mhurhangee/patent-ind-claim-en huggingface dataset:
A bleed airflow system for an aircraft comprising: a high-pressure compressor ; a low-pressure compressor ; a high-pressure bleed line configured to receive high-pressure bleed air from the high-pressure compressor, the high-pressure bleed line comprising a valve system , the valve system configured to regulate the pressure of the high-pressure bleed air received from the high-pressure bleed line in at least two steps; a low-pressure bleed line configured to receive low-pressure bleed air from the low-pressure compressor, the low-pressure bleed line comprising a check valve ; a bleed air junction in fluid connection with the high-pressure bleed line and the low-pressure bleed line, wherein the bleed air junction is downstream of the valve system and the check valve; a control valve configured to receive bleed air from the bleed air junction; and an outlet line configured to receive bleed air from the control valve and distribute bleed air to a location separate from the bleed airflow system; wherein the valve system is characterized by : a first valve , wherein the first valve can be opened fully or closed fully; and a second valve , wherein the second valve can only be opened fully or opened partially, such that flow through the second valve in a partially open position is less than the flow through the second valve in a fully open position. a high-pressure compressor ; a low-pressure compressor ; a high-pressure bleed line configured to receive high-pressure bleed air from the high-pressure compressor, the high-pressure bleed line comprising a valve system , the valve system configured to regulate the pressure of the high-pressure bleed air received from the high-pressure bleed line in at least two steps; a low-pressure bleed line configured to receive low-pressure bleed air from the low-pressure compressor, the low-pressure bleed line comprising a check valve ; a bleed air junction in fluid connection with the high-pressure bleed line and the low-pressure bleed line, wherein the bleed air junction is downstream of the valve system and the check valve; a control valve configured to receive bleed air from the bleed air junction; and an outlet line configured to receive bleed air from the control valve and distribute bleed air to a location separate from the bleed airflow system; wherein the valve system is characterized by : a first valve , wherein the first valve can be opened fully or closed fully; and a second valve , wherein the second valve can only be opened fully or opened partially, such that flow through the second valve in a partially open position is less than the flow through the second valve in a fully open position. a first valve , wherein the first valve can be opened fully or closed fully; and a second valve , wherein the second valve can only be opened fully or opened partially, such that flow through the second valve in a partially open position is less than the flow through the second valve in a fully open position.
A charging management apparatus, comprising: a charging station including a plurality of charging docks which are configured to load a plurality of charging objects; a power supply configured to supply power for wireless charging to the plurality of charging docks in order to wirelessly charge the plurality of charging objects loaded in the charging station ; and a controller configured to determine which charging mode to charge the plurality of charging objects among a constant current mode and a constant voltage mode based on a charging dock ratio in which wireless charging is being performed, and configured to control the power supply to charge the plurality of charging objects in the determined charging mode, when the power for wireless charging is supplied to the plurality of charging docks , wherein the charging dock ratio is a ratio of a number of charging docks in which the plurality of charging objects are loaded and wireless charging is being performed to a total number of the plurality of charging docks , characterized in that the controller is configured to control that a voltage lower than a preset voltage of the constant voltage mode is applied to a charging dock being charged in the constant voltage mode among the plurality of charging docks , and to control a current to be maintained as it is with respect to a charging dock being charged in the constant current mode among the plurality of charging docks , when the charging dock ratio is equal to or greater than a preset first set ratio. a charging station including a plurality of charging docks which are configured to load a plurality of charging objects; a power supply configured to supply power for wireless charging to the plurality of charging docks in order to wirelessly charge the plurality of charging objects loaded in the charging station ; and a controller configured to determine which charging mode to charge the plurality of charging objects among a constant current mode and a constant voltage mode based on a charging dock ratio in which wireless charging is being performed, and configured to control the power supply to charge the plurality of charging objects in the determined charging mode, when the power for wireless charging is supplied to the plurality of charging docks , wherein the charging dock ratio is a ratio of a number of charging docks in which the plurality of charging objects are loaded and wireless charging is being performed to a total number of the plurality of charging docks , characterized in that the controller is configured to control that a voltage lower than a preset voltage of the constant voltage mode is applied to a charging dock being charged in the constant voltage mode among the plurality of charging docks , and to control a current to be maintained as it is with respect to a charging dock being charged in the constant current mode among the plurality of charging docks , when the charging dock ratio is equal to or greater than a preset first set ratio.
