mhurhangee/patent-ind-claim-en huggingface dataset:
A task start method, comprising: in a process in which a first task of a first application is run and performed on a screen, when the first task triggers a task jump for a second task, if a window is required to display the second task, invoking a window start interface of a system, wherein the window start interface is a system-level common standard application programming interface, and the window start interface is configured to generate a window parameter of a first floating window ; and starting the second task based on the window start interface, comprising: when the second task supports floating window display, starting the second task based on a current unchanged display status of the first task, creating the first floating window based on the window start interface, and displaying the second task based on the first floating window , wherein the display status of the first task comprises full-screen display, and/or split-screen display, and/or floating window display. in a process in which a first task of a first application is run and performed on a screen, when the first task triggers a task jump for a second task, if a window is required to display the second task, invoking a window start interface of a system, wherein the window start interface is a system-level common standard application programming interface, and the window start interface is configured to generate a window parameter of a first floating window ; and starting the second task based on the window start interface, comprising: when the second task supports floating window display, starting the second task based on a current unchanged display status of the first task, creating the first floating window based on the window start interface, and displaying the second task based on the first floating window , wherein the display status of the first task comprises full-screen display, and/or split-screen display, and/or floating window display.
A wound dressing for applying topical negative pressure at a wound site, comprising: an absorbent layer for absorbing wound exudate; a gas impermeable cover layer overlying the absorbent layer and comprising a first orifice, wherein the cover layer is moisture vapour permeable; a suction port sealed to the cover layer around the perimeter of the first orifice; and a transmission layer; wherein the cover layer comprises: a moisture vapour permeable film; and an adhesive layer pattern spread onto the film; and wherein the cover layer is positioned in contact with the absorbent layer and is configured to transpire a water component of the wound exudate collected in the absorbent layer from the wound dressing through the cover layer. an absorbent layer for absorbing wound exudate; a gas impermeable cover layer overlying the absorbent layer and comprising a first orifice, wherein the cover layer is moisture vapour permeable; a suction port sealed to the cover layer around the perimeter of the first orifice; and a transmission layer; wherein the cover layer comprises: a moisture vapour permeable film; and an adhesive layer pattern spread onto the film; and wherein the cover layer is positioned in contact with the absorbent layer and is configured to transpire a water component of the wound exudate collected in the absorbent layer from the wound dressing through the cover layer. a moisture vapour permeable film; and an adhesive layer pattern spread onto the film; and wherein the cover layer is positioned in contact with the absorbent layer and is configured to transpire a water component of the wound exudate collected in the absorbent layer from the wound dressing through the cover layer.
A locating method for a component , the component having an exterior surface , the method comprising: locating a surface feature on the exterior surface along an X-axis and a Y-axis by analyzing an image of the component to obtain X-axis data points and Y-axis data points for the surface feature ; directly measuring the surface feature along a Z-axis to obtain Z-axis data points for the surface feature , wherein the X-axis , the Y-axis and the Z-axis are mutually orthogonal; and calculating at least two of a pitch value , a roll value or a yaw value for the surface feature ; wherein the at least two of the pitch value , the roll value or the yaw value are calculated based on the Z-axis data points and at least one of the X-axis data points or the Y-axis data points .
A radio signal measurement method, comprising: determining , by a base station, a first resource and a second resource of a first subframe; and sending , by the base station, the first subframe to a user equipment; characterized in that the sending, by the base station, the first subframe to a user equipment comprises sending, by the base station, a signal on each of a time domain resource occupied by the second resource such that one or more cells neighboring the cell corresponding to the base station are prevented from transmitting a signal on the time domain resource, the cells using clear channel assessment, the time domain resource occupied by the second resource comprises a time domain resource occupied by the first resource, wherein the first resource is such that received power of at least some resource elements, REs, on the first resource is used for the user equipment to determine a first measurement quantity of a measured cell, wherein the measured cell is a cell of the base station. determining , by a base station, a first resource and a second resource of a first subframe; and sending , by the base station, the first subframe to a user equipment; characterized in that the sending, by the base station, the first subframe to a user equipment comprises sending, by the base station, a signal on each of a time domain resource occupied by the second resource such that one or more cells neighboring the cell corresponding to the base station are prevented from transmitting a signal on the time domain resource, the cells using clear channel assessment, the time domain resource occupied by the second resource comprises a time domain resource occupied by the first resource, wherein the first resource is such that received power of at least some resource elements, REs, on the first resource is used for the user equipment to determine a first measurement quantity of a measured cell, wherein the measured cell is a cell of the base station.
