mhurhangee/patent-ind-claim-en huggingface dataset:
A processor-implemented method comprising: displaying two or more user interface controls at a surface of an electronic device , the surface being further optically reflective; detecting an alignment between a reflected image optically reflected on the optically reflective surface of the electronic device toward a user of the electronic device , and a physical location on the optically reflective surface at which a user interface control of the two or more user interface controls is displayed, wherein the reflected image is an optically reflected image from a source external to the electronic device and is not electronically generated or electronically displayed by the electronic device , is observed by the user from a respective observation point of the user , and is optically aligned by the user with the physical location on the reflective surface to select the displayed user interface control; detecting a selection action while the alignment is maintained; and activating the user interface control responsive to the detected alignment and the detected selection action. displaying two or more user interface controls at a surface of an electronic device , the surface being further optically reflective; detecting an alignment between a reflected image optically reflected on the optically reflective surface of the electronic device toward a user of the electronic device , and a physical location on the optically reflective surface at which a user interface control of the two or more user interface controls is displayed, wherein the reflected image is an optically reflected image from a source external to the electronic device and is not electronically generated or electronically displayed by the electronic device , is observed by the user from a respective observation point of the user , and is optically aligned by the user with the physical location on the reflective surface to select the displayed user interface control; detecting a selection action while the alignment is maintained; and activating the user interface control responsive to the detected alignment and the detected selection action.
A laundry detergent, laundry aftertreatment or laundry care composition, in particular a liquid laundry detergent, characterized in that the composition contains, based on the total weight, from 0.01 to 30% by weight, preferably from 0.1 to 4% by weight, of at least one propylene glycol ester corresponding to formula (I): where X 1 is -OH and X 2 is where R 2 is an alkyl having 5-35 carbon atoms or an alkenyl having 5-35 carbon atoms. X 1 is -OH and X 2 is where R 2 is an alkyl having 5-35 carbon atoms or an alkenyl having 5-35 carbon atoms.
A reciprocating compressor comprising: a cylinder block including a cylinder that defines a cylindrical bore extending longitudinally along a bore axis , the cylinder block including a hollow chamber extending longitudinally along a chamber axis , which is non-intersecting relative to the bore axis ; a valve assembly disposed in the hollow chamber , the valve assembly comprising an axially-stacked arrangement of components extending along the chamber axis , the axially-stacked arrangement of components spaced apart from a wall that forms a perimeter of the cylinder, and thus free from mechanical interference with the perimeter of the cylinder; an inlet passageway formed in the cylinder block , wherein the axially-stacked arrangement of components includes a suction valve in fluid communication with the inlet passageway ; an outlet passageway formed in the cylinder block , wherein the axially-stacked arrangement of components includes a discharge valve in fluid communication with the outlet passageway ; wherein the axially-stacked arrangement of components includes a spacer interposed between the suction valve and the discharge valve ; and characterized in that a perimeter fluid seal is disposed at a perimeter joint between the suction valve and the spacer . a cylinder block including a cylinder that defines a cylindrical bore extending longitudinally along a bore axis , the cylinder block including a hollow chamber extending longitudinally along a chamber axis , which is non-intersecting relative to the bore axis ; a valve assembly disposed in the hollow chamber , the valve assembly comprising an axially-stacked arrangement of components extending along the chamber axis , the axially-stacked arrangement of components spaced apart from a wall that forms a perimeter of the cylinder, and thus free from mechanical interference with the perimeter of the cylinder; an inlet passageway formed in the cylinder block , wherein the axially-stacked arrangement of components includes a suction valve in fluid communication with the inlet passageway ; an outlet passageway formed in the cylinder block , wherein the axially-stacked arrangement of components includes a discharge valve in fluid communication with the outlet passageway ; wherein the axially-stacked arrangement of components includes a spacer interposed between the suction valve and the discharge valve ; and characterized in that a perimeter fluid seal is disposed at a perimeter joint between the suction valve and the spacer .
A pin comprising a tool engagement portion and a resiliently deformable cover arranged over the tool engagement portion , wherein the resiliently deformable cover is operable to deform from a first raised position to a second lowered position to allow for the engagement of the tool engagement portion with a tool ; characterised in that ; the resiliently deformable cover in the first position comprises a ridge of resiliently deformable material, the ridge extending at least partially around substantially the periphery of the tool engagement portion .
