mhurhangee/patent-ind-claim-en huggingface dataset:
Packaging label comprising: - a flexible substrate ; - a printed display above the substrate , the display comprising an electrically addressable layer of ink; - a printed control module above the substrate, in electrical contact with the display and arranged to control the operating of such display , the control module including a layer comprising ink mixed with dopants; - at least a printed photovoltaic module above the substrate and next to the display and arranged to supply the display and the control module , the photovoltaic module including a layer comprising ink mixed with dopants, characterised by further comprising an insulating layer placed above the display and on which the control module is placed, said insulating layer having a plurality of holes placed in correspondence of the display and arranged to allow the electric contact between said display and the control module . - a flexible substrate ; - a printed display above the substrate , the display comprising an electrically addressable layer of ink; - a printed control module above the substrate, in electrical contact with the display and arranged to control the operating of such display , the control module including a layer comprising ink mixed with dopants; - at least a printed photovoltaic module above the substrate and next to the display and arranged to supply the display and the control module , the photovoltaic module including a layer comprising ink mixed with dopants, characterised by further comprising an insulating layer placed above the display and on which the control module is placed, said insulating layer having a plurality of holes placed in correspondence of the display and arranged to allow the electric contact between said display and the control module .
Active magnetic bearing of a shaft that can be rotated about an axis having - a magnetically conductive main body , which is arranged in a stationary manner and which surrounds the shaft , - partial bodies , which are arranged one behind the other axially and which form the magnetically conductive main body , - a winding system, which is arranged in grooves of the magnetically conductive main body , - an axial distance (w) between the adjacent partial bodies , wherein spacers are provided between the partial bodies that are axially spaced apart from one another, characterised in that at least one partial body comprises axially extending cooling ducts , which open into the interspaces between the axially spaced apart partial bodies . - a magnetically conductive main body , which is arranged in a stationary manner and which surrounds the shaft , - partial bodies , which are arranged one behind the other axially and which form the magnetically conductive main body , - a winding system, which is arranged in grooves of the magnetically conductive main body , - an axial distance (w) between the adjacent partial bodies , wherein spacers are provided between the partial bodies that are axially spaced apart from one another, characterised in that at least one partial body comprises axially extending cooling ducts , which open into the interspaces between the axially spaced apart partial bodies .
Automotive vehicle roof lining comprising: - a first support panel to be fixed against the roof of said vehicle, - a flexible printed circuit electronic film applied against the underside of said first support panel and carrying a plurality of point light sources irregularly distributed to give the impression of a starry sky, - a second panel pressed against the underside of said flexible electronic film and having a plurality of through-holes accommodating said light sources , and - a light-permeable textile coating sheet covering the underside of the second support panel ; the said lining being characterized in that said second panel is constituted by an open-cell foam, and in that said light-permeable textile covering sheet is constituted by a three-dimensional mesh fabric produced by synthetic weaving, said covering sheet diffracting the light emitted by the point light sources . - a first support panel to be fixed against the roof of said vehicle, - a flexible printed circuit electronic film applied against the underside of said first support panel and carrying a plurality of point light sources irregularly distributed to give the impression of a starry sky, - a second panel pressed against the underside of said flexible electronic film and having a plurality of through-holes accommodating said light sources , and - a light-permeable textile coating sheet covering the underside of the second support panel ;
A method to provide airflow to a fuel cell stack and a cooling fan within a housing, the method comprising: placing a fuel cell stack in fluid communication with a fan both of which are within a housing; fluidly connecting a predetermined minimum volume of airflow through the housing to the fan by one or more of the following modes; A. adjust airflow from the fuel cell stack cathode exhaust face to the fan via closing louvres and closing off at least a portion of apertures through the face of louvres; and B. open bypass valves, close louvres and one of close apertures and at least a portion of apertures through the face of louvres. placing a fuel cell stack in fluid communication with a fan both of which are within a housing; fluidly connecting a predetermined minimum volume of airflow through the housing to the fan by one or more of the following modes; A. adjust airflow from the fuel cell stack cathode exhaust face to the fan via closing louvres and closing off at least a portion of apertures through the face of louvres; and B. open bypass valves, close louvres and one of close apertures and at least a portion of apertures through the face of louvres. A. adjust airflow from the fuel cell stack cathode exhaust face to the fan via closing louvres and closing off at least a portion of apertures through the face of louvres; and B. open bypass valves, close louvres and one of close apertures and at least a portion of apertures through the face of louvres.
