mhurhangee/patent-ind-claim-en huggingface dataset:
A mobile terminal, comprising: a display screen ; a flexible circuit board below the display screen , the flexible circuit board being provided with a first light source ; an optical fingerprint module below the display screen , wherein a fingerprint recognition area is disposed on a surface of the optical fingerprint module facing the display screen , and the flexible circuit board is located outside the optical fingerprint module ; characterized in that the mobile terminal further comprises: a light guide part arranged at a periphery of the fingerprint recognition area and capable of receiving light emitted by the first light source . a display screen ; a flexible circuit board below the display screen , the flexible circuit board being provided with a first light source ; an optical fingerprint module below the display screen , wherein a fingerprint recognition area is disposed on a surface of the optical fingerprint module facing the display screen , and the flexible circuit board is located outside the optical fingerprint module ; characterized in that the mobile terminal further comprises: a light guide part arranged at a periphery of the fingerprint recognition area and capable of receiving light emitted by the first light source .
An air conditioner comprising: a first outdoor unit including an engine operated by combustion of a gas fuel and a compressor connected to the engine by a belt for compressing refrigerant; a second outdoor unit including an outdoor heat exchanger that is placed apart from the first outdoor unit and configured to transfer heat between outside air and refrigerant discharged from the compressor , a water pump configured to supply water to the engine , and a heat radiator configured to transfer heat between the water and outside air, wherein the second outdoor unit is placed apart from the first outdoor unit ; a first refrigerant tube that is exposed on the outside of the first outdoor unit and the second outdoor unit , and connected to the compressor ; and a water tube that is exposed on the outside of the first outdoor unit and second outdoor unit , and connects the engine and the water pump , wherein the second outdoor unit further comprises: a plate-type heat exchanger configured to transfer heat between the water and the refrigerant; a first valve configured to send the water discharged from the engine selectively to the plate-type heat exchanger or the heat radiator ; and a second valve configured to send the water discharged from the engine selectively to the first valve or the water pump . a first outdoor unit including an engine operated by combustion of a gas fuel and a compressor connected to the engine by a belt for compressing refrigerant; a second outdoor unit including an outdoor heat exchanger that is placed apart from the first outdoor unit and configured to transfer heat between outside air and refrigerant discharged from the compressor , a water pump configured to supply water to the engine , and a heat radiator configured to transfer heat between the water and outside air, wherein the second outdoor unit is placed apart from the first outdoor unit ; a first refrigerant tube that is exposed on the outside of the first outdoor unit and the second outdoor unit , and connected to the compressor ; and a water tube that is exposed on the outside of the first outdoor unit and second outdoor unit , and connects the engine and the water pump , wherein the second outdoor unit further comprises: a plate-type heat exchanger configured to transfer heat between the water and the refrigerant; a first valve configured to send the water discharged from the engine selectively to the plate-type heat exchanger or the heat radiator ; and a second valve configured to send the water discharged from the engine selectively to the first valve or the water pump . a plate-type heat exchanger configured to transfer heat between the water and the refrigerant; a first valve configured to send the water discharged from the engine selectively to the plate-type heat exchanger or the heat radiator ; and a second valve configured to send the water discharged from the engine selectively to the first valve or the water pump .
A respiratory syncytial virus (RSV) vaccine comprising a recombinant fusion protein antigen; wherein the recombinant fusion protein antigen comprises: a phosphoprotein (P) moiety, wherein the P moiety is a polypeptide that shares at least 98% identity to the polypeptide represented by SEQ ID NO 2 or SEQ ID NO 4; and a flagellin moiety, wherein the flagellin moiety is a polypeptide that shares at least 98% identity to the polypeptide represented by SEQ ID NO 8; where the P moiety and flagellin moiety are covalently coupled so as to form a linear polypeptide. a phosphoprotein (P) moiety, wherein the P moiety is a polypeptide that shares at least 98% identity to the polypeptide represented by SEQ ID NO 2 or SEQ ID NO 4; and a flagellin moiety, wherein the flagellin moiety is a polypeptide that shares at least 98% identity to the polypeptide represented by SEQ ID NO 8; where the P moiety and flagellin moiety are covalently coupled so as to form a linear polypeptide.
