mhurhangee/ep-ind-claims huggingface dataset:
A medical apparatus comprising: an acquirer configured to acquire information indicating a respiratory waveform of an object and acquires fluoroscopic images of the object captured in time series; an associator configured to associate a tracking value of a coordinate position of a target position, the tracking value fluctuating according to a respiratory phase of the object, based on the time-series fluoroscopic images, the target position being an identified position of the object; and a display controller configured to cause a display to display the respiratory waveform and a waveform of the tracking value of the coordinate position of the target position in a comparable form. an acquirer configured to acquire information indicating a respiratory waveform of an object and acquires fluoroscopic images of the object captured in time series; an associator configured to associate a tracking value of a coordinate position of a target position, the tracking value fluctuating according to a respiratory phase of the object, based on the time-series fluoroscopic images, the target position being an identified position of the object; and a display controller configured to cause a display to display the respiratory waveform and a waveform of the tracking value of the coordinate position of the target position in a comparable form.
A process for forming a coating having antimicrobial properties on a substrate comprising the steps of a. applying a coating composition comprising a quaternary ammonium compound having an alkoxylated substituent having a reactive group Z on a substrate, b. curing the coating composition to obtain a cured coating, wherein the reactive group of the alkoxylated substituent has reacted within the cured coating; wherein the quaternary ammonium compound is of formula (Ia): wherein R 9 is H; R 1 is a linear alkyl group having from 10-15 carbon atoms; R 2 is a C1 -C100 hydrocarbyl group, optionally containing heteroatoms; R 3 is a C1 -C4 alkylene group; R 4 is a C1 -C4 alkylene group; Z is OH; m is an integer from 1 to 30; n is an integer from 1 to 30; X is an anion, preferably a sulphate, nitrate, phosphate, acetate or a halogen ion. a. applying a coating composition comprising a quaternary ammonium compound having an alkoxylated substituent having a reactive group Z on a substrate, b. curing the coating composition to obtain a cured coating, wherein the reactive group of the alkoxylated substituent has reacted within the cured coating; wherein the quaternary ammonium compound is of formula (Ia): wherein R 9 is H; R 1 is a linear alkyl group having from 10-15 carbon atoms; R 2 is a C1 -C100 hydrocarbyl group, optionally containing heteroatoms; R 3 is a C1 -C4 alkylene group; R 4 is a C1 -C4 alkylene group; Z is OH; m is an integer from 1 to 30; n is an integer from 1 to 30; X is an anion, preferably a sulphate, nitrate, phosphate, acetate or a halogen ion. wherein the reactive group of the alkoxylated substituent has reacted within the cured coating; wherein the quaternary ammonium compound is of formula (Ia): wherein R 9 is H; R 1 is a linear alkyl group having from 10-15 carbon atoms; R 2 is a C1 -C100 hydrocarbyl group, optionally containing heteroatoms; R 3 is a C1 -C4 alkylene group; R 4 is a C1 -C4 alkylene group; Z is OH; m is an integer from 1 to 30; n is an integer from 1 to 30; X is an anion, preferably a sulphate, nitrate, phosphate, acetate or a halogen ion. R 1 is a linear alkyl group having from 10-15 carbon atoms; R 2 is a C1 -C100 hydrocarbyl group, optionally containing heteroatoms; R 3 is a C1 -C4 alkylene group; R 4 is a C1 -C4 alkylene group; Z is OH; m is an integer from 1 to 30; n is an integer from 1 to 30; X is an anion, preferably a sulphate, nitrate, phosphate, acetate or a halogen ion.
A catalyst powder comprising: (i) a core portion that contains ceria, zirconia, and one or more rare earth element oxide(s) excluding ceria and/or alkaline earth metal oxide(s); and (ii) a surface layer portion that is located on the core portion, and that contains ceria, zirconia, and one or more rare earth element oxide(s) other than ceria and/or alkaline earth metal oxide(s) different from that or those of the core portion; wherein a ratio (M 2 /M 1) is 0.30 or more and 0.95 or less, the ratio (M 2 /M 1) being a ratio of: (a) a mole fraction M 2 (mol%) of cerium in the surface layer portion measured using X-ray photoelectron spectroscopy; to (b) a mole fraction M 1 (mol%) of cerium in the entire powder as obtained by measuring, using ICP-AES, the amount of cerium in a solution obtained by dissolving the powder through alkaline fusion. (i) a core portion that contains ceria, zirconia, and one or more rare earth element oxide(s) excluding ceria and/or alkaline earth metal oxide(s); and (ii) a surface layer portion that is located on the core portion, and that contains ceria, zirconia, and one or more rare earth element oxide(s) other than ceria and/or alkaline earth metal oxide(s) different from that or those of the core portion;
Process for preparing a particulate olefin polymerisation catalyst component of particles having a mean particle size from 5 to 500 μm, comprising forming an emulsion by admixing a solution of at least one Complex A being a complex of a Group 2 metal compound selected from the group consisting of dialkyl magnesiums, alkyl magnesium alkoxides and alkyl magnesium halides and a mono C 2 to C 4 glycol monoether wherein the ether moiety comprises from 2 to 18 carbon atoms, with at least one transition metal compound, and solidifying the dispersed phase of said emulsion.
