to the machine learning model, and estimate the startup time of the air conditioner from the air-conditioning data by using the non-learning model; and a control unit to perform control to start up the air conditioner at the startup time estimated by the estimation unit.
A resource configuration method, comprising: receiving , by a terminal, first configuration information sent by a network device, the first configuration information being configured to indicate a monitoring period of a search space where first UL/DL configuration information is located; receiving , by the terminal, third configuration information sent by the network device, the third configuration information being configured for determining a time-domain starting location of the first UL/DL configuration information in the monitoring period; and characterized by starting receiving , by the terminal, the first UL/DL configuration information from the time-domain starting location in the monitoring period. receiving , by a terminal, first configuration information sent by a network device, the first configuration information being configured to indicate a monitoring period of a search space where first UL/DL configuration information is located; receiving , by the terminal, third configuration information sent by the network device, the third configuration information being configured for determining a time-domain starting location of the first UL/DL configuration information in the monitoring period; and characterized by starting receiving , by the terminal, the first UL/DL configuration information from the time-domain starting location in the monitoring period.
A thermostat device for a cooling system, wherein the cooling system comprises a coolant configured to circulate in a circuit comprising a combustion engine , a further object and a radiator , wherein the thermostat device comprises an inlet configured to receive coolant in a position upstream of the radiator , a first outlet configured to direct coolant, via a bypass line , past the radiator , a second outlet configured to direct coolant to the radiator , and a movably arranged valve body configured to distribute the coolant from the inlet to said two outlets in dependence on its position and wherein the thermostat device is configured to receive coolant, via a pilot circuit , from a position in an engine inlet line downstream of the radiator , characterized in that the thermostat device comprises a first thermal expansion element configured to be in thermal contact with the coolant entering the thermostat device via the pilot circuit and to provide a first stroke of the valve body in response to the temperature of the coolant in the pilot circuit , and a second thermal expansion element configured to be in thermal contact with the coolant received via the inlet and to provide a second stroke of the valve body in response to the temperature of the coolant from the inlet such that the valve body is moved to a position defined by the strokes from the thermal expansion elements .
A water-soluble dry powder, comprising: a) a water-soluble vitamin E derivative mixture present in an amount from 0.1% to 20%, or 0.1% to 25%, or 2% to 15%, by weight, of the powder, wherein: the water-soluble vitamin E derivative mixture is a high dimer mixture that comprises at least 13 wt% water-soluble vitamin E derivative dimer and up to 87% water-soluble vitamin E derivative monomer; and the water-soluble vitamin E derivative is a polyalkylene glycol derivative of vitamin E; b) a mixture of sugar fatty acid ester(s) and a binder, wherein: the total amount of sugar fatty acid ester and binder is between 5% and 60%, or 7% and 55% or 10% and 50%, by weight, of the powder; and the mixture of sugar fatty acid ester and binder contains at least 5% sugar fatty acid ester; and c) a non-polar ingredient or mixtures thereof other than the water-soluble vitamin E derivative mixture, present in an amount of from between 5% and 55%, or 10% and 55%, by weight, of the powder. a) a water-soluble vitamin E derivative mixture present in an amount from 0.1% to 20%, or 0.1% to 25%, or 2% to 15%, by weight, of the powder, wherein: the water-soluble vitamin E derivative mixture is a high dimer mixture that comprises at least 13 wt% water-soluble vitamin E derivative dimer and up to 87% water-soluble vitamin E derivative monomer; and the water-soluble vitamin E derivative is a polyalkylene glycol derivative of vitamin E; the water-soluble vitamin E derivative mixture is a high dimer mixture that comprises at least 13 wt% water-soluble vitamin E derivative dimer and up to 87% water-soluble vitamin E derivative monomer; and the water-soluble vitamin E derivative is a polyalkylene glycol derivative of vitamin E; b) a mixture of sugar fatty acid ester(s) and a binder, wherein: the total amount of sugar fatty acid ester and binder is between 5% and 60%, or 7% and 55% or 10% and 50%, by weight, of the powder; and the mixture of sugar fatty acid ester and binder contains at least 5% sugar fatty acid ester; and the total amount of sugar fatty acid ester and binder is between 5% and 60%, or 7% and 55% or 10% and 50%, by weight, of the powder; and the mixture of sugar fatty acid ester and binder contains at least 5% sugar fatty acid ester; and c) a non-polar ingredient or mixtures thereof other than the water-soluble vitamin E derivative mixture, present in an amount of from between 5% and 55%, or 10% and 55%, by weight, of the powder.