mhurhangee/patent-ind-claim-en huggingface dataset:
A device for the administration of a cosmetic product, characterized in that it comprises: - a first holder for a pressurized gas cartridge , - a second holder for a cosmetic product container , - flow rate regulating means , - an outlet nozzle , - heating means of said nozzle , - a trigger , and - a control module , wherein said first holder is configured for housing a pressurized gas cartridge for the passage of a pressurized gas towards said flow rate regulating means , said first holder , said flow rate regulating means and said nozzle being fluidically connected, such that said regulating means are located downstream of said first holder and upstream of said outlet nozzle , wherein said second holder is configured for housing a cosmetic product container for the passage of a cosmetic product towards said nozzle , and said second holder being fluidically connected with said nozzle by means of a first product outlet conduit , and wherein said trigger is configured for opening the passage of said gas when it is operated by a user, and said control module is configured for regulating flow rate regulating parameters of said flow rate regulating means , and temperature regulating parameters of said heating means of said nozzle . - a first holder for a pressurized gas cartridge , - a second holder for a cosmetic product container , - flow rate regulating means , - an outlet nozzle , - heating means of said nozzle , - a trigger , and - a control module ,
Motor vehicle locking device, in particular a motor vehicle door latch , comprising: a control unit ; at least one electric drive , it being possible for the drive to be controlled by means of the control unit ; at least one lamp that can be assigned to the locking device , it being possible for the lamp to be controlled depending on a status of the locking device and/or of a vehicle component incorporating the locking device , which status can be detected by means of the control unit ; and comprising voltage supply lines via which at least one electric drive and the at least one lamp can be supplied with power, the lamp being integrated into a circuit of the electric drive ; characterized in that all voltage supply lines of the at least one electric drive and the lamp integrated in a circuit of the electric drive are supplied with voltage by means of the control unit for controlling the lamp .
A method of assembling an elongate pipeline bundle offshore aboard an installation vessel , the method comprising: suspending the bundle from the vessel so that the bundle hangs in an upright orientation underwater beneath the vessel ; successively attaching pre-fabricated elongate structural core sections to a corresponding uppermost core section already incorporated into the bundle, in each instance to become a newly-uppermost core section of the bundle, each pre-fabricated elongate structural core section comprising a core pipe and at least one of: a guide frame extending radially outwardly from the core pipe ; a buoyancy block ; and, after attaching each core section , lowering the bundle in a downward launch direction to suspend the bundle from the newly-uppermost core section; wherein the method further comprises incorporating a length of flowline pipe into the bundle aboard the vessel , a portion of that pipe already incorporated into the bundle extending along the bundle beside the successive core sections, that pipe being a flexible pipe, a composite pipe or a rigid pipe as herein defined. suspending the bundle from the vessel so that the bundle hangs in an upright orientation underwater beneath the vessel ; successively attaching pre-fabricated elongate structural core sections to a corresponding uppermost core section already incorporated into the bundle, in each instance to become a newly-uppermost core section of the bundle, each pre-fabricated elongate structural core section comprising a core pipe and at least one of: a guide frame extending radially outwardly from the core pipe ; a buoyancy block ; and, a guide frame extending radially outwardly from the core pipe ; a buoyancy block ; after attaching each core section , lowering the bundle in a downward launch direction to suspend the bundle from the newly-uppermost core section; wherein the method further comprises incorporating a length of flowline pipe into the bundle aboard the vessel , a portion of that pipe already incorporated into the bundle extending along the bundle beside the successive core sections, that pipe being a flexible pipe, a composite pipe or a rigid pipe as herein defined.
A method for improving a signal-to-noise ratio of image frames, the method comprising: estimating a representative velocity of an optical flow in an image frame sequence containing the image frames, wherein the image frames are microscopy image frames determining an interpolation factor from the representative velocity of the optical flow; employing a trained artificial neural network for generating an expanded image frame sequence, wherein the expanded image frame sequence includes a number of interpolating image frames, wherein each interpolating image frame interpolates between subsequent image frames of the image frame sequence, wherein the number of interpolating image frames corresponds to the interpolation factor; and computing a time-dependent combination of image frames from the expanded image frame sequence to generate an output image frame sequence. estimating a representative velocity of an optical flow in an image frame sequence containing the image frames, wherein the image frames are microscopy image frames determining an interpolation factor from the representative velocity of the optical flow; employing a trained artificial neural network for generating an expanded image frame sequence, wherein the expanded image frame sequence includes a number of interpolating image frames, wherein each interpolating image frame interpolates between subsequent image frames of the image frame sequence, wherein the number of interpolating image frames corresponds to the interpolation factor; and computing a time-dependent combination of image frames from the expanded image frame sequence to generate an output image frame sequence.
