mhurhangee/patent-ind-claim-en huggingface dataset:
A respiratory treatment apparatus configured to provide a flow of breathable gas to a patient, comprising: a gas inlet having a variable aperture that is adjustable between closed and fully open; a gas outlet ; and a flow generator adapted to provide a supply of pressurized breathable gas from the gas inlet and to the gas outlet; and a controller to control the level of pressure generated by the flow generator, wherein the variable aperture is configured to, during the inspiration phase of the patient's respiratory cycle, vary proportionally in opening size as a function of a level of flow of breathable gas provided adjacent to the gas outlet, wherein the flow of breathable gas is induced by the patient. a gas inlet having a variable aperture that is adjustable between closed and fully open; a gas outlet ; and a flow generator adapted to provide a supply of pressurized breathable gas from the gas inlet and to the gas outlet; and a controller to control the level of pressure generated by the flow generator, wherein the variable aperture is configured to, during the inspiration phase of the patient's respiratory cycle, vary proportionally in opening size as a function of a level of flow of breathable gas provided adjacent to the gas outlet, wherein the flow of breathable gas is induced by the patient.
A display apparatus (DM), comprising: a substrate (SUB) including a display region (DA) and a non-display region (NDA) outside the display region (DA); signal lines disposed on the substrate (SUB); a display element layer (DPL) disposed on the signal lines, the display element layer (DPL) comprising display elements disposed in the display region (DA) in a plan view; a pad group (PDG) including output pads (OPD) electrically connected to the signal lines and disposed in the non-display region (NDA) in the plan view; characterized by a touch electrode layer (TML) disposed on the display element layer (DPL); an intermediate insulating layer (VLD) which is disposed between the signal lines and the display element layer (DPL) and exposes the output pads (OPD) and overlaps the display region (DA) and the non-display region (NDA); and a touch insulating layer (TSL) disposed on the display element layer (DPL), the touch insulating layer (TSL) contacting the touch electrode layer (TML) and defining an intaglio pattern (GR) in the non-display region (NDA) in the plan view, wherein the intaglio pattern (GR) is located between the output pads (OPD) and the intermediate insulating layer (VLD) in the plan view. a substrate (SUB) including a display region (DA) and a non-display region (NDA) outside the display region (DA); signal lines disposed on the substrate (SUB); a display element layer (DPL) disposed on the signal lines, the display element layer (DPL) comprising display elements disposed in the display region (DA) in a plan view; a pad group (PDG) including output pads (OPD) electrically connected to the signal lines and disposed in the non-display region (NDA) in the plan view; characterized by a touch electrode layer (TML) disposed on the display element layer (DPL); an intermediate insulating layer (VLD) which is disposed between the signal lines and the display element layer (DPL) and exposes the output pads (OPD) and overlaps the display region (DA) and the non-display region (NDA); and a touch insulating layer (TSL) disposed on the display element layer (DPL), the touch insulating layer (TSL) contacting the touch electrode layer (TML) and defining an intaglio pattern (GR) in the non-display region (NDA) in the plan view, wherein the intaglio pattern (GR) is located between the output pads (OPD) and the intermediate insulating layer (VLD) in the plan view.
A support garment testing system comprising: a torso form having a first breast structure and a second breast structure ; a motion platform , the torso form secured to the motion platform characterized by a sensor positioned within one or more of the first breast structure and the second breast structure , wherein the sensor is a motion tracking sensor.
A portable foam brush assembly comprising: a base stand having a base ,a soap reservoir , a hose connectable to a water supply , a foam brush docking bracket , a reciprocating quick connect connection , a base terminal and an electrical connection ; a foam brush wand having a foam brush base including a quick connect connector to receive a soap and water mixture from the base stand , a housing, wand sections connectable via a connector , a brush , hoses, an electric fan pump , a battery and a foaming chamber ; the foam brush base having an electrical terminal to charge the foam brush wand battery when docked into the base stand ; the foam brush docking bracket is configured: to receive the foam brush base , to fluidly connect the quick connect connector to the reciprocating quick connect connection , and to connect and the electrical terminal to the base terminal . a base stand having a base ,a soap reservoir , a hose connectable to a water supply , a foam brush docking bracket , a reciprocating quick connect connection , a base terminal and an electrical connection ; a foam brush wand having a foam brush base including a quick connect connector to receive a soap and water mixture from the base stand , a housing, wand sections connectable via a connector , a brush , hoses, an electric fan pump , a battery and a foaming chamber ; the foam brush base having an electrical terminal to charge the foam brush wand battery when docked into the base stand ; the foam brush docking bracket is configured: to receive the foam brush base , to fluidly connect the quick connect connector to the reciprocating quick connect connection , and to connect and the electrical terminal to the base terminal . to receive the foam brush base , to fluidly connect the quick connect connector to the reciprocating quick connect connection , and to connect and the electrical terminal to the base terminal .