A control device adapted to serve as a master device on a network and to control one or a plurality of slave devices (200, 210) over the network, the control device comprising: a storage unit (113, 114) that stores device configuration information (152, 372) including information indicating whether each of the slave devices (200, 210) registered as a member of the network has a network connection that is active or inactive; and setup information (154, 374) including parameters necessary for controlling the registered slave devices (200, 210); characterized by a processing unit configured to execute a backup process that generates backup data using data from the storage unit (113, 114) and from the one or the plurality of slave devices (200, 210), and a restore process using the backup data; wherein the backup data includes the setup information (154, 374) for each of the one or the plurality of slave devices (200, 210), and when executing the restore process, the processing unit: reads the device configuration information (152, 372), and identifies those slave devices (200, 210) included in the backup data that have an active network connection in the read device configuration information (152, 372), or that are present on the network, and restores the setup information corresponding to the identified slave devices (200, 210). a storage unit (113, 114) that stores device configuration information (152, 372) including information indicating whether each of the slave devices (200, 210) registered as a member of the network has a network connection that is active or inactive; and setup information (154, 374) including parameters necessary for controlling the registered slave devices (200, 210); characterized by a processing unit configured to execute a backup process that generates backup data using data from the storage unit (113, 114) and from the one or the plurality of slave devices (200, 210), and a restore process using the backup data; wherein the backup data includes the setup information (154, 374) for each of the one or the plurality of slave devices (200, 210), and when executing the restore process, the processing unit: reads the device configuration information (152, 372), and identifies those slave devices (200, 210) included in the backup data that have an active network connection in the read device configuration information (152, 372), or that are present on the network, and restores the setup information corresponding to the identified slave devices (200, 210). reads the device configuration information (152, 372), and identifies those slave devices (200, 210) included in the backup data that have an active network connection in the read device configuration information (152, 372), or that are present on the network, and restores the setup information corresponding to the identified slave devices (200, 210).
A process for making propene oxide comprising the steps a) reacting propene with hydrogen peroxide in the presence of a methanol solvent, of a titanium zeolite epoxidation catalyst and of at least one nitrogen containing compound present in an amount of from 100 to 3000 mg/kg of hydrogen peroxide, at a molar excess of propene to hydrogen peroxide to provide a reaction mixture; b) separating all or a part of non-reacted propene from the reaction mixture of step a) to provide a propene depleted reaction mixture; c) subjecting the propene depleted reaction mixture of step b) to a distillation in a distillation column providing an overhead product stream comprising propene oxide and methanol and a bottoms product stream comprising methanol and water; d) and separating propene oxide from the overhead product stream of step c); characterized in that step c) is performed after contact with and/or in presence of an acid provided in an amount providing an apparent pH in the bottoms product stream of from 3 to 4.5. a) reacting propene with hydrogen peroxide in the presence of a methanol solvent, of a titanium zeolite epoxidation catalyst and of at least one nitrogen containing compound present in an amount of from 100 to 3000 mg/kg of hydrogen peroxide, at a molar excess of propene to hydrogen peroxide to provide a reaction mixture; b) separating all or a part of non-reacted propene from the reaction mixture of step a) to provide a propene depleted reaction mixture; c) subjecting the propene depleted reaction mixture of step b) to a distillation in a distillation column providing an overhead product stream comprising propene oxide and methanol and a bottoms product stream comprising methanol and water; d) and separating propene oxide from the overhead product stream of step c); characterized in that
Panel sizing machine for sawing to size at least one workpiece consisting of at least one individual panel or at least one stack of panels, wherein the panel sizing machine comprises at least one workpiece support table and at least one saw and at least one pressure beam and at least two pressure beam uprights (6, 7) and at least one electric motor, wherein the saw is movable along a sawing line of the workpiece support table in order to saw to size the workpiece lying on the workpiece support table, and the pressure beam is mounted on the pressure beam uprights (6, 7) in such a way as to be movable in a direction towards the workpiece support table and in a direction away from the workpiece support table and is driven by the electric motor to execute the movements along the pressure beam uprights (6, 7) and to press against the workpiece in the region of the sawing line on the workpiece support table, characterized in that the panel sizing machine comprises a locking brake for locking the pressure beam in its respective current position relative to the workpiece support table, wherein the locking brake is switchable at least between a locked state, in which the pressure beam is locked in its respective current position relative to the workpiece support table by the locking brake, and a released state, in which the pressure beam is released, preferably completely, by the locking brake to move along the pressure beam uprights (6, 7) relative to the workpiece support table and to press against the workpiece in the region of the sawing line on the workpiece support table.