An image forming apparatus comprising: a developing device to contain a developer, the developer including a toner; a developer cartridge to supply the developer to the developing device ; a toner concentration sensor to sense a toner concentration of the toner included in the developer contained in the developing device ; and characterized in that the image forming apparatus comprises a controller to, during a non-printing operation of the image forming apparatus not printing an image, control a sensor control voltage to adjust an output level of the toner concentration sensor , to control an output of the toner concentration sensor to satisfy a controlling condition, and detect a shape of the output of the toner concentration sensor after the controller controls the sensor control voltage to adjust the output level, and during a printing operation of the image forming apparatus printing the image, adjust the output level of the toner concentration sensor , based on the detected shape of the output of the toner concentration sensor , and adjust supplying the developer from the developer cartridge to the developing device , according to the adjusted output of the toner concentration sensor , to control the toner concentration. a developing device to contain a developer, the developer including a toner; a developer cartridge to supply the developer to the developing device ; a toner concentration sensor to sense a toner concentration of the toner included in the developer contained in the developing device ; and characterized in that the image forming apparatus comprises a controller to, during a non-printing operation of the image forming apparatus not printing an image, control a sensor control voltage to adjust an output level of the toner concentration sensor , to control an output of the toner concentration sensor to satisfy a controlling condition, and detect a shape of the output of the toner concentration sensor after the controller controls the sensor control voltage to adjust the output level, and control a sensor control voltage to adjust an output level of the toner concentration sensor , to control an output of the toner concentration sensor to satisfy a controlling condition, and detect a shape of the output of the toner concentration sensor after the controller controls the sensor control voltage to adjust the output level, and during a printing operation of the image forming apparatus printing the image, adjust the output level of the toner concentration sensor , based on the detected shape of the output of the toner concentration sensor , and adjust supplying the developer from the developer cartridge to the developing device , according to the adjusted output of the toner concentration sensor , to control the toner concentration.
A compound of Formula (I): or a pharmaceutically acceptable salt or solvate thereof; wherein: R 1 is selected from H, -XR 7 , (C 1 -C 6 )alkyl, (C 3 -C 8 )cycloalkyl, and a C-linked 4-6 membered heterocycloalkyl containing 1 to 2 heteroatoms selected from N, O and S; X is selected from -CH 2 -; R 2 is selected from H and -SR 6 ; R 3 is selected from H and halo; R 4 is selected from H and (C 1 -C 3 )alkyl R 5 is selected from H and halo; R 6 is methyl; R 7 is phenyl substituted by hydroxy wherein the hydroxyphenyl is optionally further substituted by halo; provided that if R 2 is H then R 1 is XR 7 . R 1 is selected from H, -XR 7 , (C 1 -C 6 )alkyl, (C 3 -C 8 )cycloalkyl, and a C-linked 4-6 membered heterocycloalkyl containing 1 to 2 heteroatoms selected from N, O and S; X is selected from -CH 2 -; R 2 is selected from H and -SR 6 ; R 3 is selected from H and halo; R 4 is selected from H and (C 1 -C 3 )alkyl R 5 is selected from H and halo; R 6 is methyl; R 7 is phenyl substituted by hydroxy wherein the hydroxyphenyl is optionally further substituted by halo; provided that if R 2 is H then R 1 is XR 7 .
A grease composition for lubricating resins, comprising; abase oil, as a thickener, a diurea compound represented by formula (I): R 1 - NHCONH - R 2 - NHCONH - R 3 wherein R 2 represents a bivalent aromatic hydrocarbon group having 6 to 15 carbon atoms, and R 1 and R 3 each independently represent a straight-chain or branched alkyl group having 8 to 22 carbon atoms, and a chained hydrocarbon polymer having a weight-average molecular weight of 20,000 to 300,000, wherein the chained hydrocarbon polymer is contained in an amount of 0.1 to 10 mass% based on the total mass of the grease composition, and wherein the chained hydrocarbon polymer is selected from the group consisting of unsubstituted or substituted olefin copolymers such as unsubstituted or substituted ethylene propylene copolymers. wherein R 2 represents a bivalent aromatic hydrocarbon group having 6 to 15 carbon atoms, and R 1 and R 3 each independently represent a straight-chain or branched alkyl group having 8 to 22 carbon atoms, and a chained hydrocarbon polymer having a weight-average molecular weight of 20,000 to 300,000, wherein the chained hydrocarbon polymer is contained in an amount of 0.1 to 10 mass% based on the total mass of the grease composition, and wherein the chained hydrocarbon polymer is selected from the group consisting of unsubstituted or substituted olefin copolymers such as unsubstituted or substituted ethylene propylene copolymers.
