mhurhangee/patent-ind-claim-en huggingface dataset:
A display device , comprising: a display ; a transmitter configured to transmit an infrared (IR) signal; and a processor configured to, control the display to display a multi-screen based on a plurality of image signals received from a plurality of source devices which use a same IR protocol, perform, based on a user command for selecting one from among a plurality of images comprised in the multi-screen being received, a process for turning-off an IR function of the plurality of source devices excluding a first source device (200-1) which provides the selected image from among the plurality of source devices and transmitting an IR signal for controlling the first source device through the transmitter . a display ; a transmitter configured to transmit an infrared (IR) signal; and a processor configured to, control the display to display a multi-screen based on a plurality of image signals received from a plurality of source devices which use a same IR protocol, perform, based on a user command for selecting one from among a plurality of images comprised in the multi-screen being received, a process for turning-off an IR function of the plurality of source devices excluding a first source device (200-1) which provides the selected image from among the plurality of source devices and transmitting an IR signal for controlling the first source device through the transmitter .
A swallowable in-vivo device comprising: - a shell formed with at least one inlet extending across a shell wall between an inner surface and outer surface thereof, and configured for allowing ingress of fluid at least into said shell , said shell accommodating therein: - a lateral flow, LF, arrangement configured for absorbing said fluid, said LF arrangement comprising a test zone configured for coming into contact, in-vivo, with a predetermined substance present in said fluid or a compound comprising said substance, thereby causing a change in at least one property of said test zone ; - a sensor configured for sensing, in-vivo, said at least one property, at least when changed by interaction with said fluid; wherein said LF arrangement is positioned within the shell such that it has at least one curved segment , and at least one exposure portion juxtaposed with said at least one inlet , configured for absorbing at least some of said fluid passing through said at least one inlet into the shell ; and wherein at least one of the ends of the shell is curved; characterised in that a curvature (R1, R2) of said curved segment of said LF arrangement corresponds to that of said at least one end of the shell . - a shell formed with at least one inlet extending across a shell wall between an inner surface and outer surface thereof, and configured for allowing ingress of fluid at least into said shell , said shell accommodating therein: - a lateral flow, LF, arrangement configured for absorbing said fluid, said LF arrangement comprising a test zone configured for coming into contact, in-vivo, with a predetermined substance present in said fluid or a compound comprising said substance, thereby causing a change in at least one property of said test zone ; - a sensor configured for sensing, in-vivo, said at least one property, at least when changed by interaction with said fluid; wherein said LF arrangement is positioned within the shell such that it has at least one curved segment , and at least one exposure portion juxtaposed with said at least one inlet , configured for absorbing at least some of said fluid passing through said at least one inlet into the shell ; and wherein at least one of the ends of the shell is curved; characterised in that a curvature (R1, R2) of said curved segment of said LF arrangement corresponds to that of said at least one end of the shell .
A method of producing an electronic device comprising the steps of: forming a substrate with at least a surface region, wherein the surface region is not planar; attaching electrical contacts upon the surface region; attaching an electronic element comprising a flexible semiconductor to the electrical contacts, wherein the flexible semiconductor is bent to conform to the non-planar surface; and placing the electronic device within an ophthalmic device; and characterised in that the surface region comprises a curved surface forming a support for at least a portion of a cylindrical shape electronic element. forming a substrate with at least a surface region, wherein the surface region is not planar; attaching electrical contacts upon the surface region; attaching an electronic element comprising a flexible semiconductor to the electrical contacts, wherein the flexible semiconductor is bent to conform to the non-planar surface; and placing the electronic device within an ophthalmic device; and
A door locking system which comprises a central control unit and at least one electronic locking unit having at least one electronic key , wherein the central control unit has an electronic evaluation and control device , a memory for storing authorization data and configuration parameters, a communication interface for a bidirectional communication with the electronic locking unit , a network interface and/or a mobile radio interface at least for receiving control and configuration data based on an internet protocol or a mobile radio protocol; and wherein the evaluation and control device of the central control unit is adapted to change the stored authorization data and/or configuration parameters in dependence on the control and configuration data received via the network interface and/or the mobile radio interface ; wherein the electronic locking unit comprises an actuator for a locking element, an evaluation and control device and a communication interface for a bidirectional communication with the central control unit , characterized in that the central control unit further has at least one first switching output for outputting a control signal to a connected intrusion alarm system and at least one first switching input for receiving a status signal from the connected intrusion alarm system , wherein the first switching output is adapted to output an analog control signal and the first switching