A method for transmitting discovery signals, performed in a base station, the method comprising: determining M discovery signal resources for a carrier from a discovery signal resource pool based on a first numerology, wherein M is a natural number equal to or greater than 1; generating M discovery signal blocks, each of the M discovery signal blocks including a primary synchronization signal, PSS, a secondary synchronization signal, SSS, and a physical broadcast channel, PBCH, and a reference signal for demodulation of the PBCH; and transmitting a m-th discovery signal block through a m-th discovery signal resource among the M discovery signal resources based on the first numerology, wherein m is a natural number from 1 to M, wherein each of the M discovery signal resources consists of a same number of symbol(s) and a same number of subcarriers regardless of m, and positions of resources to which the PSS, the SSS, the PBCH, and the reference signal are mapped within each of the M discovery signal resources are same across the M discovery signal blocks regardless of m; and wherein the first numerology is predetermined depending on a frequency band where the M discovery signal blocks are transmitted, and a second numerology applied to the carrier is indicated through the PBCH of each of the M discovery signal blocks. determining M discovery signal resources for a carrier from a discovery signal resource pool based on a first numerology, wherein M is a natural number equal to or greater than 1; generating M discovery signal blocks, each of the M discovery signal blocks including a primary synchronization signal, PSS, a secondary synchronization signal, SSS, and a physical broadcast channel, PBCH, and a reference signal for demodulation of the PBCH; and transmitting a m-th discovery signal block through a m-th discovery signal resource among the M discovery signal resources based on the first numerology, wherein m is a natural number from 1 to M, wherein each of the M discovery signal resources consists of a same number of symbol(s) and a same number of subcarriers regardless of m, and positions of resources to which the PSS, the SSS, the PBCH, and the reference signal are mapped within each of the M discovery signal resources are same across the M discovery signal blocks regardless of m; and wherein the first numerology is predetermined depending on a frequency band where the M discovery signal blocks are transmitted, and a second numerology applied to the carrier is indicated through the PBCH of each of the M discovery signal blocks.
An atomizer, comprising: a housing; a conductive part at an end of the housing; a mouthpiece with an air outlet; a liquid chamber in the housing and being configured for storing tobacco liquid; and at least one heating element electrically connected to the conductive part, the heating element comprising a liquid carrier and a heating part integrally formed with the liquid carrier, the liquid carrier having a micro porous structure, the liquid carrier being in contact with the tobacco liquid, the liquid carrier being configured for absorbing the tobacco liquid, the heating part being configured for heating the tobacco liquid to form aerosol, characterized in that the heating element is formed by sintering nanosized metallic powder and a material of the liquid carrier at high temperature, wherein the liquid carrier is made of a material selected from a group consisting of aluminum oxide, zirconium oxide, and silicon dioxide. a housing; a conductive part at an end of the housing; a mouthpiece with an air outlet; a liquid chamber in the housing and being configured for storing tobacco liquid; and at least one heating element electrically connected to the conductive part, the heating element comprising a liquid carrier and a heating part integrally formed with the liquid carrier, the liquid carrier having a micro porous structure, the liquid carrier being in contact with the tobacco liquid, the liquid carrier being configured for absorbing the tobacco liquid, the heating part being configured for heating the tobacco liquid to form aerosol,
A method of preparing an inactivated enveloped virus comprising: mixing a solution comprising an enveloped virus with a first methyl β-cyclodextrin (MBCD) solution to obtain a first mixture; incubating the first mixture for a first time period; mixing the enveloped virus from the first mixture with a second MBCD solution to obtain a second mixture; and incubating said second mixture for a second time period. mixing a solution comprising an enveloped virus with a first methyl β-cyclodextrin (MBCD) solution to obtain a first mixture; incubating the first mixture for a first time period; mixing the enveloped virus from the first mixture with a second MBCD solution to obtain a second mixture; and incubating said second mixture for a second time period.