The loudspeaker unit comprising an electrodynamic loudspeaker designed as a woofer and a MEMS loudspeaker designed as a tweeter, been integrated into the electrodynamic loudspeaker characterized in that the two loudspeakers share the same diaphragm , such that the diaphragm can be actuated by both the electrodynamic loudspeaker and the MEMS loudspeaker . comprising an electrodynamic loudspeaker designed as a woofer and a MEMS loudspeaker designed as a tweeter, been integrated into the electrodynamic loudspeaker characterized in that the two loudspeakers share the same diaphragm , such that the diaphragm can be actuated by both the electrodynamic loudspeaker and the MEMS loudspeaker .
A water meter platform , including: - a housing component being a monolithic polymer structure , the housing component providing: - a flow tube having a flow channel extending between an inlet and an outlet , - a sealable main compartment sharing a common wall with the flow tube, - a flow channel interface in fluid communication with the flow channel, and - a self-contained power supply ; - a meter unit including a measurement circuit having one or more ultrasonic transducers for measuring a flow of a fluid flowing through the flow tube; characterized in that a remote controllable valve unit is arranged in association with the flow channel interface and configured to interrupt flow through the flow tube; the flow channel interface is defined inside the main compartment and is defined by a circumferential wall extending from the common wall between the main compartment and the flow tube, and in that the meter unit , the valve unit and the self-contained power supply for powering both the meter unit and the valve unit are arranged inside the main compartment . - a housing component being a monolithic polymer structure , the housing component providing: - a flow tube having a flow channel extending between an inlet and an outlet , - a sealable main compartment sharing a common wall with the flow tube, - a flow channel interface in fluid communication with the flow channel, and - a self-contained power supply ; - a flow tube having a flow channel extending between an inlet and an outlet , - a sealable main compartment sharing a common wall with the flow tube, - a flow channel interface in fluid communication with the flow channel, and - a self-contained power supply ; - a meter unit including a measurement circuit having one or more ultrasonic transducers for measuring a flow of a fluid flowing through the flow tube; characterized in that a remote controllable valve unit is arranged in association with the flow channel interface and configured to interrupt flow through the flow tube; the flow channel interface is defined inside the main compartment and is defined by a circumferential wall extending from the common wall between the main compartment and the flow tube, and in that the meter unit , the valve unit and the self-contained power supply for powering both the meter unit and the valve unit are arranged inside the main compartment .
A method of sidelink unicast service management in an access stratum layer for a first user equipment, UE, the method comprising: receiving , by the first UE through a PC5 interface, a sidelink unicast configuration associated with a second UE, from the second UE; transmitting , by the first UE through a Radio Resource Control, RRC, signaling of the PC5 interface, a sidelink unicast link problem report with a failure cause `PC5 Access Stratum, AS, Configuration Failure', to the second UE in responsive to that the first UE is unable to comply with all or part of the sidelink unicast configuration in an RRC layer, while a radio link failure is not triggered between the first UE and the second UE; and performing , by the first UE, a sidelink unicast fallback procedure with the second UE by continuously using a sidelink unicast configuration setting of the first UE with corresponding configurations in a sidelink unicast pre-configuration used prior to the received sidelink unicast configuration, wherein the sidelink unicast pre-configuration includes a sidelink radio bearer configuration. receiving , by the first UE through a PC5 interface, a sidelink unicast configuration associated with a second UE, from the second UE; transmitting , by the first UE through a Radio Resource Control, RRC, signaling of the PC5 interface, a sidelink unicast link problem report with a failure cause `PC5 Access Stratum, AS, Configuration Failure', to the second UE in responsive to that the first UE is unable to comply with all or part of the sidelink unicast configuration in an RRC layer, while a radio link failure is not triggered between the first UE and the second UE; and performing , by the first UE, a sidelink unicast fallback procedure with the second UE by continuously using a sidelink unicast configuration setting of the first UE with corresponding configurations in a sidelink unicast pre-configuration used prior to the received sidelink unicast configuration, wherein the sidelink unicast pre-configuration includes a sidelink radio bearer configuration.
