mhurhangee/patent-ind-claim-en huggingface dataset:
A method for controlling a touch display device , the method using a control apparatus and comprising: obtaining, when applications having a region within which the applications are overlapped with each other are displayed on the touch display device , information that one application of the applications is displayed to cover one or more other applications of the applications within the region; determining, based on the obtained information, touch sensing cycles for at least two touch sensors among a plurality of touch sensors embedded in the touch display device to be different from each other, each of said at least two touch sensors sensing a corresponding part within an entire region where the applications are displayed on the touch display device , wherein the touch sensing cycles are expressed in times per minute; and controlling each of said at least two touch sensors to perform a sensing operation based on its touch sensing cycle, wherein said determining comprises, when said one application is displayed to cover the one or more other applications within the region, determining a touch sensing cycle for a sensor of said at least two touch sensors to sense a touch on the region where said one application is displayed but the one or more other applications are not displayed to be higher than a touch sensing cycle for another sensor of said at least two touch sensors to sense a touch on another region where the one or more other application is displayed but said one application is not displayed. obtaining, when applications having a region within which the applications are overlapped with each other are displayed on the touch display device , information that one application of the applications is displayed to cover one or more other applications of the applications within the region; determining, based on the obtained information, touch sensing cycles for at least two touch sensors among a plurality of touch sensors embedded in the touch display device to be different from each other, each of said at least two touch sensors sensing a corresponding part within an entire region where the applications are displayed on the touch display device , wherein the touch sensing cycles are expressed in times per minute; and controlling each of said at least two touch sensors to perform a sensing operation based on its touch sensing cycle, wherein said determining comprises, when said one application is displayed to cover the one or more other applications within the region, determining a touch sensing cycle for a sensor of said at least two touch sensors to sense a touch on the region where said one application is displayed but the one or more other applications are not displayed to be higher than a touch sensing cycle for another sensor of said at least two touch sensors to sense a touch on another region where the one or more other application is displayed but said one application is not displayed.
A magnetic separation device comprising: at least one magnetic element configured to produce a magnetic field; and a first support portion ; and a base comprising a support structure and a pair of lateral support members at opposite ends of the support structure ; wherein the base comprises a central support member extending between the pair of lateral support members from one end of the opposite ends of the support structure to the opposite end, along a length of the support structure, wherein the magnetic element is supported by the central support member of the base ; and the central support member supports a plurality of magnetic elements oriented in a plurality of columns, each column defined by a separating axis; and the first support portion includes a threaded opening that extends entirely through the first support portion , wherein the threaded opening is configured to threadingly receive a threaded portion of a container to fixedly attach the container to the first support portion in an aligned orientation with respect to a column of magnetic elements, wherein the threaded opening is configured to retain the container in the aligned orientation when inverting the magnetic separation device, wherein the first support portion is removably attached to the base. at least one magnetic element configured to produce a magnetic field; and a first support portion ; and a base comprising a support structure and a pair of lateral support members at opposite ends of the support structure ; wherein the base comprises a central support member extending between the pair of lateral support members from one end of the opposite ends of the support structure to the opposite end, along a length of the support structure, wherein the magnetic element is supported by the central support member of the base ; and the central support member supports a plurality of magnetic elements oriented in a plurality of columns, each column defined by a separating axis; and the first support portion includes a threaded opening that extends entirely through the first support portion , wherein the threaded opening is configured to threadingly receive a threaded portion of a container to fixedly attach the container to the first support portion in an aligned orientation with respect to a column of magnetic elements, wherein the threaded opening is configured to retain the container in the aligned orientation when inverting the magnetic separation device, wherein the first support portion is removably attached to the base.
A soft chewable dosage form comprising a first active pharmaceutical ingredient encapsulated in a lipid material/matrix, wherein the lipid material comprises a primary lipid and a second lipid, wherein the second lipid is medium-chain triglycerides (MCT), wherein the lipid encapsulated active pharmaceutical ingredient is embedded in the soft chewable dosage form, and wherein the soft chewable dosage form comprises at least a second active pharmaceutical ingredient.
