mhurhangee/patent-ind-claim-en huggingface dataset:
A method for handling reception of a plurality of media streams in a mission critical, MC, system, the method comprising: transmitting, by an MC server , a request to each of one or more receiving devices for receiving a plurality of media streams from a plurality of transmitting devices ; receiving, by the MC server, a response from each one of the one or more receiving devices for receiving a number of media streams among the plurality of media streams transmitted by the one or more of the plurality of transmitting devices and updating the number of media streams to be received by each one of the one or more receiving devices as a counter value; identifying, by the MC server, the one or more receiving devices intended to receive the media streams from the one or more of the plurality of transmitting devices based on a synchronization source, SSRC, identifier associated with media streams of each of the one or more of the plurality of transmitting devices and the counter value; transmitting, based on the SSRC identifier and the counter value, by the MC server, media streams from the one or more of the plurality of transmitting devices to the identified one or more receiving devices; initializing the counter value to zero and emptying an SSRC list when the MC server enters a first state, wherein the first state is a state of not being permitted to receive media; and entering the first state from a second state if the counter value reaches a minimum value, wherein the second state is a state of being permitted to receive media. transmitting, by an MC server , a request to each of one or more receiving devices for receiving a plurality of media streams from a plurality of transmitting devices ; receiving, by the MC server, a response from each one of the one or more receiving devices for receiving a number of media streams among the plurality of media streams transmitted by the one or more of the plurality of transmitting devices and updating the number of media streams to be received by each one of the one or more receiving devices as a counter value; identifying, by the MC server, the one or more receiving devices intended to receive the media streams from the one or more of the plurality of transmitting devices based on a synchronization source, SSRC, identifier associated with media streams of each of the one or more of the plurality of transmitting devices and the counter value; transmitting, based on the SSRC identifier and the counter value, by the MC server, media streams from the one or more of the plurality of transmitting devices to the identified one or more receiving devices; initializing the counter value to zero and emptying an SSRC list when the MC server enters a first state, wherein the first state is a state of not being permitted to receive media; and entering the first state from a second state if the counter value reaches a minimum value, wherein the second state is a state of being permitted to receive media.
A coating system on a surface region of a gas turbine engine component , the coating system comprising an intermetallic overlay coating containing beta and gamma-prime nickel aluminide intermetallic phases characterized in that the intermetallic overlay coating consists essentially of 10 to 85 volume percent of the gamma-prime phase, and the balance the beta phase and in that the intermetallic overlay coating comprises, by weight, at least 14% aluminum, and wherein the intermetallic overlay coating is on a substrate of said gas turbine engine component .
A fuel cell stack having a plurality of fuel cells stacked on top of one another along a stacking direction, at least one of the fuel cells having at least one compressible fabric structure to which a spring function with a spring constant is assigned, wherein a change in length of the fuel cell along the stacking direction can be compensated by means of the spring function by a negative change in length of the compressible fabric structure which is opposite thereto, characterized in that the spring function of the compressible fabric structure enables length compensation of the fuel cells in all operating states, so that the fuel cells have a defined length in the stacking direction irrespective of the operating state.
Apparatus for controlling flow of air through an air inlet in a solid fuel burner, the apparatus comprising: a. a mechanical temperature sensor for sensing the temperature within the solid fuel burner, and b. a movable valve member for controlling the flow of air through the air inlet, the movable valve member being coupled to the mechanical temperature sensor so as to close or restrict the air inlet as the sensed temperature increases; characterised in that : the sensor comprises first and second elongate parts , the first elongate part having a first, moveable end that moves linearly in a direction of the length of the first elongate part due to a difference in thermal expansion coefficients of the materials of the first and second elongate parts , in response to a change in the sensed temperature; and in that the movable valve member is coupled to the first, moveable end of the first elongate part . a. a mechanical temperature sensor for sensing the temperature within the solid fuel burner, and b. a movable valve member for controlling the flow of air through the air inlet, the movable valve member being coupled to the mechanical temperature sensor so as to close or restrict the air inlet as the sensed temperature increases; characterised in that : the sensor comprises first and second elongate parts , the first elongate part having a first, moveable end that moves linearly in a direction of the length of the first elongate part due to a difference in thermal expansion coefficients of the materials of the first and second elongate parts , in response to a change in the sensed temperature; and in that the movable valve member is coupled to the first, moveable end of the first elongate part . the sensor comprises first and second elongate parts , the first elongate part having a first, moveable end that moves linearly in a direction of the length of the first elongate part due to a difference in thermal expansion coefficients of the materials of the first and second elongate parts , in response to a change in the sensed temperature; and in that the movable valve member is coupled to the first, moveable end of the first elongate part .