A cylinder device comprising: a first piston being an advancing-retracting first piston hermetically inserted into a housing so as to be movable vertically, the first piston including an output rod ; a second piston being a force-multiplying second piston hermetically inserted into the housing so as to be movable vertically, the second piston being hermetically fitted on an outer circumferential part of the output rod ; a force multiplier for multiplying and converting force which acts on the second piston due to locking pressurized fluid and for transmitting multiplied and converted force to the output rod , the force multiplier including an engaging ball which is provided between the output rod and the second piston so as to be movable in a radial direction; an air detection passage for use in detection being formed in the housing ; and a detection valve provided in the housing , the detection valve opening or closing the air detection passage for use in detection when the engaging ball moves a detection rod of the first detection valve in a direction that intersects with the radial direction, characterised by an operation object member provided between the engaging ball and the detection rod so as to be movable in the direction that intersects with the radial direction, the engaging ball causing, via the operation object member , the detection rod to move in the direction that intersects with the radial direction, in a case where the engaging ball moves in the radial direction. a first piston being an advancing-retracting first piston hermetically inserted into a housing so as to be movable vertically, the first piston including an output rod ; a second piston being a force-multiplying second piston hermetically inserted into the housing so as to be movable vertically, the second piston being hermetically fitted on an outer circumferential part of the output rod ; a force multiplier for multiplying and converting force which acts on the second piston due to locking pressurized fluid and for transmitting multiplied and converted force to the output rod , the force multiplier including an engaging ball which is provided between the output rod and the second piston so as to be movable in a radial direction; an air detection passage for use in detection being formed in the housing ; and a detection valve provided in the housing , the detection valve opening or closing the air detection passage for use in detection when the engaging ball moves a detection rod of the first detection valve in a direction that intersects with the radial direction, characterised by an operation object member provided between the engaging ball and the detection rod so as to be movable in the direction that intersects with the radial direction, the engaging ball causing, via the operation object member , the detection rod to move in the direction that intersects with the radial direction, in a case where the engaging ball moves in the radial direction.
A method of controlling transmit power for a device-to-device, D2D, communication, the method comprising: (S110) determining, by a first user equipment (20; 400), to transmit a D2D discovery channel for discovering a peer user equipment ; determining transmit power of the D2D discovery channel; transmitting, by the first user equipment (20; 400), the D2D discovery channel based on the determined transmit power of the D2D discovery channel; determining transmit power of a D2D data channel; and transmitting the D2D data channel to the peer user equipment based on the determined transmit power of the D2D data channel, characterized in that transmit power of the D2D discovery channel is determined based on a pathloss estimate and a parameter associated with a quantity of physical resource blocks, PRBs, for transmitting the D2D discovery channel; and transmit power of a D2D data channel is determined based on the pathloss estimate and a parameter associated with a quantity of PRBs for transmitting the D2D data channel; wherein the quantity of PRBs for transmitting the D2D data channel is configured to have various sizes, wherein the quantity of PRBs for transmitting the D2D discovery channel is fixed as 2, and wherein the pathloss estimate is determined based on a link between an evolved NodeB and the first user equipment (20; 400). (S110) determining, by a first user equipment (20; 400), to transmit a D2D discovery channel for discovering a peer user equipment ; determining transmit power of the D2D discovery channel; transmitting, by the first user equipment (20; 400), the D2D discovery channel based on the determined transmit power of the D2D discovery channel; determining transmit power of a D2D data channel; and transmitting the D2D data channel to the peer user equipment based on the determined transmit power of the D2D data channel, characterized in that transmit power of the D2D discovery channel is determined based on a pathloss estimate and a parameter associated with a quantity of physical resource blocks, PRBs, for transmitting the D2D discovery channel; and transmit power of a D2D data channel is determined based on the pathloss estimate and a parameter associated with a quantity of PRBs for transmitting the D2D data channel; wherein the quantity of PRBs for transmitting the D2D data channel is configured to have various sizes, wherein the quantity of PRBs for transmitting the D2D discovery channel is fixed as 2, and wherein the pathloss estimate is determined based on a link between an evolved NodeB and the first user equipment (20; 400).