A composite polystyrene profile extending longitudinally from a first end to a second end and comprising a front surface and a back surface , comprising a. a core portion comprising a polystyrene monopolymer foam extending in said longitudinal direction, said core portion comprising polystyrene foam with a density of the range of 160kg/m 3 to 240kg/m 3 ; b. a skin portion comprising/consisting of a high impact polystyrene copolymer and surrounding said core portion at least in said longitudinal direction, with a density in the range of 700kg/m 3 to 1300kg/m 3 ; wherein - said polystyrene profile comprises a combined density within the range of 200 to 360 kg/m 3 ; and - said skin portion comprises a non-uniform thickness in a transversal direction perpendicular to said longitudinal direction. a. a core portion comprising a polystyrene monopolymer foam extending in said longitudinal direction, said core portion comprising polystyrene foam with a density of the range of 160kg/m 3 to 240kg/m 3 ; b. a skin portion comprising/consisting of a high impact polystyrene copolymer and surrounding said core portion at least in said longitudinal direction, with a density in the range of 700kg/m 3 to 1300kg/m 3 ; - said polystyrene profile comprises a combined density within the range of 200 to 360 kg/m 3 ; and - said skin portion comprises a non-uniform thickness in a transversal direction perpendicular to said longitudinal direction.
A woven or weft knitted conducting fabric comprising at least two yarns adapted to carry an electric power supply, and a conducting yarn of the fabric that intersects said at least two yarns adapted to carry an electric power supply and that is welded at intersections with said at least two yarns adapted to carry an electric power supply, in order to define areas of said fabric that are adapted to be supplied with power, characterized in that said conducting yarn of the fabric that intersects said at least two yarns adapted to carry an electric power supply is a continuous single yarn.
An electrical connector comprising: a front housing holding a plurality of contacts , the front housing holding a cutting blade proximate to a rear of the front housing ; and a rear housing having a wire organizer at a front of the rear housing , the wire organizer having a plurality of wire channels that extend along wire chanel axes and are configured to receive corresponding wires therein; wherein the cutting blade is configured to trim the wires extending from the wire organizer during mating of the rear housing with the front housing and the wires are terminated to the contacts when the front housing and the rear housing are mated; wherein the rear housing has an outer support wall spaced apart from, and arranged outward of, the wire channels , the outer support wall having a front edge across which the channel axes extend such that the front edge defines a support surface for the wires when the wires are laced into the wire organizer , wherein the cutting blade is configured such that the cutting blade is positioned between the outer support wall and the wire organizer when the front housing and the rear housing are mated. a front housing holding a plurality of contacts , the front housing holding a cutting blade proximate to a rear of the front housing ; and a rear housing having a wire organizer at a front of the rear housing , the wire organizer having a plurality of wire channels that extend along wire chanel axes and are configured to receive corresponding wires therein; wherein the cutting blade is configured to trim the wires extending from the wire organizer during mating of the rear housing with the front housing and the wires are terminated to the contacts when the front housing and the rear housing are mated; wherein the rear housing has an outer support wall spaced apart from, and arranged outward of, the wire channels , the outer support wall having a front edge across which the channel axes extend such that the front edge defines a support surface for the wires when the wires are laced into the wire organizer , wherein the cutting blade is configured such that the cutting blade is positioned between the outer support wall and the wire organizer when the front housing and the rear housing are mated.
A method for demultiplexing a signal, r tot(t) , wherein said signal, r tot (t), is a sum of at least two sub-signals r 1 (t), r 2 (t), ..., wherein each sub-signal comprises a different repetitive pattern, the method comprising: - sampling the signal, r tot (t), during a time period, T obs , wherein the time period, T obs , is such that the different repetitive patterns of each sub-signal occur at least once in said time period and wherein the at least two sub-signals are periodic during the time period, T obs , each with a different periodicity being an integer multiple of or equal to an observation frequency defined by ƒ = 1 / T obs ; - periodically expanding the sampled signal, r tot (t), in a Fourier series and obtaining different complex spectral components of the periodically expanded signal, r Ptot (t). - sampling the signal, r tot (t), during a time period, T obs , wherein the time period, T obs , is such that the different repetitive patterns of each sub-signal occur at least once in said time period and wherein the at least two sub-signals are periodic during the time period, T obs , each with a different periodicity being an integer multiple of or equal to an observation frequency defined by ƒ = 1 / T obs ; - periodically expanding the sampled signal, r tot (t), in a Fourier series and obtaining different complex spectral components of the periodically expanded signal, r Ptot (t).
