mhurhangee/patent-ind-claim-en huggingface dataset:
Apparatus for generating a sound field description from an input signal comprising at least two channels, the apparatus comprising: an input signal analyzer for obtaining direction data and diffuseness data from the input signal; an estimator for estimating a first energy- or amplitude-related measure for an omnidirectional component derived from the input signal and for estimating a second energy- or amplitude-related measure for a directional component derived from the input signal, and a sound component generator for generating sound field components of the sound field, wherein the sound component generator is configured to perform an energy compensation of the directional component using the first energy- or amplitude-related measure, the second energy- or amplitude-related measure, the direction data and the diffuseness data. an input signal analyzer for obtaining direction data and diffuseness data from the input signal; an estimator for estimating a first energy- or amplitude-related measure for an omnidirectional component derived from the input signal and for estimating a second energy- or amplitude-related measure for a directional component derived from the input signal, and a sound component generator for generating sound field components of the sound field, wherein the sound component generator is configured to perform an energy compensation of the directional component using the first energy- or amplitude-related measure, the second energy- or amplitude-related measure, the direction data and the diffuseness data.
An article of footwear having an upper and a sole structure secured to the upper, the sole structure comprising: a chamber with (a) an exterior surface and (b) an interior surface located opposite the exterior surface, at least a portion of the interior surface defining a cavity within the chamber that receives a fluid; characterized by : a plate located within the cavity and including (a) a first surface secured to the interior surface of the chamber and (b) a second surface located opposite the first surface and defining a first indentation extending into and across the plate between a lateral side of the plate and a medial side of the plate and a second indentation extending into and across the plate between the lateral side and the medial side . a chamber with (a) an exterior surface and (b) an interior surface located opposite the exterior surface, at least a portion of the interior surface defining a cavity within the chamber that receives a fluid; characterized by : a plate located within the cavity and including (a) a first surface secured to the interior surface of the chamber and (b) a second surface located opposite the first surface and defining a first indentation extending into and across the plate between a lateral side of the plate and a medial side of the plate and a second indentation extending into and across the plate between the lateral side and the medial side .
A porous carbon sheet comprising a carbon fiber and a binding material, wherein when in a measured surface depth distribution, the ratio of the area of a portion having a depth of 20 μm or less in the measured area of one surface is a surface layer area ratio X, and the ratio of the area of a portion having a depth of 20 μm or less in the measured area of the opposite surface is a surface layer area ratio Y, the surface layer area ratio X is larger than the surface layer area ratio Y, and a difference between the surface layer area ratios is 3% or more and 12% or less, wherein the porous carbon sheet is carbonized, wherein the binding material includes a carbonized material of a resin composition, and wherein the surface layer area ratio is measured as described in the description.
A thermotechnical system, with a plurality of heat exchanger units assembled in accordance with a modular arrangement, wherein: - the plurality of heat exchanger units are each formed with an evaporator unit, which is configured to evaporate a heat exchanger operation agent, and a condenser unit, which is configured to liquefy the heat exchanger operation agent, wherein the evaporator unit and condenser unit are fluidically connected for an overflow of the heat exchanger operation agent and arranged in a face-to-face configuration relative to each other, and - the plurality of heat exchanger units form a thermodynamic and process engineering unit, such that, during operation, - evaporated operation agent flows over from an evaporator unit to a condenser unit of one of the heat exchanger units , so as to there at least partially liquefy, - that the liquid generated in the condenser unit is then transferred to an evaporator unit of another one of the heat exchanger units , so as to there evaporate into vapor, and - the vapor subsequently flows over to a condenser unit of the other heat exchanger units , where liquefaction once again takes place, and the liquid generated thereby is again fed to the evaporator unit . - the plurality of heat exchanger units are each formed with an evaporator unit, which is configured to evaporate a heat exchanger operation agent, and a condenser unit, which is configured to liquefy the heat exchanger operation agent, wherein the evaporator unit and condenser unit are fluidically connected for an overflow of the heat exchanger operation agent and arranged in a face-to-face configuration relative to each other, and - the plurality of heat exchanger units form a thermodynamic and process engineering unit, such that, during operation, - evaporated operation agent flows over from an evaporator unit to a condenser unit of one of the heat exchanger units , so as to there at least partially liquefy, - that the liquid generated in the condenser unit is then transferred to an evaporator unit of another one of the heat exchanger units , so as to there evaporate into vapor, and - the vapor subsequently flows over to a condenser unit of the other heat exchanger units , where liquefaction once again takes place, and the liquid generated thereby is again fed to the evaporator unit . - evaporated operation agent flows over from an evaporator unit to a condenser unit of one of the heat exchanger units , so as to there at least partially liquefy, - that the liquid generated in the condenser unit is then transferred to an evaporator unit of another one of the heat exchanger units , so as to there evaporate into vapor, and - the vapor subsequently flows over to a condenser unit of the other heat exchanger units , where liquefaction once again takes place, and the liquid generated thereby is again fed to the evaporator unit .