Assembly, comprising a vessel for holding a food liquid and a device for treating food liquids by means of steam, wherein the device comprises: - a platform for placing the vessel containing the liquid, - a pipe with an open end , configured to supply steam to the vessel , - a driving device configured to drive a relative movement between the end of the pipe and the platform , - a means for determining a liquid level of the liquid in the vessel when the vessel is arranged on the platform , and - a control unit operationally connected to the means for determining the liquid level and to the driving device , wherein the control unit is configured to actuate the driving device such that a relative initial position between the end of the pipe and the platform is assumed which is based on the liquid level, characterised in that the means for determining the liquid level comprise means for determining the weight of a liquid in the vessel, wherein the control unit is configured to determine the liquid level from the weight, and in that the vessel comprises a sensor and the device comprises a receiver connected to the control unit and configured to read the sensor for automatically detecting a type of the vessel. - a platform for placing the vessel containing the liquid, - a pipe with an open end , configured to supply steam to the vessel , - a driving device configured to drive a relative movement between the end of the pipe and the platform , - a means for determining a liquid level of the liquid in the vessel when the vessel is arranged on the platform , and - a control unit operationally connected to the means for determining the liquid level and to the driving device , wherein the control unit is configured to actuate the driving device such that a relative initial position between the end of the pipe and the platform is assumed which is based on the liquid level, characterised in that the means for determining the liquid level comprise means for determining the weight of a liquid in the vessel, wherein the control unit is configured to determine the liquid level from the weight, and in that the vessel comprises a sensor and the device comprises a receiver connected to the control unit and configured to read the sensor for automatically detecting a type of the vessel.
An optical device for use in the field of extreme macrophotography comprising: - a zoom optical assembly comprising a fixed section and a section that is movable in the direction of the optical axis (X) relative to the fixed section; - a lighting system comprising a ring light stably associable with the end of said movable section , said optical device being characterised in that it comprises: - a first diffuser integral with said movable section arranged so as to be interposed between said ring light and the subject to be photographed, so that the light beam emitted by said ring light is not sent directly to the subject to be photographed, - a second diffuser integral with said fixed section. Said second diffuser being substantially conical in shape and being arranged in such a way that said ring light and first diffuser are housed within a cavity generated by the second diffuser . - a zoom optical assembly comprising a fixed section and a section that is movable in the direction of the optical axis (X) relative to the fixed section; - a lighting system comprising a ring light stably associable with the end of said movable section , - a first diffuser integral with said movable section arranged so as to be interposed between said ring light and the subject to be photographed, so that the light beam emitted by said ring light is not sent directly to the subject to be photographed, - a second diffuser integral with said fixed section. Said second diffuser being substantially conical in shape and being arranged in such a way that said ring light and first diffuser are housed within a cavity generated by the second diffuser .
Computer-based method for determining the range (E) of a target object from an electro-optical sensor unit based on monocular sensor data of the sensor unit , the electro-optical sensor unit being an electro-optical image capture unit , wherein - the sensor data comprise a first and a second dataset, each dataset comprising a respective representation of the target object , and the two datasets having been or being generated for two different recording locations (O N-1 , O N ), - the range (E) is determined as a weighted combination of at least a first (E 1 ) and a second (E 2 ) range value, - the first range value (E 1 ) is determined based on the first and second datasets on the basis of triangulation, - the second range value (E 2 ) is determined on the basis of, in particular determined, dimensions (G), obtained from the first and second datasets at the sensor level of the sensor unit , and a difference in dimensions (ΔG) of the representations of the target object , and - the recording locations (O N-1 , O N ) and/or a distance (ΔD) between the recording locations (O N-1 , O N ) is/are determined and is/are used to determine the first (E 1 ) and second (E 2 ) range values. - the sensor data comprise a first and a second dataset, each dataset comprising a respective representation of the target object , and the two datasets having been or being generated for two different recording locations (O N-1 , O N ), - the range (E) is determined as a weighted combination of at least a first (E 1 ) and a second (E 2 ) range value, - the first range value (E 1 ) is determined based on the first and second datasets on the basis of triangulation, - the second range value (E 2 ) is determined on the basis of, in particular determined, dimensions (G), obtained from the first and second datasets at the sensor level of the sensor unit , and a difference in dimensions (ΔG) of the representations of the target object , and - the recording locations (O N-1 , O N ) and/or a distance (ΔD) between the recording locations (O N-1 , O N ) is/are determined and is/are used to determine the first (E 1 ) and second (E 2 ) range values.