input is adapted to receive an analog switching signal; wherein the evaluation and control device of the electronic locking unit is adapted to receive a disarming request signal from the electronic key and to send a disarming request signal to the central control unit via the communication interfaces in dependence on the received disarming request signal; wherein, on reception of the disarming request signal, the evaluation and control device of the central control unit is further adapted to output a disarming command to the connected intrusion alarm system via the first switching output or via a further switching output of the central control unit for outputting an analog control signal; wherein the evaluation and control device of the central control unit is further adapted to receive a disarming confirmation signal from the connected intrusion alarm system via a switching input of the central control unit for receiving an analog control signal, in particular via a second switching input or a further switching input of the central control unit for receiving an analog control signal; wherein, on reception of the disarming confirmation signal, the evaluation and control device of the central control unit is adapted to send a positive response signal to the electronic locking unit via the communication interfaces ; and wherein, on reception of the positive response signal, the evaluation and control device of the electronic locking unit is adapted to control an optical and/or acoustic signaling device of the electronic locking unit to indicate a positive acknowledgment signal.
A pressure self-matching energy utilization system, comprising: a synchronous motor , a control valve , a working pump , an energy accumulator and a pressure actuation element ; wherein a main outlet (OUT) of the synchronous motor is connected to a load keeping cavity of the pressure actuation element , a first inlet (IN1) of the synchronous motor is connected to an oil port of the energy accumulator via a first switch valve (K1) of the control valve , and a second inlet (IN2) of the synchronous motor is connected to an output port of the working pump via a second switch valve (K2) of the control valve ; and characterized in that the synchronous motor is configured to output pressure oil from both the first inlet (IN1) and the second inlet (IN2) to the main outlet (OUT). a main outlet (OUT) of the synchronous motor is connected to a load keeping cavity of the pressure actuation element , a first inlet (IN1) of the synchronous motor is connected to an oil port of the energy accumulator via a first switch valve (K1) of the control valve , and a second inlet (IN2) of the synchronous motor is connected to an output port of the working pump via a second switch valve (K2) of the control valve ; and characterized in that the synchronous motor is configured to output pressure oil from both the first inlet (IN1) and the second inlet (IN2) to the main outlet (OUT).
A monolithic integrated bulk acoustic wave BAW resonator production method, wherein the method comprises: preparing an imprint template , wherein the imprint template comprises an imprint plate and a plurality of imprint dies protruding from a surface of the imprint plate, and at least two imprint dies out of the plurality of imprint dies have different protruding heights relative to the surface of the imprint plate; forming a mask material layer on a substrate ; pressing the mask material layer in a direction of the substrate with the imprint template, to form, on the mask material layer through imprinting, a mask pattern layer , wherein the mask pattern layer comprises a plurality of mask grooves with depths consistent with heights of the imprint dies; performing plasma etching on the substrate by using the mask material layer as a mask, to form, on a surface of the substrate, a plurality of grooves that one-to-one correspond to positions of the plurality of mask grooves , wherein depths of at least two grooves out of the plurality of grooves are different; and forming, in the plurality of grooves, bottom electrode layers , piezoelectric layers , and top electrode layers that are sequentially stacked to form resonators at positions of the grooves, wherein in a direction perpendicular to the substrate, thicknesses of the bottom electrode layers are the same and are all less than depths of the grooves, and piezoelectric layer thicknesses of at least two resonators are different, or top electrode layer thicknesses of at least two resonators are different preparing an imprint template , wherein the imprint template comprises an imprint plate and a plurality of imprint dies protruding from a surface of the imprint plate, and at least two imprint dies out of the plurality of imprint dies have different protruding heights relative to the surface of the imprint plate; forming a mask material layer on a substrate ; pressing the mask material layer in a direction of the substrate with the imprint template, to form, on the mask material layer through imprinting, a mask pattern layer , wherein the mask pattern layer comprises a plurality of mask grooves with depths consistent with heights of the imprint dies; performing plasma etching on the substrate by using the mask material layer as a mask, to form, on a surface of the substrate, a plurality of grooves that one-to-one correspond to positions of the plurality of mask grooves , wherein depths of at least two grooves out of the plurality of grooves are different; and forming, in the plurality of grooves, bottom electrode layers , piezoelectric layers , and top electrode layers that are sequentially stacked to form resonators at positions of the grooves, wherein in a direction perpendicular to the substrate, thicknesses of the bottom electrode layers are the same and are all less than depths of the grooves, and piezoelectric layer thicknesses of at least two resonators are different, or top electrode layer thicknesses of at least two resonators are different
Crystalline Form IX of Compound 1 as represented by the following formula: characterized in that the crystalline Form IX has diffraction peaks at 2θ = 7.947°, 10.073°, 14.531°, 19.187°, 21.237°, 24.055°, 25.497°, in a X-ray diffraction pattern.