A device for rendering two-dimensional,2D, imagery from three-dimensional, 3D, model data, the device comprising: a fine rasterizing component configured to employ multiple screen image samples (888, 888a-c, 888e-g, 888i-k) per screen image pixel of a screen image to perform fine rasterization of a 3D model to identify a set of visible primitives of the 3D model that are visible from a perspective of the screen image ; a coarse rasterizing component configured to employ a single shading image sample per shading image pixel of a shading image that corresponds to the screen image to perform coarse rasterization of the 3D model from the perspective of the screen image to identify all primitives of the 3D model that exist along a path of a shading image sample associated with a shading image pixel , wherein the shading image sample is widened to cover the entire area of the shading image that is covered by the shading image pixel , and wherein the shading image sample is projected normal to the same plane as the screen image samples (888, 888a-c, 888e-g, 888i-k) such that the paths of the shading image sample and the screen image samples (888, 888a-c, 888e-g, 888i-k) are projected in parallel to each other; and a shading component configured to shade a primitive identified by a screen image sample (888, 888a-c, 888e-g, 888i-k) of a first screen image pixel as visible within the shading image pixel and identified as along the path of the shading image sample associated with the shading image pixel to derive a first color value. a fine rasterizing component configured to employ multiple screen image samples (888, 888a-c, 888e-g, 888i-k) per screen image pixel of a screen image to perform fine rasterization of a 3D model to identify a set of visible primitives of the 3D model that are visible from a perspective of the screen image ; a coarse rasterizing component configured to employ a single shading image sample per shading image pixel of a shading image that corresponds to the screen image to perform coarse rasterization of the 3D model from the perspective of the screen image to identify all primitives of the 3D model that exist along a path of a shading image sample associated with a shading image pixel , wherein the shading image sample is widened to cover the entire area of the shading image that is covered by the shading image pixel , and wherein the shading image sample is projected normal to the same plane as the screen image samples (888, 888a-c, 888e-g, 888i-k) such that the paths of the shading image sample and the screen image samples (888, 888a-c, 888e-g, 888i-k) are projected in parallel to each other; and a shading component configured to shade a primitive identified by a screen image sample (888, 888a-c, 888e-g, 888i-k) of a first screen image pixel as visible within the shading image pixel and identified as along the path of the shading image sample associated with the shading image pixel to derive a first color value.
Apparatus, comprising: a catheter having a distal end and a predefined outer diameter (d); and a plurality of elastic filaments , each filament being formed from a conductive element, having at least one electrode fixed thereto, and having two ends fixed within the catheter distal end to hold the filament as a loop, which intertwines with one or more other loops of the other filaments so that the plurality of the filaments forms an open lattice , which expands when uncompressed to a lattice diameter (D) at least five times greater than the outer diameter of the catheter, wherein: the lattice diameter (D) comprises a largest distance between selected sections of the plurality of elastic filaments; the open lattice when uncompressed comprises open spaces between the intertwined filaments ; and a ratio of a first total area defined by the open spaces and a second total area defined by the filaments is at least 5:1. a catheter having a distal end and a predefined outer diameter (d); and a plurality of elastic filaments , each filament being formed from a conductive element, having at least one electrode fixed thereto, and having two ends fixed within the catheter distal end to hold the filament as a loop, which intertwines with one or more other loops of the other filaments so that the plurality of the filaments forms an open lattice , which expands when uncompressed to a lattice diameter (D) at least five times greater than the outer diameter of the catheter, wherein: the lattice diameter (D) comprises a largest distance between selected sections of the plurality of elastic filaments; the open lattice when uncompressed comprises open spaces between the intertwined filaments ; and a ratio of a first total area defined by the open spaces and a second total area defined by the filaments is at least 5:1. the lattice diameter (D) comprises a largest distance between selected sections of the plurality of elastic filaments; the open lattice when uncompressed comprises open spaces between the intertwined filaments ; and a ratio of a first total area defined by the open spaces and a second total area defined by the filaments is at least 5:1.
Apparatus comprising: a cartridge configured to contain building material to be selectively dispensed by an additive manufacturing (AM) system, said cartridge including a front end and a back end, wherein said back end includes a fluidic connection for connecting said cartridge to a dispensing unit of said AM system; and a cartridge nest for storing said cartridge, wherein said cartridge is configured to be mounted in said nest at an angle such that said front end of said cartridge is elevated with respect to said back end; characterized in that said cartridge further includes a vent to the atmosphere, wherein said cartridge is shaped to include, at the lowest area of the cartridge and in proximity to said fluidic connection, a recession configured to accumulate a portion of said building material contained in said cartridge. a cartridge configured to contain building material to be selectively dispensed by an additive manufacturing (AM) system, said cartridge including a front end and a back end, wherein said back end includes a fluidic connection for connecting said cartridge to a dispensing unit of said AM system; and a cartridge nest for storing said cartridge, wherein said cartridge is configured to be mounted in said nest at an angle such that said front end of said cartridge is elevated with respect to said back end; characterized in that said cartridge further includes a vent to the atmosphere, wherein said cartridge is shaped to include, at the lowest area of the cartridge and in proximity to said fluidic connection, a recession configured to accumulate a portion of said building material contained in said cartridge.