A vehicle driving controller , comprising: a processor configured to: apply a different warning level depending on at least one of a driving situation or a user state including at least one of a "hands-off" state, an "eyes-off" state, or a "mind-off" state, during autonomous driving; and provide a notification of a control authority transition demand to a user; and a storage configured to store information regarding the driving situation and the user state, and information regarding the different warning level, wherein the processor is configured to: apply the different warning level depending on an expected time of collision risk or an expected time of deviation of an operational design domain (ODD), when the processor applies the different warning level depending on the driving situation; and determine a different minimum risk maneuver (MRM) depending on the applied different warning level when a control authority is not handed over to the user after providing the notification of the control authority transition demand depending on the applied different warning level and perform vehicle control depending on the determined MRM. apply a different warning level depending on at least one of a driving situation or a user state including at least one of a "hands-off" state, an "eyes-off" state, or a "mind-off" state, during autonomous driving; and provide a notification of a control authority transition demand to a user; and a storage configured to store information regarding the driving situation and the user state, and information regarding the different warning level, wherein the processor is configured to: apply the different warning level depending on an expected time of collision risk or an expected time of deviation of an operational design domain (ODD), when the processor applies the different warning level depending on the driving situation; and determine a different minimum risk maneuver (MRM) depending on the applied different warning level when a control authority is not handed over to the user after providing the notification of the control authority transition demand depending on the applied different warning level and perform vehicle control depending on the determined MRM. apply the different warning level depending on an expected time of collision risk or an expected time of deviation of an operational design domain (ODD), when the processor applies the different warning level depending on the driving situation; and determine a different minimum risk maneuver (MRM) depending on the applied different warning level when a control authority is not handed over to the user after providing the notification of the control authority transition demand depending on the applied different warning level and perform vehicle control depending on the determined MRM.
Ventilation device intended to generate an air flow through at least one motor-vehicle heat exchanger , comprising at least a first and a second tangential fan for moving an air flow (F) intended to traverse the at least one heat exchanger , the at least two fans being arranged such as to be aligned with one another in the ventilation device along their axis of rotation (X), said device being such that it also comprises a first driving motor for the first and second tangential fans , and characterized in that the first driving motor is designed to be seated between the first and second tangential fans .
A method for a respiratory therapy device configured to operate alternatively with a high-power power supply and a low-power power supply (4210-ALT), the method comprising determining an operation mode depending on a power level of the power supply attached to the respiratory therapy apparatus, and powering a first operation mode of the respiratory therapy device using a universal serial bus cable and universal serial bus power supply, wherein the universal serial bus power supply is the low-power power supply, and wherein the first operation mode comprises accessing and/or downloading data of the respiratory therapy device. determining an operation mode depending on a power level of the power supply attached to the respiratory therapy apparatus, and powering a first operation mode of the respiratory therapy device using a universal serial bus cable and universal serial bus power supply, wherein the universal serial bus power supply is the low-power power supply, and wherein the first operation mode comprises accessing and/or downloading data of the respiratory therapy device.
Apparatus for determining an estimated value of the contents temperature of the contents of a container ; wherein the apparatus comprises, - the container for accommodating the contents ; - a temperature control unit , which is configured to generate or to withdraw thermal energy in order to control the temperature of the container from at least one side of the container ; - a base temperature sensor , which is configured to acquire temperature data with regard to the container , which is arranged in such a way that the thermal energy generated or withdrawn by the temperature control unit influences the base temperature sensor ; and - a processing unit , which is configured, - on the basis of the temperature data , to determine a value of a base temperature shown by the temperature data ; characterised in that the processing unit is further configured, - to determine a correction factor dependent on the value of the base temperature determined; - to multiply by the energy data shown the amount of energy of the thermal energy generated or withdrawn in order to determine a correction value for the base temperature ; and - to correct with the correction value the value of the base temperature determined, in order to determine the estimated value of the contents temperature of the contents of the container . - the container for accommodating the contents ; - a temperature control unit , which is configured to generate or to withdraw thermal energy in order to control the temperature of the container from at least one side of the container ; - a base temperature sensor , which is configured to acquire temperature data with regard to the container , which is arranged in such a way that the thermal energy generated or withdrawn by the temperature control unit influences the base temperature sensor ; and - a processing unit , which is configured, - on the basis of the temperature data , to determine a value of a base temperature shown by the temperature data ; - on the basis of the temperature data , to determine a value of a base temperature shown by the temperature data ; - to determine a correction factor dependent on the value of the base temperature determined; - to multiply by the energy data shown the amount of energy of the thermal energy generated or withdrawn in order to determine a correction value for the base temperature ; and - to correct with the correction value the value of the base temperature determined, in order to determine the estimated value of the contents temperature of the contents of the container .