A sliding member for a compressor , comprising: a body formed of an aluminum alloy; a first coating having abrasion resistance and formed on a surface of the body , characterized in that the first coating is a ceramic coating formed on the surface of the body , a second coating formed on the surface of the first coating so as to overlap the first coating, a Vickers hardness value of the first coating is 500 or more, the second coating is softer than the ceramic coating and it is formed of one selected from a fluorine resin, a molybdenum disulfide, a carbon-based composite material, a boron nitride, or a tungsten disulfide-based material. a body formed of an aluminum alloy; a first coating having abrasion resistance and formed on a surface of the body , characterized in that the first coating is a ceramic coating formed on the surface of the body , a second coating formed on the surface of the first coating so as to overlap the first coating, a Vickers hardness value of the first coating is 500 or more, the second coating is softer than the ceramic coating and it is formed of one selected from a fluorine resin, a molybdenum disulfide, a carbon-based composite material, a boron nitride, or a tungsten disulfide-based material.
A method for manufacturing a blade structure, the method comprising: providing the blade structure comprising an outer surface having an aerodynamic profile; applying one or more shape memory alloys to the outer surface of the blade structure so as to form an outer protection layer on at least a portion of the blade structure; securing the one or more shape memory alloys to the blade structure; wherein applying the one or more shape memory alloys comprises coating the outer surface of the blade structure with a coating comprising the one or more shape memory alloys; and wherein joining the one or more shape memory alloys to the blade structure comprises co-bonding the one or more shape memory alloys to the rotor blade. providing the blade structure comprising an outer surface having an aerodynamic profile; applying one or more shape memory alloys to the outer surface of the blade structure so as to form an outer protection layer on at least a portion of the blade structure; securing the one or more shape memory alloys to the blade structure; wherein applying the one or more shape memory alloys comprises coating the outer surface of the blade structure with a coating comprising the one or more shape memory alloys; and wherein joining the one or more shape memory alloys to the blade structure comprises co-bonding the one or more shape memory alloys to the rotor blade.
A vehicle seat structure provided with a seat cushion and a seat back , comprising: a first side frame extending in a front-rear direction along one side portion of the seat cushion ; a second side frame extending in the front-rear direction along the other side portion of the seat cushion ; a posture changing mechanism capable of changing a posture of the seat cushion ; and a reinforcement member (R1, R2) overlapping the posture changing mechanism in a side view, characterized in that said posture changing mechanism is mounted only on the first side frame , whereas said reinforcement member (R1, R2) is provided at a portion of only the second side frame . a first side frame extending in a front-rear direction along one side portion of the seat cushion ; a second side frame extending in the front-rear direction along the other side portion of the seat cushion ; a posture changing mechanism capable of changing a posture of the seat cushion ; and a reinforcement member (R1, R2) overlapping the posture changing mechanism in a side view, characterized in that said posture changing mechanism is mounted only on the first side frame , whereas said reinforcement member (R1, R2) is provided at a portion of only the second side frame .