An electrode catalyst for a fuel cell comprising catalyst metal particles containing platinum or a platinum alloy and carrier particles on which the catalyst metal particles are carried, characterized in that the carrier particles are a carbonaceous material having a cumulative pore volume of pores having a diameter of 2 nm or less of 0.09 cm 3 /g or less and a BET specific surface area of more than 900 m 2 /g, in which the cumulative pore volume is measured with a gas adsorption amount measurement device by the BJH method at a measurement temperature of 77.4 K using nitrogen gas as the adsorbate , and the BET specific surface area is measured in accordance with JIS K6217-2. the carrier particles are a carbonaceous material having a cumulative pore volume of pores having a diameter of 2 nm or less of 0.09 cm 3 /g or less and a BET specific surface area of more than 900 m 2 /g, in which the cumulative pore volume is measured with a gas adsorption amount measurement device by the BJH method at a measurement temperature of 77.4 K using nitrogen gas as the adsorbate , and the BET specific surface area is measured in accordance with JIS K6217-2.
A method of using an aerosol-generating device having a reusable heating element , the method comprising the steps of: bringing the heating element into proximity to an aerosol-forming substrate , raising the temperature of the heating element to a first temperature to heat the aerosol-forming substrate sufficiently for an aerosol to be formed, removing the heating element from proximity to the aerosol-forming substrate , and raising the temperature of the heating element to a second temperature, higher than the first temperature, to thermally liberate organic materials adhered to or deposited on the heating element , wherein the temperature of the heating element is raised by inductive heating. bringing the heating element into proximity to an aerosol-forming substrate , raising the temperature of the heating element to a first temperature to heat the aerosol-forming substrate sufficiently for an aerosol to be formed, removing the heating element from proximity to the aerosol-forming substrate , and raising the temperature of the heating element to a second temperature, higher than the first temperature, to thermally liberate organic materials adhered to or deposited on the heating element , wherein the temperature of the heating element is raised by inductive heating.
A method for use with a series of analog delay circuits to drive a plurality of fluidic actuators with a fire signal , the method characterized in that it comprises: disabling a bias signal to each of the analog delay circuits , the bias signal to affect a selected delay in the analog delay circuits ; and providing the fire signal through the series of analog delay circuits with the bias signal disabled. disabling a bias signal to each of the analog delay circuits , the bias signal to affect a selected delay in the analog delay circuits ; and providing the fire signal through the series of analog delay circuits with the bias signal disabled.
A mobile station for power headroom reporting in a mobile communication system comprising: circuitry, which is configured to establish a dual connectivity between the mobile station and both a master base station via a first radio link and a secondary base station via a secondary radio link, wherein a scheduler of the secondary base station is independent from a scheduler of the master base station, and calculate a virtual power headroom report for an activated serving cell of the secondary radio link based on a virtual uplink resource assignment for the secondary radio link, when a virtual power headroom calculation is configured; and a transmitter, which is configured to transmit the calculated virtual power headroom report of the secondary radio link from the mobile station to the master base station, and a receiver, which is configured to receive power distribution information from the master base station for adapting a power distribution ratio for uplink transmissions from the mobile station to the master and secondary base stations. circuitry, which is configured to establish a dual connectivity between the mobile station and both a master base station via a first radio link and a secondary base station via a secondary radio link, wherein a scheduler of the secondary base station is independent from a scheduler of the master base station, and calculate a virtual power headroom report for an activated serving cell of the secondary radio link based on a virtual uplink resource assignment for the secondary radio link, when a virtual power headroom calculation is configured; and establish a dual connectivity between the mobile station and both a master base station via a first radio link and a secondary base station via a secondary radio link, wherein a scheduler of the secondary base station is independent from a scheduler of the master base station, and calculate a virtual power headroom report for an activated serving cell of the secondary radio link based on a virtual uplink resource assignment for the secondary radio link, when a virtual power headroom calculation is configured; and a transmitter, which is configured to transmit the calculated virtual power headroom report of the secondary radio link from the mobile station to the master base station, and a receiver, which is configured to receive power distribution information from the master base station for adapting a power distribution ratio for uplink transmissions from the mobile station to the master and secondary base stations.