A powder processing apparatus using surface discharge plasma comprising: a chamber configured to perform plasma processing on a powder and a plurality of plate-like surface discharge plasma modules disposed in the chamber wherein the surfaces of the modules are spaced apart from each other and are not parallel to a direction in which the powder is supplied, wherein each of the modules includes an insulating layer and high voltage applying electrodes each having the form of a bar and a ground electrode having the form of a substrate or a high voltage applying electrode having the form of a substrate and ground electrodes each having the form of a bar, wherein in each plate-like surface discharge plasma module the high-voltage-applying electrodes or electrode and the ground electrode or electrodes are separated by the insulating layer and are disposed directly on the opposite sides of the insulating layer , wherein an alternating voltage is supplied to the high-voltage-applying electrodes or electrode or the ground electrode or electrodes , so that plasma is generated around the electrodes having the form of a bar and the surface of the powder is treated with this plasma. a chamber configured to perform plasma processing on a powder and a plurality of plate-like surface discharge plasma modules disposed in the chamber wherein the surfaces of the modules are spaced apart from each other and are not parallel to a direction in which the powder is supplied, wherein each of the modules includes an insulating layer and high voltage applying electrodes each having the form of a bar and a ground electrode having the form of a substrate or a high voltage applying electrode having the form of a substrate and ground electrodes each having the form of a bar, wherein in each plate-like surface discharge plasma module the high-voltage-applying electrodes or electrode and the ground electrode or electrodes are separated by the insulating layer and are disposed directly on the opposite sides of the insulating layer , wherein an alternating voltage is supplied to the high-voltage-applying electrodes or electrode or the ground electrode or electrodes , so that plasma is generated around the electrodes having the form of a bar and the surface of the powder is treated with this plasma.
An induction heating apparatus, comprising: a rectifying unit configured to rectify an AC voltage supplied by a power source and to output the rectified AC voltage; a smoothing unit configured to smooth the rectified AC voltage and to output a DC voltage; an inverter unit including a first switching device (T 1 ), a second switching device (T 2 ), a third switching device (T 3 ), a fourth switching device (T 4 ), and a variable capacitor unit (C 1 , C 2 , C 3 ), and configured to convert the DC voltage through switching operations and output resonance current; a working coil (WC) configured to heat a container, using the resonance current which is supplied by the inverter unit ; and a control unit configured to compare a resistance value of the container with a predetermined reference resistance value, determine an operating mode of a switching device (T 1 , T 2 , T 3 , T 4 ) based on results of the comparison, and adjust capacitance of the variable capacitor unit (C 1 , C 2 , C 3 ) to adjust a ratio of a resonance frequency of the working coil (WC) to an operating frequency of the switching device (T 1 , T 2 , T 3 , T 4 ) included in the inverter unit on the basis of the operating mode. a rectifying unit configured to rectify an AC voltage supplied by a power source and to output the rectified AC voltage; a smoothing unit configured to smooth the rectified AC voltage and to output a DC voltage; an inverter unit including a first switching device (T 1 ), a second switching device (T 2 ), a third switching device (T 3 ), a fourth switching device (T 4 ), and a variable capacitor unit (C 1 , C 2 , C 3 ), and configured to convert the DC voltage through switching operations and output resonance current; a working coil (WC) configured to heat a container, using the resonance current which is supplied by the inverter unit ; and a control unit configured to compare a resistance value of the container with a predetermined reference resistance value, determine an operating mode of a switching device (T 1 , T 2 , T 3 , T 4 ) based on results of the comparison, and adjust capacitance of the variable capacitor unit (C 1 , C 2 , C 3 ) to adjust a ratio of a resonance frequency of the working coil (WC) to an operating frequency of the switching device (T 1 , T 2 , T 3 , T 4 ) included in the inverter unit on the basis of the operating mode.