A reaction system for multiphase reactions having at least three phases, said reaction system comprising: a stirred tank reaction vessel comprising a rotatable impeller shaft having thereon at least one impeller blade, said rotatable impeller shaft being rotatably affixed to a catalytic article, said catalytic article comprising a porous fibrillated polymer membrane that includes supported catalyst particles durably enmeshed within the porous fibrillated polymer membrane; wherein during use the reaction system comprises: a liquid phase comprising at least one liquid phase reactant; and a gas phase comprising at least one gas phase reactant, wherein the porous fibrillated polymer membrane is in the form of diced tape. a stirred tank reaction vessel comprising a rotatable impeller shaft having thereon at least one impeller blade, said rotatable impeller shaft being rotatably affixed to a catalytic article, said catalytic article comprising a porous fibrillated polymer membrane that includes supported catalyst particles durably enmeshed within the porous fibrillated polymer membrane; wherein during use the reaction system comprises: a liquid phase comprising at least one liquid phase reactant; and a gas phase comprising at least one gas phase reactant, wherein the porous fibrillated polymer membrane is in the form of diced tape. a liquid phase comprising at least one liquid phase reactant; and a gas phase comprising at least one gas phase reactant, wherein the porous fibrillated polymer membrane is in the form of diced tape.
Inhaler , preferably for insertion into a nostril , in particular of a horse , with a discharge nozzle and a respiration indicator , wherein the inhaler has a chamber wall forming a chamber and a dispensing device for fluidic connection of the chamber to a body opening, preferably the nostril , wherein the chamber is formed from a dimensionally stable material, wherein the chamber comprises an intake opening and the dispensing device comprises an outlet , wherein the inhaler is closed and/or airtight between the intake opening and the outlet , wherein the chamber is designed for intermediate storage of an aerosol that is realized by the inhaler , and wherein the respiration indicator comprises a wall section of the chamber wall or is formed thereby, wherein the wall section is flexible and configured to indicate a respiratory activity by deformation and/or movement, characterized in that the wall section has a surface area that is more than 2 cm 2 and less than 25 cm 2 , and/or in that the wall section is curved with a material excess increasing inward, whereby the wall section is adapted to occupy two stable states, in each of which the wall section is curved. wherein the chamber comprises an intake opening and the dispensing device comprises an outlet , wherein the inhaler is closed and/or airtight between the intake opening and the outlet , wherein the chamber is designed for intermediate storage of an aerosol that is realized by the inhaler , and wherein the respiration indicator comprises a wall section of the chamber wall or is formed thereby, wherein the wall section is flexible and configured to indicate a respiratory activity by deformation and/or movement, characterized in that the wall section has a surface area that is more than 2 cm 2 and less than 25 cm 2 , and/or in that the wall section is curved with a material excess increasing inward, whereby the wall section is adapted to occupy two stable states, in each of which the wall section is curved.
A phase adjustment method for a rotation angle sensor configured to detect a rotation angle of a rotor of a brushless motor , the phase adjustment method comprising: measuring a first rotation speed and a second rotation speed when the brushless motor is driven with a same torque command current to rotate clockwise and counterclockwise, respectively, on a basis of the rotation angle of the rotor detected by the rotation angle sensor; characterized by calculating a rotation speed difference (Δω) between the first rotation speed and the second rotation speed; and calculating a correction value to correct a phase of the rotation angle sensor whereby an angular alignment amount (Δθ) corresponding to the rotation speed difference (Δω) is acquired as the correction value from a characteristic map of the angular alignment amount (ΔΘ) with respect to the rotation speed difference (Δw). measuring a first rotation speed and a second rotation speed when the brushless motor is driven with a same torque command current to rotate clockwise and counterclockwise, respectively, on a basis of the rotation angle of the rotor detected by the rotation angle sensor; characterized by calculating a rotation speed difference (Δω) between the first rotation speed and the second rotation speed; and calculating a correction value to correct a phase of the rotation angle sensor whereby an angular alignment amount (Δθ) corresponding to the rotation speed difference (Δω) is acquired as the correction value from a characteristic map of the angular alignment amount (ΔΘ) with respect to the rotation speed difference (Δw).