An apparatus , comprising: a solid-state lighting panel comprising a plurality of solid-state light emitters and being configured to receive an input signal from a lighting panel group controller that is configured to control the solid-state lighting panel to disperse illumination throughout a personnel space , wherein the input signal corresponds to a sensor signal that is generated by a personnel sensor, and wherein responsive to the sensor signal that is generated by the personnel sensor, the solid-state lighting panel is configured to selectively operate in at least one of an illumination mode to illuminate the personnel space or a communication mode to communicate information within the personnel space. a solid-state lighting panel comprising a plurality of solid-state light emitters and being configured to receive an input signal from a lighting panel group controller that is configured to control the solid-state lighting panel to disperse illumination throughout a personnel space , wherein the input signal corresponds to a sensor signal that is generated by a personnel sensor, and wherein responsive to the sensor signal that is generated by the personnel sensor, the solid-state lighting panel is configured to selectively operate in at least one of an illumination mode to illuminate the personnel space or a communication mode to communicate information within the personnel space.
A liquid reservoir component of an electronic vaping/ e-vaping device comprising: an outer casing extending in a longitudinal direction; an air inlet ; a vapor outlet , the vapor outlet and air inlet at least partially defining two air passages ; a liquid reservoir configured to contain a liquid material, the liquid reservoir provided in the outer casing , the at least two air passages extending along an outer periphery of the liquid reservoir ; a respective susceptor located adjacent to each air passage ; and a respective wick in communication with the liquid reservoir and configured to be in thermal communication with each respective susceptor such that each wick delivers liquid material to the respective susceptor wherein each susceptor is configured to heat the liquid material to a temperature to vaporize the liquid material, the liquid reservoir component being configured to connect with a power supply component , the power supply component containing a power source in electrical communication with an induction source , the induction source being axially spaced from each respective susceptor if the liquid reservoir component is attached to the power supply component such that the induction source is configured to generate an inductive field to heat each respective susceptor if powered by the power source . an outer casing extending in a longitudinal direction; an air inlet ; a vapor outlet , the vapor outlet and air inlet at least partially defining two air passages ; a liquid reservoir configured to contain a liquid material, the liquid reservoir provided in the outer casing , the at least two air passages extending along an outer periphery of the liquid reservoir ; a respective susceptor located adjacent to each air passage ; and a respective wick in communication with the liquid reservoir and configured to be in thermal communication with each respective susceptor such that each wick delivers liquid material to the respective susceptor wherein each susceptor is configured to heat the liquid material to a temperature to vaporize the liquid material,
A method for manufacturing a pourer provided with a pour spout that serves as a spout for a content liquid stored in a container main body, and is used by attaching to a mouth part of the container main body, comprising: molding the pourer in a prescribed shape by using a thermoplastic resin, and forming a surplus resin part that protrudes outwardly in the radial direction from an outer peripheral edge of a top surface of the pour spout in at least a part of said top surface of the pour spout through which the content liquid passes by heating press in which a heating plate is pressed against said top surface of the pour spout and by solidifying a molten resin which is pushed out outwardly in the radial direction from the outer peripheral edge of said top surface of the pour spout . molding the pourer in a prescribed shape by using a thermoplastic resin, and forming a surplus resin part that protrudes outwardly in the radial direction from an outer peripheral edge of a top surface of the pour spout in at least a part of said top surface of the pour spout through which the content liquid passes by heating press in which a heating plate is pressed against said top surface of the pour spout and by solidifying a molten resin which is pushed out outwardly in the radial direction from the outer peripheral edge of said top surface of the pour spout .
A surgical instrument for coagulating and dissecting tissue, comprising: a processor; an end effector at a distal end of the surgical instrument, the end effector configured to interact with tissue, the end effector comprising: a clamp arm comprising an electrode; and an ultrasonic blade ; an ultrasonic transducer acoustically coupled to the ultrasonic blade and configured to receive an ultrasonic drive signal from a generator to cause ultrasonic motion of the ultrasonic blade and deliver ultrasonic energy to the ultrasonic blade; wherein the processor is configured to: determine a tissue impedance of a tissue interacting with the end effector; and dynamically control delivery of radio frequency (RF) energy to the electrode and the drive signal to the ultrasonic transducer based on the tissue impedance interacting with the end effector; characterized in that the end effector further comprises an aperture sensor; wherein the processor is further configured to switch between delivery of the RF energy and the ultrasonic drive signal based on the aperture defined by the end effector to dynamically switch between RF energy for tissue sealing and ultrasonic energy for tissue cutting. a processor; an end effector at a distal end of the surgical instrument, the end effector configured to interact with tissue, the end effector comprising: a clamp arm comprising an electrode; and an ultrasonic blade ; a clamp arm comprising an electrode; and an ultrasonic blade ; an ultrasonic transducer acoustically coupled to the ultrasonic blade and configured to receive an ultrasonic drive signal from a generator to cause ultrasonic motion of the ultrasonic blade and deliver ultrasonic energy to the ultrasonic blade; wherein the processor is configured to: determine a tissue impedance of a tissue interacting with the end effector; and dynamically control delivery of radio frequency (RF) energy to the electrode and the drive signal to the ultrasonic transducer based on the tissue impedance interacting with the end effector; determine a tissue impedance of a tissue interacting with the end effector; and dynamically control delivery of radio frequency (RF) energy to the electrode and the drive signal to the ultrasonic transducer based on the tissue impedance interacting with the end effector; characterized in that the end effector further comprises an aperture sensor; wherein the processor is further configured to switch between delivery of the RF energy and the ultrasonic drive signal based on the aperture defined by the end effector to dynamically switch between RF energy for tissue sealing and ultrasonic energy for tissue cutting.