An unmanned aerial vehicle system comprising a first multi-rotor carrier aircraft and a carried aircraft , wherein the first carrier aircraft comprises: an airframe ; a plurality of rotors carried by the airframe, the plurality of rotors being positioned to support the first carrier aircraft in hover; a battery carried by the airframe and operatively coupled to the rotors to power the rotors; a launch fixture positioned to releasably attach to the carried aircraft, the carried aircraft having a capture device, wherein the launch fixture includes a pivoting portion positioned to be engaged with the carried aircraft, and a plunger movable relative to the airframe and positioned to pivot the carried aircraft relative to the airframe; and a capture line carried by the first carrier aircraft and deployable to hang from the first carrier aircraft, the capture line being sized to releasably engage with the capture device of the carried aircraft. an airframe ; a plurality of rotors carried by the airframe, the plurality of rotors being positioned to support the first carrier aircraft in hover; a battery carried by the airframe and operatively coupled to the rotors to power the rotors; a launch fixture positioned to releasably attach to the carried aircraft, the carried aircraft having a capture device, wherein the launch fixture includes a pivoting portion positioned to be engaged with the carried aircraft, and a plunger movable relative to the airframe and positioned to pivot the carried aircraft relative to the airframe; and a capture line carried by the first carrier aircraft and deployable to hang from the first carrier aircraft, the capture line being sized to releasably engage with the capture device of the carried aircraft.
A data generation apparatus for generating first metadata to be associated with a virtual sensor, the virtual sensor being configured to receive input sensing data obtained by a real sensor sensing a target and to output new sensing data, the data generation apparatus comprising: an obtaining unit configured to obtain second metadata about the real sensor; a reception unit configured to receive tentatively input first metadata from a user; a determination unit configured to determine consistency between the first metadata tentatively input through the reception unit and the second metadata obtained by the obtaining unit ; and a generation unit configured to generate final first metadata based on a determination result obtained by the determination unit . an obtaining unit configured to obtain second metadata about the real sensor; a reception unit configured to receive tentatively input first metadata from a user; a determination unit configured to determine consistency between the first metadata tentatively input through the reception unit and the second metadata obtained by the obtaining unit ; and a generation unit configured to generate final first metadata based on a determination result obtained by the determination unit .
A method of evaluating near range communications quality in an environment, the method comprising: obtaining 3D data describing an environment from a first data source; processing the 3D data describing the environment to generate a ground-plane data set describing a ground-plane of the environment, and a 3D object data set describing 3D objects in the environment, wherein processing the 3D data comprises selecting 3D data to extract from the first data source to generate the ground-plane data set and the 3D object data set; obtaining 2D data describing the environment from a second data source, and selecting 2D data from the second data source to combine with the ground-plane data set and/or the 3D object data set to improve the ground-plane data set and/or 3D object data set; using the ground-plane data set and the 3D object data set to compute a propagation path between a first location and a second location in the environment; computing a near range communications quality characteristic of the propagation path; and using the computed near range communications quality characteristic to automatically reconfigure a local or remote device. obtaining 3D data describing an environment from a first data source; processing the 3D data describing the environment to generate a ground-plane data set describing a ground-plane of the environment, and a 3D object data set describing 3D objects in the environment, wherein processing the 3D data comprises selecting 3D data to extract from the first data source to generate the ground-plane data set and the 3D object data set; obtaining 2D data describing the environment from a second data source, and selecting 2D data from the second data source to combine with the ground-plane data set and/or the 3D object data set to improve the ground-plane data set and/or 3D object data set; using the ground-plane data set and the 3D object data set to compute a propagation path between a first location and a second location in the environment; computing a near range communications quality characteristic of the propagation path; and using the computed near range communications quality characteristic to automatically reconfigure a local or remote device.