A device for extracting water from the environment, comprising: - a means to capture water from the environment by means of a liquid desiccant; - an extraction chamber comprising: o a container located at the bottom of the extraction chamber , in which the water captured by the liquid desiccant is extracted, and o a heating element located within the container ; - a first tube through which the liquid desiccant with water flows from the capture means to the extraction chamber ; - a second tube through which the liquid desiccant flows from the extraction chamber to the capture means ; - a reservoir to store water extracted from the liquid desiccant in the extraction chamber ; - a third tube through which the water flows from the extraction chamber to the reservoir; - a means to create a vacuum within the extraction chamber; and - a control device , wherein the control device controls the heating element ; and the device for extracting water being characterized in that the ratio of the volume of the heating element and the internal volume of the container is between 70% and 95%. - a means to capture water from the environment by means of a liquid desiccant; - an extraction chamber comprising: o a container located at the bottom of the extraction chamber , in which the water captured by the liquid desiccant is extracted, and o a heating element located within the container ; o a container located at the bottom of the extraction chamber , in which the water captured by the liquid desiccant is extracted, and o a heating element located within the container ; - a first tube through which the liquid desiccant with water flows from the capture means to the extraction chamber ; - a second tube through which the liquid desiccant flows from the extraction chamber to the capture means ; - a reservoir to store water extracted from the liquid desiccant in the extraction chamber ; - a third tube through which the water flows from the extraction chamber to the reservoir; - a means to create a vacuum within the extraction chamber; and - a control device , wherein the control device controls the heating element ; and
Toilet seat , shower chair or shower stool comprising an adjustable armrest , the armrest comprising: an approximately horizontal pivot axis ; a main portion with one free end and one connected end , which is pivotably arranged around the approximately horizontal pivot axis , and an enclosure arranged around the pivot axis and the connected end of the main portion , wherein the connected end of the main portion has an open recess for the pivot axis , wherein the opening of the open recess is covered by the enclosure , regardless of the pivotal position of the main portion , characterized in that the open recess is an oblong recess at a rear side of the connected end , the rear side facing away from the forward free end , and wherein the oblong recess co-operates with the pivot axis in the enclosure , when the armrest is in a use position, and wherein the enclosure has two sidewalls , and that the pivot axis extends between the two side walls . an approximately horizontal pivot axis ; a main portion with one free end and one connected end , which is pivotably arranged around the approximately horizontal pivot axis , and an enclosure arranged around the pivot axis and the connected end of the main portion , wherein the connected end of the main portion has an open recess for the pivot axis , wherein the opening of the open recess is covered by the enclosure , regardless of the pivotal position of the main portion , characterized in that the open recess is an oblong recess at a rear side of the connected end , the rear side facing away from the forward free end , and wherein the oblong recess co-operates with the pivot axis in the enclosure , when the armrest is in a use position, and wherein the enclosure has two sidewalls , and that the pivot axis extends between the two side walls .
An assembly for coupling a dressing to a tube connected to a pump , the assembly comprising: a hydrophobic film layer comprising a perforation extending therethrough; an indicator coupled to a first side of the hydrophobic film layer and positioned proximate the perforation ; a felted foam layer coupled to a second side of the hydrophobic film layer and fluidly communicable with the indicator via the perforation ; and a connection pad coupled to the first side of the hydrophobic film layer and coupleable to the tube . a hydrophobic film layer comprising a perforation extending therethrough; an indicator coupled to a first side of the hydrophobic film layer and positioned proximate the perforation ; a felted foam layer coupled to a second side of the hydrophobic film layer and fluidly communicable with the indicator via the perforation ; and a connection pad coupled to the first side of the hydrophobic film layer and coupleable to the tube .
An information processing system, comprising a server to which a plurality of terminals are connectable via a network , the server comprising: a controller port defining a plurality of ports and enabling that a plurality of operation signals are input to the ports each from a respective operation device of a respective terminal connected to the server via the network ; an assignment unit configured to assign each of the plurality of operation devices to a respective one of the plurality of ports; an execution unit configured to execute a game program that has been created to be executed by a dedicated device in response to each of the plurality of operation signals input from a respective operation device to its assigned port of the plurality of the ports; and an execution status detecting unit configured to detect a predetermined execution status of the game program executed on the execution unit , the execution status detecting unit using image recognition to detect when a predetermined game character appears; wherein the assignment unit is configured to change assignment of the plurality of operation devices to the respective ports based on the execution status detected by using image recognition so as to enable the player using a predetermined operation devise to take charge of the detected game character associated with the detected execution status. a controller port defining a plurality of ports and enabling that a plurality of operation signals are input to the ports each from a respective operation device of a respective terminal connected to the server via the network ; an assignment unit configured to assign each of the plurality of operation devices to a respective one of the plurality of ports; an execution unit configured to execute a game program that has been created to be executed by a dedicated device in response to each of the plurality of operation signals input from a respective operation device to its assigned port of the plurality of the ports; and an execution status detecting unit configured to detect a predetermined execution status of the game program executed on the execution unit , the execution status detecting unit using image recognition to detect when a predetermined game character appears; wherein the assignment unit is configured to change assignment of the plurality of operation devices to the respective ports based on the execution status detected by using image recognition so as to enable the player using a predetermined operation devise to take charge of the detected game character associated with the detected execution status.