A modular electrically motorized watercraft , said watercraft comprising: a hull module and a driveline system , said driveline system comprising an electric power module and a driveline module , wherein said driveline module is configured to be arranged at an underside of the hull module , and wherein said modules (20, 30 50) constitute independent sub-assemblies in the form of modules which can be assembled to form said watercraft , and wherein an external side of said hull module forms an open compartment configured to receive said electric power module , wherein the compartment is configured to provide passive water cooling of the electric power module when the electric power module is received in said compartment and allow water to flow therein when the power module is arranged in the compartment to thereby enable the power module to become at least partially submerged in water, wherein the electric power module and the compartment are configured such that there is a slot between the electric power module when the electric power module is arranged in the compartment allowing water splashing over the hull module to fill up the compartment via the slot and thus flow around, surround and at least partially submerge the electric power module providing it with passive cooling, characterised in that said hull module comprises at least one through hole extending through said hull module and being in fluid communication with the compartment , wherein the water that flows into the compartment is allowed to drain through the hull module via said through hole during use of the watercraft . a hull module and a driveline system , said driveline system comprising an electric power module and a driveline module , wherein said driveline module is configured to be arranged at an underside of the hull module , and wherein said modules (20, 30 50) constitute independent sub-assemblies in the form of modules which can be assembled to form said watercraft , and wherein an external side of said hull module forms an open compartment configured to receive said electric power module , wherein the compartment is configured to provide passive water cooling of the electric power module when the electric power module is received in said compartment and allow water to flow therein when the power module is arranged in the compartment to thereby enable the power module to become at least partially submerged in water, wherein the electric power module and the compartment are configured such that there is a slot between the electric power module when the electric power module is arranged in the compartment allowing water splashing over the hull module to fill up the compartment via the slot and thus flow around, surround and at least partially submerge the electric power module providing it with passive cooling, characterised in that said hull module comprises at least one through hole extending through said hull module and being in fluid communication with the compartment , wherein the water that flows into the compartment is allowed to drain through the hull module via said through hole during use of the watercraft .
A compressor module for a heat pump in a household appliance , including a compressor for compressing a circulating refrigerant, a motor for driving said compressor , a casing enclosing said compressor and said motor , an inlet guide for guiding the refrigerant to said compressor and an outlet guide for guiding the refrigerant from said compressor , wherein a heat exchanger is provided for transferring heat from said outlet guide to said inlet guide , characterized in that said casing is part of said outlet guide , and wherein said heat exchanger includes said casing ; and said inlet guide includes a tube coil wound around and contacting said casing , said tube coil included in said heat exchanger . said casing is part of said outlet guide , and wherein said heat exchanger includes said casing ; and said inlet guide includes a tube coil wound around and contacting said casing , said tube coil included in said heat exchanger .
A moon phase display, having: • a display plane in which the current moon phase is displayed, • multiple display elements (10-36) which are each rotatably supported about their longitudinal axis and have a first strip-shaped side face on which an illuminated moon portion is depicted, and a second strip-shaped side face on which no illuminated moon portion is depicted, • wherein each of the display elements (10-36) has a first rotational position in which the first side face is arranged in the display plane, and a second rotational position in which the second side face is arranged in the display plane, • wherein the first side faces together represent the full moon in a full moon position in which all the display elements (10-36) are located in their first rotational position, • a drive which can rotate each of the individual display elements (10-36) independently of the remaining display elements (10-36) about its longitudinal axis, and • a controller which is configured to actuate the drive so that, starting from the full moon position, each one of the display elements (10-36) is rotated into the second rotational position in successive steps until all the display elements (10-36) are located in the second rotational position, so that a gradually waning moon is displayed. • a display plane in which the current moon phase is displayed, • multiple display elements (10-36) which are each rotatably supported about their longitudinal axis and have a first strip-shaped side face on which an illuminated moon portion is depicted, and a second strip-shaped side face on which no illuminated moon portion is depicted, • wherein each of the display elements (10-36) has a first rotational position in which the first side face is arranged in the display plane, and a second rotational position in which the second side face is arranged in the display plane, • wherein the first side faces together represent the full moon in a full moon position in which all the display elements (10-36) are located in their first rotational position, • a drive which can rotate each of the individual display elements (10-36) independently of the remaining display elements (10-36) about its longitudinal axis, and • a controller which is configured to actuate the drive so that, starting from the full moon position, each one of the display elements (10-36) is rotated into the second rotational position in successive steps until all the display elements (10-36) are located in the second rotational position, so that a gradually waning moon is displayed.