A method of optimising the output of a sensor for measuring the relative position of a metallic object being attached to a control rod within a nuclear reactor by measuring the relative position of the object with respect to a metallic probe tube housing the sensor , the sensor a primary electromagnetic coil arranged to generate a time varying magnetic field; and a secondary electromagnetic coil arranged to detect the time varying magnetic field as affected, directly or indirectly, by the object , and to output, on the basis of the detected time varying magnetic field, a signal indicative of the relative location of the object , the method characterised in that it includes the steps of: supplying the primary coil with an alternating current to result in the generated time varying magnetic field; locating the object in a first position and recording the signal output by the secondary electromagnetic coil for a range of respective frequencies of the supplied alternating current; locating the object in a second position and recording the signal output by the secondary electromagnetic coil for the range of respective frequencies of the supplied alternating current; calculating, for each of the respective frequencies, a value for the span to offset ratio of the measured signals on the basis of the respective signals measured for the object in the first and second positions; and determining the frequency of the supplied alternating current which provides the maximum span to offset ratio on the basis of the calculations. supplying the primary coil with an alternating current to result in the generated time varying magnetic field; locating the object in a first position and recording the signal output by the secondary electromagnetic coil for a range of respective frequencies of the supplied alternating current; locating the object in a second position and recording the signal output by the secondary electromagnetic coil for the range of respective frequencies of the supplied alternating current; calculating, for each of the respective frequencies, a value for the span to offset ratio of the measured signals on the basis of the respective signals measured for the object in the first and second positions; and determining the frequency of the supplied alternating current which provides the maximum span to offset ratio on the basis of the calculations.
A method in a user equipment for determining a transport block size, which transport block size is used by the user equipment in receiving downlink data transmissions from a network node which are frequency multiplexed with an enhanced Control CHannel, eCCH, the user equipment and the network node being comprised in a telecommunications system , which user equipment has access to a table of predetermined transport block sizes for different number of allocated radio resource blocks, PRBs, the method comprising - obtaining an indicator N PRB , wherein the indicator N PRB is defined based on a total number of PRBs allocated to the downlink data transmission N PRB ′ and based on a positive PRB offset value O PRB , - determining the transport block size from the table of predetermined transport block sizes based on at least the indicator N PRB ; wherein the indicator N PRB indicates which column in the table of predetermined transport block sizes to look in when determining the transport block size. - obtaining an indicator N PRB , wherein the indicator N PRB is defined based on a total number of PRBs allocated to the downlink data transmission N PRB ′ and based on a positive PRB offset value O PRB , - determining the transport block size from the table of predetermined transport block sizes based on at least the indicator N PRB ;
A compound represented by Formula 1, a pharmaceutically acceptable salt, or a stereoisomer thereof: wherein R 1 is hydrogen, or a substituted or unsubstituted alkyl, alkenyl, or alkynyl; R 2 is hydrogen, a substituted or unsubstituted alkyl, halogen, CN, CF 3 , or COCF 3 ; R 3 and R 4 are each independently hydrogen, a substituted or unsubstituted alkyl, alkenyl, alkynyl, or halogen; R 5 A and R 5 B are each independently hydrogen, a substituted or unsubstituted alkyl, alkenyl, alkynyl, or -R 6 (COOH), wherein R 6 is a single bond, a substituted or unsubstituted alkylene, alkenylene, or alkynylene, and any one of R 5 A and R 5 B is -R 6 (COOH); and optionally R 5 A and R 5 B bind to each other to form a ring, which is substituted with -R 6 (COOH). R 1 is hydrogen, or a substituted or unsubstituted alkyl, alkenyl, or alkynyl; R 2 is hydrogen, a substituted or unsubstituted alkyl, halogen, CN, CF 3 , or COCF 3 ; R 3 and R 4 are each independently hydrogen, a substituted or unsubstituted alkyl, alkenyl, alkynyl, or halogen; R 5 A and R 5 B are each independently hydrogen, a substituted or unsubstituted alkyl, alkenyl, alkynyl, or -R 6 (COOH), wherein R 6 is a single bond, a substituted or unsubstituted alkylene, alkenylene, or alkynylene, and any one of R 5 A and R 5 B is -R 6 (COOH); and optionally R 5 A and R 5 B bind to each other to form a ring, which is substituted with -R 6 (COOH).