A track system for attachment to a vehicle, the track system comprising: • a primary wheel structured to be rotationally attachable to the vehicle, the primary wheel having an inboard-facing side and an outboard-facing side opposite the inboard-facing side, the inboard-facing side facing toward the vehicle when the primary wheel is rotationally attached to the vehicle; • a frame rotationally supporting a plurality of secondary wheels ; • a sub-frame supported by the frame, the sub-frame rotationally supporting the primary wheel, the primary wheel and the plurality of secondary wheels supporting an endless track around the primary wheel and the plurality of secondary wheels; • a pivot member extending in a vertical direction between the sub-frame and the frame and defining a pivot axis of the frame relative to the sub-frame, the pivot axis extending in the vertical direction; characterized in that the track system further comprises: • a fastener securing the frame to the sub-frame in a neutral position , the fastener being disengageable, the frame being pivotable relative to the sub-frame about the pivot axis from the neutral position to a plurality of different toe-in-toe-out positions when the fastener is disengaged, the fastener being re-engageable to secure the frame to the sub-frame in any one of the different toe-in-toe-out positions. • a primary wheel structured to be rotationally attachable to the vehicle, the primary wheel having an inboard-facing side and an outboard-facing side opposite the inboard-facing side, the inboard-facing side facing toward the vehicle when the primary wheel is rotationally attached to the vehicle; • a frame rotationally supporting a plurality of secondary wheels ; • a sub-frame supported by the frame, the sub-frame rotationally supporting the primary wheel, the primary wheel and the plurality of secondary wheels supporting an endless track around the primary wheel and the plurality of secondary wheels; • a pivot member extending in a vertical direction between the sub-frame and the frame and defining a pivot axis of the frame relative to the sub-frame, the pivot axis extending in the vertical direction; characterized in that the track system further comprises: • a fastener securing the frame to the sub-frame in a neutral position , the fastener being disengageable, the frame being pivotable relative to the sub-frame about the pivot axis from the neutral position to a plurality of different toe-in-toe-out positions when the fastener is disengaged, the fastener being re-engageable to secure the frame to the sub-frame in any one of the different toe-in-toe-out positions.
A workpiece feed device with at least two workpiece receiving positions for loading a workpiece in the respective workpiece receiving position and with at least one workpiece removal position for removing a workpiece , with workpiece conveying means for conveying loaded workpieces in a conveying direction from one of the at least two workpiece receiving positions to one of the workpiece removal positions , characterised in that at least one signal means is provided for signalling a selected workpiece receiving position in which a workpiece can be loaded, wherein the signal means can be activated and is controlled to indicate a selected workpiece receiving position in which a workpiece is to be loaded.
A first wireless communication device comprising: a radio to communicate over a first wireless network having a first coordinate domain defined by a first coordinate system, the radio to receive a message from a second wireless device of a second wireless network having a second coordinate domain defined by a second coordinate system, the message including information of said second coordinate domain; and a controller to determine, based on said information, a usage of said second coordinate domain by said first wireless communication device , and to publish said usage to said second wireless communication device, wherein in response to a determination to bridge domains, said controller is to bridge between said first and second coordinate domains based on a coordinate transformation to transform coordinate values of said second coordinate domain into coordinate values of said first coordinate domain, such that the first wireless communication device is to use the first coordinate domain and to use coordinate values of the second coordinate domain. a radio to communicate over a first wireless network having a first coordinate domain defined by a first coordinate system, the radio to receive a message from a second wireless device of a second wireless network having a second coordinate domain defined by a second coordinate system, the message including information of said second coordinate domain; and a controller to determine, based on said information, a usage of said second coordinate domain by said first wireless communication device , and to publish said usage to said second wireless communication device, wherein in response to a determination to bridge domains, said controller is to bridge between said first and second coordinate domains based on a coordinate transformation to transform coordinate values of said second coordinate domain into coordinate values of said first coordinate domain, such that the first wireless communication device is to use the first coordinate domain and to use coordinate values of the second coordinate domain.