Ball screw for an electromechanical braking system, wherein a rotational movement of an electrical actuator, which rotates in a braking direction of rotation to actuate a brake of the electromechanical braking system and rotates in a load-relieving direction of rotation to relieve load on the brake, can be transmitted to the ball screw by means of a step-down gear mechanism and can be converted by means of the ball screw into a translational movement, to actuate the brake in a braking direction (B) and to relieve load on the brake in a load-relieving direction (E), which ball screw comprises a ball nut and a threaded spindle which together form a helically wound ball channel with balls rolling therein, and wherein the threaded spindle is formed with a radially outwardly directed counter-stop , characterized in that the ball nut is designed to receive two or more locating pins , wherein the rotational movement can be transmitted by means of the locating pins from the step-down gear mechanism to the wall nut and can be converted by means of the balls into a translational movement of the threaded spindle , and in that a radial end stop is provided for limiting a translational movement of the threaded spindle , wherein the ball nut has a radially inwardly directed stop for mutual, form-fitting engagement with the counter-stop .
A method for reducing the heteroatom concentration of a composition comprising a plastic pyrolysis oil containing at least 20 ppm by weight of chlorine as measured according to the standard ASTM D7359-18, comprising: (a) contacting said composition with 0.1-50% by weight of a strong base comprising an alkali or alkaline-earth metal cation in the solid state for at least 1 minute at a temperature of at most 450°C, (b) separating the strong base comprising the alkali or alkaline-earth metal cation and the product resulting from contacting said composition by washing with a polar solvent immiscible with the product resulting from step (a). (a) contacting said composition with 0.1-50% by weight of a strong base comprising an alkali or alkaline-earth metal cation in the solid state for at least 1 minute at a temperature of at most 450°C, (b) separating the strong base comprising the alkali or alkaline-earth metal cation and the product resulting from contacting said composition by washing with a polar solvent immiscible with the product resulting from step (a).
A device for the storage and/or processing of quantum information, comprising: a body (6; 18), formed from a material having negligible net nuclear or electronic magnetic field; a set of magnetic data entities (4; 14) embedded in said body (6; 18), each having at least two magnetic field states, wherein a spacing distance between adjacent data entities (4; 14) is sufficient such that the data entities (4; 14) substantially cannot interact with one another; a set of magnetic probes (2; 12), offset from the body (6; 18), for acquiring internal phase shifts due to the magnetic fields of said data entities (4; 14); wherein the probes (2; 12) are each arranged to move relative to a plurality of data entities (4; 14) in order that each probe (2; 12) acquires an internal phase shift from the plurality of data entities (4; 14) by bringing said each probe (2; 12) within a measuring distance of each of the plurality of data entities (4; 14) in turn, the measuring distance being significantly smaller than the spacing distance between adjacent data entities (4; 14); and means for reading each probe once said each probe (2; 12) has acquired the internal phase shift from the plurality of data entities (4; 14), thereby establishing a parity of the plurality of data entities (4; 14) without destroying a quantum superposition state of the data entities (4; 14). a body (6; 18), formed from a material having negligible net nuclear or electronic magnetic field; a set of magnetic data entities (4; 14) embedded in said body (6; 18), each having at least two magnetic field states, wherein a spacing distance between adjacent data entities (4; 14) is sufficient such that the data entities (4; 14) substantially cannot interact with one another; a set of magnetic probes (2; 12), offset from the body (6; 18), for acquiring internal phase shifts due to the magnetic fields of said data entities (4; 14); wherein the probes (2; 12) are each arranged to move relative to a plurality of data entities (4; 14) in order that each probe (2; 12) acquires an internal phase shift from the plurality of data entities (4; 14) by bringing said each probe (2; 12) within a measuring distance of each of the plurality of data entities (4; 14) in turn, the measuring distance being significantly smaller than the spacing distance between adjacent data entities (4; 14); and means for reading each probe once said each probe (2; 12) has acquired the internal phase shift from the plurality of data entities (4; 14), thereby establishing a parity of the plurality of data entities (4; 14) without destroying a quantum superposition state of the data entities (4; 14).