A method for deposit mitigation in a gaseous fuel injector that introduces a gaseous fuel through a gaseous fuel orifice directly into a combustion chamber of an internal combustion engine comprising: providing the gaseous fuel orifice with an inlet opening into which the gaseous fuel enters from the gaseous fuel injector, an outlet opening from which the gaseous fuel exits into the combustion chamber , an inwardly and substantially linearly tapering profile and with a difference between an outlet-opening diameter (d2) of the outlet opening and an inlet-opening diameter (d1) of the inlet opening in a range between 3 micrometers and 50 micrometers; wherein the gaseous fuel is in a gas state and a mass flow rate of gaseous fuel through the gaseous fuel orifice at a predetermined injection pressure is above a predetermined value such that torque loss in the internal combustion engine due to deposit accumulation in the gaseous fuel orifice is reduced after a break-in period, wherein the break-in period is the amount of time it takes for the rate of torque loss to diminish to a predetermined value, preferably zero. providing the gaseous fuel orifice with an inlet opening into which the gaseous fuel enters from the gaseous fuel injector, an outlet opening from which the gaseous fuel exits into the combustion chamber , an inwardly and substantially linearly tapering profile and with a difference between an outlet-opening diameter (d2) of the outlet opening and an inlet-opening diameter (d1) of the inlet opening in a range between 3 micrometers and 50 micrometers; wherein the gaseous fuel is in a gas state and a mass flow rate of gaseous fuel through the gaseous fuel orifice at a predetermined injection pressure is above a predetermined value such that torque loss in the internal combustion engine due to deposit accumulation in the gaseous fuel orifice is reduced after a break-in period, wherein the break-in period is the amount of time it takes for the rate of torque loss to diminish to a predetermined value, preferably zero.
Electric or hybrid vehicle including an electric motor for driving the vehicle, an electrical source for powering the motor by at least one range extender , including at least one auxiliary connector for powering an electrical member (A), a distribution device receiving at least one range extender and connection information from the auxiliary connector indicating the presence of the electrical member (A) plugged into the auxiliary connector , the distribution device including switching means for then connecting the auxiliary connector to at least one of the available range extenders , and including a recharging connector for powering the battery by an external current source, the distribution device disconnecting the external current source when the range extender of the battery is connected.
An apparatus comprising: a humidity sensing component configured to generate a humidity level indication associated with a gaseous substance in a gas flow channel , wherein the gaseous substance in the gas flow channel comprises water vapor; a dehumidifier component disposed along the gas flow channel , wherein the dehumidifier component comprises a cooling element in contact with the gaseous substance in the gas flow channel , wherein the cooling element is configured to decrease a temperature level in the gas flow channel ; a gas detecting component disposed downstream with respect to the dehumidifier component along the gas flow channel ; and a controller component in electronic communication with the humidity sensing component and the dehumidifier component , wherein the controller component is configured to activate the dehumidifier component including the cooling element , characterized in that the dehumidifier component further comprises a filter component disposed underneath the cooling element in the gas flow channel , and in a vertical water channel , wherein the gas flow channel intersects at least a portion of the vertical water channel defining a passage through which water vapor can be expelled from the apparatus without coming in contact with the humidity sensing component and the gas detecting component , and wherein the cooling element , when activated, causes water vapor to condense on a surface of the filter component . a humidity sensing component configured to generate a humidity level indication associated with a gaseous substance in a gas flow channel , wherein the gaseous substance in the gas flow channel comprises water vapor; a dehumidifier component disposed along the gas flow channel , wherein the dehumidifier component comprises a cooling element in contact with the gaseous substance in the gas flow channel , wherein the cooling element is configured to decrease a temperature level in the gas flow channel ; a gas detecting component disposed downstream with respect to the dehumidifier component along the gas flow channel ; and a controller component in electronic communication with the humidity sensing component and the dehumidifier component , wherein the controller component is configured to activate the dehumidifier component including the cooling element , characterized in that the dehumidifier component further comprises a filter component disposed underneath the cooling element in the gas flow channel , and in a vertical water channel , wherein the gas flow channel intersects at least a portion of the vertical water channel defining a passage through which water vapor can be expelled from the apparatus without coming in contact with the humidity sensing component and the gas detecting component , and wherein the cooling element , when activated, causes water vapor to condense on a surface of the filter component .