A system configured to monitor an arc between an overhead line and a pantograph of an electric vehicle , the pantograph collecting current for the electric vehicle from the overhead line, the system comprising: a magnetic field detector configured to detect a change in a magnetic field generated by the arc; and a first processor configured to determine a horizontal position of the arc on the pantograph, and output first data that describes the horizontal position, an occurrence time of the arc, and an intensity of the arc, wherein the magnetic field detector is disposable near the pantograph, and the first processor is disposable in the electric vehicle. a magnetic field detector configured to detect a change in a magnetic field generated by the arc; and a first processor configured to determine a horizontal position of the arc on the pantograph, and output first data that describes the horizontal position, an occurrence time of the arc, and an intensity of the arc, wherein the magnetic field detector is disposable near the pantograph, and the first processor is disposable in the electric vehicle.
A method for manipulating presentation content of screen transmission, the method comprising: receiving play-starting information for presenting content from a screen transmission source end transmitted by a corresponding screen transmission hardware , and starting a preset play manipulating mode at a screen transmission presentation end ; detecting, at the screen transmission presentation end, a preset touch operation signal in the play manipulating mode, and obtaining a preset play controlling instruction corresponding to the touch operation signal; and controlling, according to the play controlling instruction, the presenting content at the screen transmission presentation end to enter into a corresponding play state; wherein the screen transmission presentation end synchronously presents the content displayed at the screen transmission source end ; wherein the play controlling instruction comprises an annotating instruction, and wherein controlling the presenting content at the screen transmission presentation end to enter the corresponding play state comprises: controlling the screen transmission presentation end to switch to a preset annotating mode, detecting, in the annotating mode, touch operating information at the screen transmission presentation end , and generating, according to the touch operating information, corresponding annotating information. receiving play-starting information for presenting content from a screen transmission source end transmitted by a corresponding screen transmission hardware , and starting a preset play manipulating mode at a screen transmission presentation end ; detecting, at the screen transmission presentation end, a preset touch operation signal in the play manipulating mode, and obtaining a preset play controlling instruction corresponding to the touch operation signal; and controlling, according to the play controlling instruction, the presenting content at the screen transmission presentation end to enter into a corresponding play state; wherein the screen transmission presentation end synchronously presents the content displayed at the screen transmission source end ; wherein the play controlling instruction comprises an annotating instruction, and wherein controlling the presenting content at the screen transmission presentation end to enter the corresponding play state comprises: controlling the screen transmission presentation end to switch to a preset annotating mode, detecting, in the annotating mode, touch operating information at the screen transmission presentation end , and generating, according to the touch operating information, corresponding annotating information. controlling the screen transmission presentation end to switch to a preset annotating mode, detecting, in the annotating mode, touch operating information at the screen transmission presentation end , and generating, according to the touch operating information, corresponding annotating information.
A method for monitoring and controlling the operation of a pump station , wherein the pump station comprises a tank for temporary storage of a liquid and at least one pump configured for transporting the liquid away from the tank , the pump station further comprises an outlet conduit connected to the pump , the method is characterized by the steps of: - determining the Geodetic head (Hgeo) of the pump station , - determining the pumped Flow (Q) for a given pump operation duty point, - determining the consumed Power (P) for the given pump operation duty point, and - determining a Normalized Specific Energy (nSE) of the pump station based on the determined values of Geodetic head (Hgeo), pumped Flow (Q) and consumed Power (P), by means of the formula (nSE) = (P/Q)/Hgeo . - determining the Geodetic head (Hgeo) of the pump station , - determining the pumped Flow (Q) for a given pump operation duty point, - determining the consumed Power (P) for the given pump operation duty point, and - determining a Normalized Specific Energy (nSE) of the pump station based on the determined values of Geodetic head (Hgeo), pumped Flow (Q) and consumed Power (P), by means of the formula (nSE) = (P/Q)/Hgeo .
An authentication method in a secure channel unused mode on a first terminal in which Fine Ranging, FiRa, applet is executed, the method comprising: generating (S111) a session basic information comprising a random value; transmitting (S112) the generated session basic information to a second terminal without establishing a secure channel with the second terminal ; generating (S113-1) session data comprising a session key from the generated session basic information by using an authentication key pre-shared with the second terminal ; and performing (S115) ultra-wide band, UWB, ranging with the second terminal by using the generated session data. generating (S111) a session basic information comprising a random value; transmitting (S112) the generated session basic information to a second terminal without establishing a secure channel with the second terminal ; generating (S113-1) session data comprising a session key from the generated session basic information by using an authentication key pre-shared with the second terminal ; and performing (S115) ultra-wide band, UWB, ranging with the second terminal by using the generated session data.