A management device for managing titration for a patient implanted with a neurostimulator, comprising: a display; a processor; and a memory storing instructions that, when executed by the processor, cause the management device to: receive, from the neurostimulator, data for the patient relating to stimulation being provided to the patient by the neurostimulator while the neurostimulator is in communication with the management device; display, by the display, a user interface including at least a portion of the data displayed within a graph, the user interface allowing a user to modify a parameter of the titration by manipulating a marker included in the graph; receive a selection of the parameter; based on the selection, determine a titration schedule for the patient; and transmit the titration schedule to the neurostimulator. a display; a processor; and a memory storing instructions that, when executed by the processor, cause the management device to: receive, from the neurostimulator, data for the patient relating to stimulation being provided to the patient by the neurostimulator while the neurostimulator is in communication with the management device; display, by the display, a user interface including at least a portion of the data displayed within a graph, the user interface allowing a user to modify a parameter of the titration by manipulating a marker included in the graph; receive a selection of the parameter; based on the selection, determine a titration schedule for the patient; and transmit the titration schedule to the neurostimulator. receive, from the neurostimulator, data for the patient relating to stimulation being provided to the patient by the neurostimulator while the neurostimulator is in communication with the management device; display, by the display, a user interface including at least a portion of the data displayed within a graph, the user interface allowing a user to modify a parameter of the titration by manipulating a marker included in the graph; receive a selection of the parameter; based on the selection, determine a titration schedule for the patient; and transmit the titration schedule to the neurostimulator.
Pimavanserin or salts thereof for use in the treatment of cancer in a subject, comprising administering a sufficient amount of pimavanserin or salts thereof and a pharmaceutically acceptable carrier.
A computer implemented method for providing an augmented reality experience to a user of a real-world system, the method comprising: defining in computer memory, a model of the real-world system; performing a plurality of simulations of the real-world system using the defined model, performing the plurality of simulations producing predicted field data; storing the predicted field data; receiving field data from one or more sensors in the real-world system; calibrating the model of the real-world system using the received field data relative to the predicted field data; identifying one or more potential failure conditions of the real-world system based on the calibrated model; and providing an augmented reality display of the one or more potential failure conditions of the real-world system to the user via an augmented reality headset at a real-world location associated with the one or more potential failure conditions. defining in computer memory, a model of the real-world system; performing a plurality of simulations of the real-world system using the defined model, performing the plurality of simulations producing predicted field data; storing the predicted field data; receiving field data from one or more sensors in the real-world system; calibrating the model of the real-world system using the received field data relative to the predicted field data; identifying one or more potential failure conditions of the real-world system based on the calibrated model; and providing an augmented reality display of the one or more potential failure conditions of the real-world system to the user via an augmented reality headset at a real-world location associated with the one or more potential failure conditions.
A method of manufacturing a resonant panel of a flat panel loudspeaker for mounting in a mounting surface, the method comprising: pressing a resonant panel blank between a first pressing surface and a second pressing surface of a press, wherein the second pressing surface substantially opposes the first pressing surface, and curing the resonant panel blank between the first and second pressing surfaces, whereby to form the resonant panel of the flat panel loudspeaker, wherein the first pressing surface comprises at least one tool relief region , whereby to form at least one corresponding respective panel relief region in a surface of the resonant panel , wherein the resonant panel blank comprises: a skin having an outer surface in contact with the first pressing surface; and at least one layer of a pre-preg material provided on an inner surface of the skin, the inner surface being opposite the outer surface, wherein a front surface of the formed resonant panel is configured for applying plaster or jointing compound thereover to conceal a boundary between the resonant panel and the mounting surface, during mounting. pressing a resonant panel blank between a first pressing surface and a second pressing surface of a press, wherein the second pressing surface substantially opposes the first pressing surface, and curing the resonant panel blank between the first and second pressing surfaces, whereby to form the resonant panel of the flat panel loudspeaker, wherein the first pressing surface comprises at least one tool relief region , whereby to form at least one corresponding respective panel relief region in a surface of the resonant panel , wherein the resonant panel blank comprises: a skin having an outer surface in contact with the first pressing surface; and at least one layer of a pre-preg material provided on an inner surface of the skin, the inner surface being opposite the outer surface, wherein a front surface of the formed resonant panel is configured for applying plaster or jointing compound thereover to conceal a boundary between the resonant panel and the mounting surface, during mounting. a skin having an outer surface in contact with the first pressing surface; and at least one layer of a pre-preg material provided on an inner surface of the skin, the inner surface being opposite the outer surface, wherein a front surface of the formed resonant panel is configured for applying plaster or jointing compound thereover to conceal a boundary between the resonant panel and the mounting surface, during mounting.