Procedure for the creation of playgrounds, especially for padel, comprising the steps of: - identifying an area of intervention ; - excavating said area of intervention , said excavating step being adapted to create a basement compartment comprising at least one central portion and at least one perimeter portion ; - fabricating leveling foundations in said perimeter portion ; - positioning a plurality of prefabricated reinforced concrete curbs resting on said leveling foundations , said prefabricated reinforced concrete curbs comprising attachment means ; - fixing at least one fencing assembly to said attachment means of the prefabricated reinforced concrete curbs . - identifying an area of intervention ; - excavating said area of intervention , said excavating step being adapted to create a basement compartment comprising at least one central portion and at least one perimeter portion ; - fabricating leveling foundations in said perimeter portion ; - positioning a plurality of prefabricated reinforced concrete curbs resting on said leveling foundations , said prefabricated reinforced concrete curbs comprising attachment means ; - fixing at least one fencing assembly to said attachment means of the prefabricated reinforced concrete curbs .
Headlight assembly of a motor vehicle , comprising at least two headlights mounted in a front region of the motor vehicle , a first headlight having at least one light source for emitting light into an emission region in front of the motor vehicle , and a further headlight having at least one further light source for emitting light into a further emission region in front of the same motor vehicle , the first headlight comprising a monitoring device for monitoring a monitoring region in front of the motor vehicle and for detecting people and/or objects in the monitoring region , characterized in that the monitoring device of the first headlight comprises a detector unit for detecting people and/or objects in the further emission region of the at least one further light source of the further headlight of the headlight assembly in front of the same motor vehicle , the detector unit has a detection region that the detector unit monitors, the monitoring region of the monitoring device of the first headlight resulting from an overlap of the detection region of the detector unit of the first headlight with the further emission region of the further light source of the further headlight of the same motor vehicle , and the detector unit only detecting people and/or objects in the monitoring region , and in that the further headlight has a further monitoring device for monitoring a further monitoring region in front of the motor vehicle and for detecting people and/or objects in the monitoring region, the further monitoring device of the further headlight comprising a further detector unit for detecting people and/or objects in the emission region of the at least one light source of the first headlight of the headlight assembly in front of the same motor vehicle , and in that a main direction of a detection region of a monitoring device (1b; 2b) obliquely intersects a light output direction of an emission region of the relevant light source (2a; 1a) assigned to the monitoring device (1b; 2b), such that a restricted monitoring region is produced, and in that the detector unit is designed to detect an amount of light that has been reflected or scattered by people and/or objects located in the monitoring region 0-5 meters in front of the motor vehicle.
A method for preparing a zinc ferrite-based catalyst, the method comprising: obtaining a precipitate by bringing a metal precursor solution comprising a zinc precursor, a ferrite precursor, an acid solution, and water into contact with a basic aqueous solution; and filtering the precipitate, and then drying the filtered precipitate, and firing the dried precipitate, wherein the acid solution comprises one or more of nitric acid and hydrocarbon acid. obtaining a precipitate by bringing a metal precursor solution comprising a zinc precursor, a ferrite precursor, an acid solution, and water into contact with a basic aqueous solution; and filtering the precipitate, and then drying the filtered precipitate, and firing the dried precipitate, wherein the acid solution comprises one or more of nitric acid and hydrocarbon acid.