Catalyst comprising a support body A having a length L A designed as a flow substrate, a support body B of length L B designed as a wall-flow filter, and material zones A1, A2, B1, and B2, wherein support body A comprises material zones A1 and A2, and support body B comprises material zones B1 and B2, wherein material zone A1 contains cerium oxide, an alkaline earth metal compound and/or an alkali metal compound, as well as platinum and/or palladium, and material zone A2 contains cerium oxide as well as platinum and/or palladium, and is free of alkaline earth metal and alkali metal compounds, material zone B1 contains palladium supported on cerium oxide, and material zone B2 contains platinum supported on a support material, characterized in that material zone A1 extends from one end of the support body A over 10 to 80 % of its length L A and material zone A2 extends from the other end of the support body A over 10 to 80 % of its length L A .
Computer-implemented method for designing a prototype comprising a plurality of programmable chips, such as chips of FPGA type, interconnected by physical tracks of a board, in order to model an ASIC circuit, this ASIC circuit being intended to implement a logic design comprising a hierarchy of logic modules communicating with one another, this method comprising the steps of: - partitioning the hierarchy of logic modules into regions each comprising one or more programmable chips by minimizing: - on the one hand, the inter-region communications in a manner correlated with the available physical connections between each pair of programmable chips; - and, on the other hand, the number of traversal(s) of programmable chips of a critical combinatorial path; and - establishing a routing of the signals between programmable chips by using the available physical resources, wherein establishing the routing comprises routing the physical tracks of the board and the cables connected to programmable chips, wherein modifications are applied in an iterative and automated manner to the partitioning before establishing a new routing and before estimating the operating frequency of the prototype formed by the programmable chips of said regions by means of a temporal analysis, until a target frequency is reached, the method furthermore comprising, prior to the partitioning step, a step of creating a new hierarchy of logic modules on the basis of the hierarchy of the logic modules of the logic design, by flattening the modules that cannot be preserved, according to design constraints, while implementing the logic design, and wherein the partitioning step is applied to this new hierarchy. - partitioning the hierarchy of logic modules into regions each comprising one or more programmable chips by minimizing: - on the one hand, the inter-region communications in a manner correlated with the available physical connections between each pair of programmable chips; - and, on the other hand, the number of traversal(s) of programmable chips of a critical combinatorial path; and - establishing a routing of the signals between programmable chips by using the available physical resources, wherein establishing the routing comprises routing the physical tracks of the board and the cables connected to programmable chips,
A compound represented by any one of the following Chemical Formula 2 to Chemical Formula 4: wherein, in Chemical Formula 2 to Chemical Formula 4, L is a direct bond; a substituted or unsubstituted arylene group; or a substituted or unsubstituted heteroarylene group; X 1 to X 6 are N or CH; at least one of X 1 to X 3 is N; at least one of X 4 to X 6 is N; and z 1 to Z 4 are the same as or different from each other, and each independently hydrogen; deuterium; a halogen group; a nitrile group; a nitro group; a hydroxyl group; a carbonyl group; an ester group; an imide group; an amino group; a substituted or unsubstituted silyl group; a substituted or unsubstituted boron group; a substituted or unsubstituted alkyl group; a substituted or unsubstituted alkoxy group; a substituted or unsubstituted heteroarylamine group; a substituted or unsubstituted arylamine group; a substituted or unsubstituted arylphosphine group; a substituted or unsubstituted phosphine oxide group; a substituted or unsubstituted aryl group; or a substituted or unsubstituted heterocyclic group; L is a direct bond; a substituted or unsubstituted arylene group; or a substituted or unsubstituted heteroarylene group; X 1 to X 6 are N or CH; at least one of X 1 to X 3 is N; at least one of X 4 to X 6 is N; and z 1 to Z 4 are the same as or different from each other, and each independently hydrogen; deuterium; a halogen group; a nitrile group; a nitro group; a hydroxyl group; a carbonyl group; an ester group; an imide group; an amino group; a substituted or unsubstituted silyl group; a substituted or unsubstituted boron group; a substituted or unsubstituted alkyl group; a substituted or unsubstituted alkoxy group; a substituted or unsubstituted heteroarylamine group; a substituted or unsubstituted arylamine group; a substituted or unsubstituted arylphosphine group; a substituted or unsubstituted phosphine oxide group; a substituted or unsubstituted aryl group; or a substituted or unsubstituted heterocyclic group;