An oral cleansing device comprising: a housing including an aperture defined therethrough; a light diffuser connected to the housing and configured to span over the aperture; a blocking member positioned over at least a portion of the light diffuser and connected thereto, the blocking member comprising a button that is movable relative to the housing, wherein as the button moves from a first position to a second position, the light diffuser moves therewith; and a lighting array received within the housing and oriented behind or beneath the button such that light emitted from the lighting array is transmitted to an exterior of the housing by traveling around the button and through the light diffuser. a housing including an aperture defined therethrough; a light diffuser connected to the housing and configured to span over the aperture; a blocking member positioned over at least a portion of the light diffuser and connected thereto, the blocking member comprising a button that is movable relative to the housing, wherein as the button moves from a first position to a second position, the light diffuser moves therewith; and a lighting array received within the housing and oriented behind or beneath the button such that light emitted from the lighting array is transmitted to an exterior of the housing by traveling around the button and through the light diffuser.
A method of processing a cardiac signal represented as a function of time, comprising the steps of: a) providing a number n of different threshold levels N i , where i=1 to n and n is equal to or greater than three; b) detecting, from a given time T and per threshold level N 1 , at least two successive intersections of the cardiac signal with the threshold level N i , by considering a crossing by increasing and/or decreasing value of the cardiac signal with the threshold level N i ; c) determining at least one statistical parameter of the cardiac signal from the intersections of the cardiac signal with the at least three different threshold levels N i . a) providing a number n of different threshold levels N i , where i=1 to n and n is equal to or greater than three; b) detecting, from a given time T and per threshold level N 1 , at least two successive intersections of the cardiac signal with the threshold level N i , by considering a crossing by increasing and/or decreasing value of the cardiac signal with the threshold level N i ; c) determining at least one statistical parameter of the cardiac signal from the intersections of the cardiac signal with the at least three different threshold levels N i .
A docking apparatus , comprising a processor and a plurality of photosensitive components electrically connected to the processor , wherein: the processor is configured to determine, from the plurality of photosensitive components , a photosensitive component that receives a laser light , wherein the laser light is emitted by an opposite-end apparatus to be docked with the docking apparatus ; and the processor is configured to control, based on a positional deviation between the photosensitive component that receives the laser light and a target photosensitive component , the docking apparatus to move to a docking position calibrated by the target photosensitive component , so that the docking apparatus docks with the opposite-end apparatus , wherein the docking position is a position where the target photosensitive component receives the laser light emitted by the opposite-end apparatus . the processor is configured to determine, from the plurality of photosensitive components , a photosensitive component that receives a laser light , wherein the laser light is emitted by an opposite-end apparatus to be docked with the docking apparatus ; and the processor is configured to control, based on a positional deviation between the photosensitive component that receives the laser light and a target photosensitive component , the docking apparatus to move to a docking position calibrated by the target photosensitive component , so that the docking apparatus docks with the opposite-end apparatus ,
A method, comprising: dehydrohalogenating 1,1,1,2,3,3-hexafluoropropane to produce 1,2,3,3,3-pentafluoropropene and adding an effective amount of water to form an azeotropic composition of the 1,2,3,3,3-pentafluoropropene and water; removing an azeotropic mixture of 1,2,3,3,3-pentafluoropropene and water; separating the 1,2,3,3,3-pentafluoropropene from the water in the azeotropic mixture; and producing 2,3,3,3-tetrafluoro-1-propene from the 1,2,3,3,3-pentafluoropropene. dehydrohalogenating 1,1,1,2,3,3-hexafluoropropane to produce 1,2,3,3,3-pentafluoropropene and adding an effective amount of water to form an azeotropic composition of the 1,2,3,3,3-pentafluoropropene and water; removing an azeotropic mixture of 1,2,3,3,3-pentafluoropropene and water; separating the 1,2,3,3,3-pentafluoropropene from the water in the azeotropic mixture; and producing 2,3,3,3-tetrafluoro-1-propene from the 1,2,3,3,3-pentafluoropropene.