An electroacoustic converter comprising: an enclosure ; a piezoelectric sounding body that includes a first vibration plate supported on the enclosure , and a piezoelectric element placed at least on one side of the first vibration plate , and that partitions an interior of the enclosure into a first space (S1) and a second space (S2); an electromagnetic sounding body having a second vibration plate (E1) and positioned in the first space (S1); a passage in a thickness direction of the first vibration plate to connect the first space (S1) and second space (S2), wherein the piezoelectric sounding body is configured to play back higher-pitch sounds than sounds that the electromagnetic sounding body plays back; characterized in that the passage is provided in the piezoelectric sounding body , and a ring-shaped member is placed between the enclosure and a periphery of the first vibration plate to integrally connect the enclosure and the periphery. an enclosure ; a piezoelectric sounding body that includes a first vibration plate supported on the enclosure , and a piezoelectric element placed at least on one side of the first vibration plate , and that partitions an interior of the enclosure into a first space (S1) and a second space (S2); an electromagnetic sounding body having a second vibration plate (E1) and positioned in the first space (S1); a passage in a thickness direction of the first vibration plate to connect the first space (S1) and second space (S2), wherein the piezoelectric sounding body is configured to play back higher-pitch sounds than sounds that the electromagnetic sounding body plays back; characterized in that the passage is provided in the piezoelectric sounding body , and a ring-shaped member is placed between the enclosure and a periphery of the first vibration plate to integrally connect the enclosure and the periphery.
Method for determining a three-dimensional shape (FO) of at least one piece (ST) of a body (KO), the method including the steps of: a) projecting a figure pattern (PM) onto at least the piece (ST) of the body (KO), the non-projected figure pattern (PM) having a repeating region (BE) of identifiable figures (PU) in a dimension (y), b) recording an image (BI) of the projected figure pattern (PM) on at least the piece (ST) of the body (KO), c) determining figures (PU) in the recorded image (BI) by means of an identification by means of a neural network (NN), the neural network (NN) having been trained to identify the figures (PU) in the region (BE) by means of training images (TBI) of differently deformed sections (AS) of the figure pattern (PM), and by means of a region index (BEI) of the corresponding region (BE), and d) determining the three-dimensional shape (FO) of at least the piece (ST) of the body (KO) on the basis of the determined figures (PU). a) projecting a figure pattern (PM) onto at least the piece (ST) of the body (KO), the non-projected figure pattern (PM) having a repeating region (BE) of identifiable figures (PU) in a dimension (y), b) recording an image (BI) of the projected figure pattern (PM) on at least the piece (ST) of the body (KO), c) determining figures (PU) in the recorded image (BI) by means of an identification by means of a neural network (NN), the neural network (NN) having been trained to identify the figures (PU) in the region (BE) by means of training images (TBI) of differently deformed sections (AS) of the figure pattern (PM), and by means of a region index (BEI) of the corresponding region (BE), and d) determining the three-dimensional shape (FO) of at least the piece (ST) of the body (KO) on the basis of the determined figures (PU).
An armrest, in particular for a vehicle seat, comprising a support arm pivotal about a pivot axis (a 1 ) formed on a fixed structure between at least one use position and at least one non-use position and latchable in at least one position by a latch movable between a locking position and a release position, wherein a first latch assembly is provided on the support arm and engageable with a second latch assembly connected to the vehicle structure in order to block pivoting of the support arm in at least one direction (u 2 ) and lock same in at least one locked position, characterized in that the latch comprises at least one lever that cooperates with the support arm and is mounted in a manner allowing movement relative to the support arm , the lever carrying the first latch assembly.
A package for holding a product comprising: a first side having an optional first recessed area and a first perimeter edge wherein at least a portion of the first perimeter edge is curved out of plane; a second side having a second recessed area and a second perimeter edge wherein at least a portion of the second perimeter edge is curved out of plane; wherein the first side and the second side are heat sealed together along at least a portion of the first perimeter edge and at least a portion of the second perimeter edge to form a compartment, and wherein the package is a clamshell package wherein the first side and the second side are joined by an integral hinge , characterized in that the first side further comprises an interior wall curved out of plane and that the second side further comprises an interior wall curved out of plane, wherein the interior walls are heat sealed together to form at least two compartments. a first side having an optional first recessed area and a first perimeter edge wherein at least a portion of the first perimeter edge is curved out of plane; a second side having a second recessed area and a second perimeter edge wherein at least a portion of the second perimeter edge is curved out of plane; wherein the first side and the second side are heat sealed together along at least a portion of the first perimeter edge and at least a portion of the second perimeter edge to form a compartment, and wherein the package is a clamshell package wherein the first side and the second side are joined by an integral hinge , characterized in that the first side further comprises an interior wall curved out of plane and that the second side further comprises an interior wall curved out of plane, wherein the interior walls are heat sealed together to form at least two compartments.