A solid-state imaging apparatus, comprising: a pixel array section on which a plurality of Single Photon Avalanche Diode, SPAD, pixels is two-dimensionally arranged, and a control circuit configured to: acquire a detection result of an illuminance from an analysis result of an image acquired from an output of an illuminance sensor or an output of the solid-state imaging apparatus, control a driving of the plurality of SPAD pixels, in a case where the illuminance becomes a first illuminance higher than a reference illuminance, such that a predetermined subset among the plurality of SPAD pixels arranged on the pixel array section is thinned, wherein the thinned SPAD pixels are turned off. a pixel array section on which a plurality of Single Photon Avalanche Diode, SPAD, pixels is two-dimensionally arranged, and a control circuit configured to: acquire a detection result of an illuminance from an analysis result of an image acquired from an output of an illuminance sensor or an output of the solid-state imaging apparatus, control a driving of the plurality of SPAD pixels, in a case where the illuminance becomes a first illuminance higher than a reference illuminance, such that a predetermined subset among the plurality of SPAD pixels arranged on the pixel array section is thinned, wherein the thinned SPAD pixels are turned off. acquire a detection result of an illuminance from an analysis result of an image acquired from an output of an illuminance sensor or an output of the solid-state imaging apparatus, control a driving of the plurality of SPAD pixels, in a case where the illuminance becomes a first illuminance higher than a reference illuminance, such that a predetermined subset among the plurality of SPAD pixels arranged on the pixel array section is thinned, wherein the thinned SPAD pixels are turned off.
A method for decoding a multi-view video, the method comprising: determining motion prediction schemes performed for a current block to be decoded and a co-located block corresponding to the current block, the motion prediction schemes are determined to be one of a long-term prediction, a short-term prediction and an inter-view prediction; and generating a motion vector of the current block using a motion vector of the co-located block according to the determined motion prediction schemes, wherein when the inter-view prediction is performed for one of the current block and the co-located block and then the long-term prediction or the short-term prediction is performed for the other block, the motion vector of the current block is generated using a predetermined vector or the motion vector of the co-located block, wherein the co-located block includes a temporal co-located block. determining motion prediction schemes performed for a current block to be decoded and a co-located block corresponding to the current block, the motion prediction schemes are determined to be one of a long-term prediction, a short-term prediction and an inter-view prediction; and generating a motion vector of the current block using a motion vector of the co-located block according to the determined motion prediction schemes, wherein when the inter-view prediction is performed for one of the current block and the co-located block and then the long-term prediction or the short-term prediction is performed for the other block, the motion vector of the current block is generated using a predetermined vector or the motion vector of the co-located block, wherein the co-located block includes a temporal co-located block.
A communication device, comprising: targets that are each configured to execute predetermined processing; and a front end that is configured to select, from the targets, a confirmed target with which an external device is to communicate and that is configured to perform near-field communication with the external device, wherein the front end is configured to select, during transmission of a command for selecting at least one candidate of the confirmed target, a predetermined one of the targets once every two times as a transmission destination of the command. targets that are each configured to execute predetermined processing; and a front end that is configured to select, from the targets, a confirmed target with which an external device is to communicate and that is configured to perform near-field communication with the external device, wherein the front end is configured to select, during transmission of a command for selecting at least one candidate of the confirmed target, a predetermined one of the targets once every two times as a transmission destination of the command.
A capsule containing at least one ingredient for preparing an edible product by flowing water there through; said capsule comprising a water-inlet wall, and a product-outlet wall; wherein said product-outlet wall has at least a first, pierceable wall portion, and a second, pierceable wall portion, said second wall portion being recessed with respect to said first wall portion; and wherein said product-outlet wall is asymmetrical with respect to a longitudinal axis (A-A) of said capsule, characterised in that the second wall portion is designed to expand under pressure and be pierced by a piercing member, allowing the edible product to flow out of the capsule when the second wall portion expands under a water pressure in the capsule.
A process for preparing crosslinked oxidation resistant UHMWPE for use in medical prostheses comprising the steps of: (i) obtaining UHMWPE resin; (ii) combining the UHMWPE resin with both a first amount of a first additive and a second amount of a second additive, wherein the first and the second additives are different additives; (iii) consolidating the UHMWPE that has been combined with the first and second additives; and (iv) crosslinking the consolidated UHMWPE to create oxidation resistant UHMWPE, wherein the first and second additives synergistically increase the oxidation resistance of the crosslinked UHMWPE and further wherein the first additive is selected from the group consisting of phenolic antioxidants and hindered amines, and the second additive is selected from the group consisting of phosphorous additives, polyhydric alcohols, phenolic antioxidants, hindered amines, carotenoids, amino-acid-based additives, thiosynergists, and acid antioxidants.