A power system comprising: a storage battery ; a water electrolyzer ; a fuel cell configured to generate electricity using hydrogen supplied from a hydrogen reservoir that stores hydrogen generated by the water electrolyzer ; a detector configured to detect whether there is a person in a building ; a power generation device configured to generate electric power using renewable energy and supply the generated electric power to the storage battery and the water electrolyzer ; and characterized by a controller configured to perform at least one of first control and second control, the first control configured to determine a priority of electric power supply from the power generation device to each of the storage battery and the water electrolyzer based on information detected by the detector , and the second control configured to determine a priority of the electric power supply from each of the storage battery and the fuel cell to a power load provided in the building based on the information detected by the detector . a storage battery ; a water electrolyzer ; a fuel cell configured to generate electricity using hydrogen supplied from a hydrogen reservoir that stores hydrogen generated by the water electrolyzer ; a detector configured to detect whether there is a person in a building ; a power generation device configured to generate electric power using renewable energy and supply the generated electric power to the storage battery and the water electrolyzer ; and characterized by a controller configured to perform at least one of first control and second control, the first control configured to determine a priority of electric power supply from the power generation device to each of the storage battery and the water electrolyzer based on information detected by the detector , and the second control configured to determine a priority of the electric power supply from each of the storage battery and the fuel cell to a power load provided in the building based on the information detected by the detector .
A single roll type apparatus for manufacturing a metal thin strip by injecting a molten metal onto an outer peripheral face of a cooling roll rotating at a high speed and rapidly solidifying it to manufacture a metal thin strip , wherein an airflow blocking device for blocking the airflow along the surface of the cooling roll is provided at an upstream side of a molten metal injection nozzle for injecting the molten metal in a rotation direction of the cooling roll , and a carbon dioxide gas injection nozzle for forming a flow of carbon dioxide gas on an outer peripheral surface of the cooling roll between the airflow blocking device and the molten metal injection nozzle or forming a carbon dioxide atmosphere on the surface of the cooling roll between the airflow blocking device and the molten metal injection nozzle is disposed between the molten metal injection nozzle and the airflow blocking device , and a foreign material removal device for removing foreign material attached to the surface of the cooling roll is disposed at an upstream side of the airflow blocking device in the rotation direction of the cooling roll , characterized in that the foreign material removal device is a permanent magnet or an electric magnet disposed in non-contact with the surface of the cooling roll or a gas injection device injecting a gas onto the surface of the cooling roll .
A method of implementing virtual queues for an automation system comprised of a plurality of modules connected to one another by a transport mechanism, each of the plurality of modules configured to process samples, the transport mechanism controlled by a controller to transport the samples between the plurality of modules within a system cycle time, wherein the system cycle time is the maximum transit time between any point within a track system; the method comprising: determining a desired virtual queue for a module , wherein the desired virtual queue comprises an ordering of at least one sample to be processed by the module ; determining a module cycle time for the module , wherein the module cycle time comprises a length of time needed by the module for processing one of the at least one sample; facilitating placement of the at least one sample in the automation system to satisfy the desired virtual queue for the module, wherein the at least one sample is placed to reach the module at a determined time based on the ordering of the at least one sample in the desired virtual queue and the module cycle time; and providing the at least one sample to the module at the determined time, and wherein the automation system further comprises one or more holding buffers configured to hold one or more of the at least one sample, and wherein each of the plurality of modules comprises a module holding area configured to hold one or more of the at least one sample. determining a desired virtual queue for a module , wherein the desired virtual queue comprises an ordering of at least one sample to be processed by the module ; determining a module cycle time for the module , wherein the module cycle time comprises a length of time needed by the module for processing one of the at least one sample; facilitating placement of the at least one sample in the automation system to satisfy the desired virtual queue for the module, wherein the at least one sample is placed to reach the module at a determined time based on the ordering of the at least one sample in the desired virtual queue and the module cycle time; and providing the at least one sample to the module at the determined time, and wherein the automation system further comprises one or more holding buffers configured to hold one or more of the at least one sample, and wherein each of the plurality of modules comprises a module holding area configured to hold one or more of the at least one sample.