A toggle-type open-close clamping structural assembly, comprising a lower tube clamp and an upper tube clamp oppositely arranged to clamping a tube, and comprising an upper pressing block used for lifting and lowering, characterized by comprising: a driving lever used for enabling the upper tube clamp to lift, lower and slide together with the upper pressing block, the driving lever is pivotally connected to the upper pressing block, the upper tube clamp and one end of the driving lever are overlappingly disposed in a groove reserved on the upper pressing block, and the other end of the driving lever is abutted against a fixed part serving as fixing reference, the driving lever swings under an action of the fixed part to lift the upper tube clamp , and the height variation of the upper tube clamp is larger than that of the upper pressing block to generate a relative displacement between the upper tube clamp and the upper pressing block.
A pharmaceutical composition comprising a recombinant adeno-associated viral vector comprising a nucleotide sequence as set for in SEQ ID NO: 1 encoding sulfamidase protein of SEQ ID NO: 2 for use as long term treatment, wherein the long term treatment shows an effect that persists for at least three months, of Sanfilippo syndrome type A in a human subject, by means of one single intracerebroventricular administration of the pharmaceutical composition and resulting in prolonged and sustained production of the sulfamidase protein.
A flight compensator for an aircraft, comprising a friction module with variable friction coupled on the one hand to a drive shaft and on the other hand to an output shaft via a kinematic chain , characterised in that it includes a control circuit controlling the friction module from an angular displacement value of the output shaft delivered by a position sensor and as a function of a force feedback control signal (S h ) delivered by a flight control calculator (FCC).
A method of detecting a target analyte in a sample, comprising, a. functionalizing a bead in a buffer; b. contacting the functionalized bead with a primary antibody-labelled conjugate; c. introducing the functionalized bead-antibody-labelled conjugate into an immunoassay device comprising a sample; d. introducing a secondary antibody labeled with a fluorescent tag into the device; e. applying an alternating current (AC) electrokinetic field; and f. detecting bound analyte, wherein the immunoassay device is for detecting an analyte in a sample, the device comprising: (a) a microelectrode array, the array capable of establishing an AC electrokinetic field region and isolating a bead complex in a high conductivity buffer, wherein the bead complex comprises a functionalized bead bound to a labelled-primary antibody; (b) a fluidic cartridge, the fluidic cartridge capable of housing the microelectrode array and further comprising at least one port for addition and removal of buffers and reagents; and (c) a fluorescent or luminescent detection system, whereby the presence, absence and/or amount of said analyte in the sample is determined by assessing fluorescence or luminescence from the isolated bead complex bound to a secondary antibody labelled with a fluorescent or luminescent probe. a. functionalizing a bead in a buffer; b. contacting the functionalized bead with a primary antibody-labelled conjugate; c. introducing the functionalized bead-antibody-labelled conjugate into an immunoassay device comprising a sample; d. introducing a secondary antibody labeled with a fluorescent tag into the device; e. applying an alternating current (AC) electrokinetic field; and f. detecting bound analyte, (a) a microelectrode array, the array capable of establishing an AC electrokinetic field region and isolating a bead complex in a high conductivity buffer, wherein the bead complex comprises a functionalized bead bound to a labelled-primary antibody; (b) a fluidic cartridge, the fluidic cartridge capable of housing the microelectrode array and further comprising at least one port for addition and removal of buffers and reagents; and (c) a fluorescent or luminescent detection system, whereby the presence, absence and/or amount of said analyte in the sample is determined by assessing fluorescence or luminescence from the isolated bead complex bound to a secondary antibody labelled with a fluorescent or luminescent probe.