Method for extracting the tantalum from an acid aqueous phase A1 comprising at least one step comprising the bringing of the aqueous phase A1 into contact with a phase A2 that is not miscible with water, and then the separation of the aqueous phase A1 from the phase A2, characterised in that the phase A2 consists of one ionic liquid or a mixture of ionic liquids, preferably a ionic liquid, as an extractant.
A system comprising: a system controller for a refrigeration or HVAC system having a compressor rack with a plurality of compressors and a condensing unit with a plurality of condenser fans , the system controller being configured to monitor and control operation of the refrigeration or HVAC system; a rack controller in communication with the system controller, the rack controller being configured to monitor and control operation of the compressor rack ; and a condensing unit controller in communication with the system controller, the condensing unit controller being configured to monitor and control operation of the condensing unit ; wherein the system controller is configured to receive a signal corresponding to limiting power consumption and to select at least one compressor from the plurality of compressors and at least one condenser fan from the plurality of condenser fans to operate to provide needed refrigeration capacity, while maintaining a total power consumption below a power threshold associated with the signal, by modifying the operation of the at least one compressor and the at least one condenser fan; wherein the system controller is configured to monitor the modified operation; and wherein the system controller is configured to, in response to the modified operation of the at least one compressor and the at least one condenser fan maintaining or increasing the total power consumption, perform an opposite modification to the operation of the at least one compressor and the at least one condenser fan. a system controller for a refrigeration or HVAC system having a compressor rack with a plurality of compressors and a condensing unit with a plurality of condenser fans , the system controller being configured to monitor and control operation of the refrigeration or HVAC system; a rack controller in communication with the system controller, the rack controller being configured to monitor and control operation of the compressor rack ; and a condensing unit controller in communication with the system controller, the condensing unit controller being configured to monitor and control operation of the condensing unit ; wherein the system controller is configured to receive a signal corresponding to limiting power consumption and to select at least one compressor from the plurality of compressors and at least one condenser fan from the plurality of condenser fans to operate to provide needed refrigeration capacity, while maintaining a total power consumption below a power threshold associated with the signal, by modifying the operation of the at least one compressor and the at least one condenser fan; wherein the system controller is configured to monitor the modified operation; and wherein the system controller is configured to, in response to the modified operation of the at least one compressor and the at least one condenser fan maintaining or increasing the total power consumption, perform an opposite modification to the operation of the at least one compressor and the at least one condenser fan.
Pharmaceutical composition, comprising 0.15 mM to 0.5 mM TNFR:Fc, a citrate buffer at a concentration from 25 mM to 120 mM at a pH from 6.2 to 6.4, and an amino acid at a concentration from 15 mM to 100 mM selected from the group consisting of lysine and proline and their pharmaceutical acceptable salts; wherein TNFR:Fc is etanercept.
Combination of a workboat , in particular a harvesting boat , and a transport module , in particular a barge (7.1) or a docking module (7.2), which are based on the same platform design, wherein the workboat and the transport module each have at least two hulls , a body , at least one conveyor belt (4.1) and at least one carrier frame (4.4), which is fastened on the body between a bow and a stern in the rear area, wherein the workboat contains at least one work tool (5.1), in particular a harvesting tool (6.1), which is arranged on the carrier frame (4.4), wherein the range of movement of the carrier frame and/or the work tool (5.1) is located in the transverse direction centrally with respect to the workboat , between the at least two hulls , which extend in the longitudinal direction, and wherein the workboat and the transport module have a coupling system having at least one connection element (4.2), consisting of a catching device having a self-retaining locking device.