Method for removing filling material from a cavity present in a component , the cavity having a connection opening to the surroundings of the component , having the following method steps: • holding the component in a movable mounting , • moving the component while at the same time removing the filling material through the connection opening , a processor (P) processing the geometry data of the component , a computer program running on the processor (P) • taking into account the geometry of the cavity and of the connection opening in the component on the basis of a dataset, • while taking gravitational force into account, calculating a necessary positioning of the component and a subsequent necessary sequence of movements for moving the component in space in order that the filling material is removed through the cavity to the connection opening and through the connection opening out of the component , characterized in that • the removal of the filling material is simulated by the computer program, the flow properties of the filling material being taken into account in the simulation, • simulations with different positionings and/or different sequences of movements are carried out repeatedly, • the positioning and the sequence of movements with which most filling material or all of the filling material is removed from the component in the shortest time is chosen, the component being moved in accordance with the selected positioning and the selected sequence of movements. • holding the component in a movable mounting , • moving the component while at the same time removing the filling material through the connection opening , • taking into account the geometry of the cavity and of the connection opening in the component on the basis of a dataset, • while taking gravitational force into account, calculating a necessary positioning of the component and a subsequent necessary sequence of movements for moving the component in space in order that the filling material is removed through the cavity to the connection opening and through the connection opening out of the component , • the removal of the filling material is simulated by the computer program, the flow properties of the filling material being taken into account in the simulation, • simulations with different positionings and/or different sequences of movements are carried out repeatedly, • the positioning and the sequence of movements with which most filling material or all of the filling material is removed from the component in the shortest time is chosen,
Armature for an electric motor for driving a starter device for an internal combustion engine, having an armature pinion which is rotatably accommodated on an armature shaft for driving a downstream intermediate gear, and having an armature pack which is arranged on the armature shaft and has an armature winding , wherein the armature pinion is fixed in position on the armature shaft in the axial direction and a slipping clutch is placed between the armature pinion and the armature shaft , characterized in that the armature pinion is fastened on the armature shaft by means of at least one snap ring .
A door handle assembly for a motor vehicle , comprising a support that can be mounted on the inside of a door of the motor vehicle , a handle adapted to be grasped by a user and arranged on the outside of the door of the motor vehicle and that is swivel-mounted on the support so that it is movable between a rest position and an actuated position along a first movement path , a locking cylinder and a cover for the locking cylinder , and a resetting device that pushes the handle with a reset force into rest the position, wherein the handle is designed in such a way that it forms in the rest position the cover for the locking cylinder , wherein a first longitudinal end of the handle is swivel-mounted on the support and a second longitudinal end of the handle is coupled with the support and is adapted to be movable away from the support , wherein the handle is adapted to be pivotable with respect to the locking cylinder into a release position in such a way that it can be lifted off the locking cylinder and the locking cylinder is released for inserting a key , wherein the handle includes a cavity which receives the locking cylinder at least partially when the handle is in the rest position, and wherein the handle is designed in such a way that it can be pivoted from the actuated position along a second movement path , which is adjacent to the first movement path , into the release position, characterized in that , in the release position of the handle , the handle is retained in its release position by a locking means .
A display apparatus comprising: a display panel configured to display an image; a light source configured to supply light to the display panel ; a middle mold positioned between the display panel and the light source ; and a quantum dot sheet positioned between the display panel and the middle mold , the quantum dot sheet being configured to convert a wavelength of light emitted from the light source , wherein the middle mold is configured to support the quantum dot sheet , wherein the middle mold comprises a color compensator having a blue color that is configured to mix the light emitted from the light source with the light transmitted from the quantum dot sheet thereby to provide uniform white light to the outside of the display panel , and wherein the middle mold and the color compensator are provided at an edge of the display panel . a display panel configured to display an image; a light source configured to supply light to the display panel ; a middle mold positioned between the display panel and the light source ; and a quantum dot sheet positioned between the display panel and the middle mold , the quantum dot sheet being configured to convert a wavelength of light emitted from the light source , wherein the middle mold is configured to support the quantum dot sheet , wherein the middle mold comprises a color compensator having a blue color that is configured to mix the light emitted from the light source with the light transmitted from the quantum dot sheet thereby to provide uniform white light to the outside of the display panel , and wherein the middle mold and the color compensator are provided at an edge of the display panel .
A battery assembly for a leadless biostimulator , comprising: an electrolyte ; and a cell can containing the electrolyte , wherein the cell can includes an annular wall extending longitudinally along a central axis , and an end boss extending from the annular wall to a proximal face , characterized in that the end boss includes a tether recess extending into the proximal face along the central axis . an electrolyte ; and a cell can containing the electrolyte , wherein the cell can includes an annular wall extending longitudinally along a central axis , and an end boss extending from the annular wall to a proximal face , characterized in that the end boss includes a tether recess extending into the proximal face along the central axis .