Method for determining an apparent colour value of pixels corresponding to a subpart of a document designed for receiving marks represented in an image, referred to as the acquired image, characterised in that the method comprises: estimating a geometric distortion model of said document in the acquired image compared with a reference model of the document; from the geometric distortion model and the reference model of the document, determining a position in the acquired image of the subpart and determining a zone of the acquired image, referred to as the reference zone, situated in a predetermined vicinity of the subpart, each pixel of the reference zone resulting from a projection in the acquired image of a zone of the reference model of the document not designed for receiving marks, referred to as a blank zone, the blank zone being associated with a second predetermined colour value in the reference model of the document, said second predetermined colour value having a known difference with respect to the first predetermined colour value associated with the subpart in the reference model of the document, the projection using the geometric distortion model; and determining an apparent colour value of the pixels of the subpart, from a colour value of at least one pixel of the reference zone and said difference. estimating a geometric distortion model of said document in the acquired image compared with a reference model of the document; from the geometric distortion model and the reference model of the document, determining a position in the acquired image of the subpart and determining a zone of the acquired image, referred to as the reference zone, situated in a predetermined vicinity of the subpart, each pixel of the reference zone resulting from a projection in the acquired image of a zone of the reference model of the document not designed for receiving marks, referred to as a blank zone, the blank zone being associated with a second predetermined colour value in the reference model of the document, said second predetermined colour value having a known difference with respect to the first predetermined colour value associated with the subpart in the reference model of the document, the projection using the geometric distortion model; and determining an apparent colour value of the pixels of the subpart, from a colour value of at least one pixel of the reference zone and said difference.
A MEMS tunable capacitor comprising: a primary stationary actuator electrode on a substrate ; a secondary stationary actuator electrode on the substrate ; a stationary RF signal capacitor plate electrode on the substrate ; a sprung cantilever disposed over the substrate , the sprung cantilever comprising: a primary movable actuator electrode positioned over the primary stationary actuator electrode ; a secondary movable actuator electrode positioned over the secondary stationary actuator electrode ; a RF signal path ; and a movable RF signal capacitor plate in communication with the RF signal path and positioned over the stationary RF signal capacitor plate electrode ; a beam anchor connecting a first end of the sprung cantilever to the substrate ; and one or more elastic springs or other biasing members connecting a second end of the sprung cantilever to the substrate , the second end being located distally from the first end; wherein the one or more elastic springs or other biasing members are configured to limit beam deflection in an out-of-plane direction while at the same time decoupling the sprung cantilever from the substrate in an in-plane longitudinal direction; and wherein the sprung cantilever is movable between an OFF state at which the sprung cantilever is separated from the substrate by an air gap , and an ON state at which the sprung cantilever is deflected toward the substrate . a primary stationary actuator electrode on a substrate ; a secondary stationary actuator electrode on the substrate ; a stationary RF signal capacitor plate electrode on the substrate ; a sprung cantilever disposed over the substrate , the sprung cantilever comprising: a primary movable actuator electrode positioned over the primary stationary actuator electrode ; a secondary movable actuator electrode positioned over the secondary stationary actuator electrode ; a RF signal path ; and a movable RF signal capacitor plate in communication with the RF signal path and positioned over the stationary RF signal capacitor plate electrode ; a primary movable actuator electrode positioned over the primary stationary actuator electrode ; a secondary movable actuator electrode positioned over the secondary stationary actuator electrode ; a RF signal path ; and a movable RF signal capacitor plate in communication with the RF signal path and positioned over the stationary RF signal capacitor plate electrode ; a beam anchor connecting a first end of the sprung cantilever to the substrate ; and one or more elastic springs or other biasing members connecting a second end of the sprung cantilever to the substrate , the second end being located distally from the first end; wherein the one or more elastic springs or other biasing members are configured to limit beam deflection in an out-of-plane direction while at the same time decoupling the sprung cantilever from the substrate in an in-plane longitudinal direction; and wherein the sprung cantilever is movable between an OFF state at which the sprung cantilever is separated from the substrate by an air gap , and an ON state at which the sprung cantilever is deflected toward the substrate .
A method for carrying out a test run on a test bench , wherein a test object is connected to a load machine on the test bench , wherein a target torque (T_soll) is specified for a torque controller (R2) by a test bench automation unit according to the test run, whereby an actual torque (T_ist) of the load machine is adjusted by the torque controller (R2), and wherein a test object control variable (SW) is specified for the test object by a test object controller (R1), characterized in that an actual rotational speed (n) of the load machine is determined and at least one deviation (a, a1, a2) of at least one attribute of the actual rotational speed (n) from at least one threshold value (G) is determined, and in that, based on the at least one deviation (a, a1, a2), at least one additive torque correction value (Tk) is determined and superimposed on the target torque (T_soll).