Arrangement for extracting water from a humid gas mixture at a first temperature, comprising: - a compressor device suitable for compressing the gas mixture from a first pressure (P1) to a second pressure (P2) at which the dew point of the gas mixture lies above the first temperature, - a pressure vessel for receiving the gas mixture and condensing out at least a first fraction of the water from the gas mixture in the pressure vessel , - characterized in that the arrangement comprises a pressure exchanger suitable for transferring the second pressure (P2) from the gas mixture with reduced water content to a fresh feed of the gas mixture, - wherein the pressure exchanger and the pressure vessel are connected to one another via lines in such a way that the fresh feed at the second pressure (P2) can be guided from the pressure exchanger into the pressure vessel , and the gas mixture with the reduced water content can be guided from the pressure vessel into the pressure exchanger . - a compressor device suitable for compressing the gas mixture from a first pressure (P1) to a second pressure (P2) at which the dew point of the gas mixture lies above the first temperature, - a pressure vessel for receiving the gas mixture and condensing out at least a first fraction of the water from the gas mixture in the pressure vessel , - characterized in that the arrangement comprises a pressure exchanger suitable for transferring the second pressure (P2) from the gas mixture with reduced water content to a fresh feed of the gas mixture, - wherein the pressure exchanger and the pressure vessel are connected to one another via lines in such a way that the fresh feed at the second pressure (P2) can be guided from the pressure exchanger into the pressure vessel , and the gas mixture with the reduced water content can be guided from the pressure vessel into the pressure exchanger .
A separator for the centrifugal separation of a free-flowing product into different phases or for the centrifugal clarification of a product, having at least the following features: a. a rotatable drum with a lower section and an upper section , b. a means arranged in the drum for the clarification of a product which is to be processed in the centrifugal field, c. wherein one or both of the following parts are of a conical design: the drum upper section and the drum lower section , d. wherein a plurality or all of the following elements consist of plastic or a plastic-composite material: - the drum lower section , - the drum upper section , - the means for clarification, characterized in that e. the drum with its feed system and its discharge system, is designed in a sealed type of construction, and f. at least one discharge channel for a dense product phase is integrated into the drum upper section . a. a rotatable drum with a lower section and an upper section , b. a means arranged in the drum for the clarification of a product which is to be processed in the centrifugal field, c. wherein one or both of the following parts are of a conical design: the drum upper section and the drum lower section , d. wherein a plurality or all of the following elements consist of plastic or a plastic-composite material: - the drum lower section , - the drum upper section , - the means for clarification, - the drum lower section , - the drum upper section , - the means for clarification, e. the drum with its feed system and its discharge system, is designed in a sealed type of construction, and f. at least one discharge channel for a dense product phase is integrated into the drum upper section .
An aerofoil (1; 1') having a main portion (10; 10') of aerofoil cross section and a trailing edge portion (12; 12') movable with respect to the main portion by an actuating device (14; 14'), wherein the trailing edge portion is movable at or about an area (A; A'), the area (A; A') being located at a pressure or suction surface of the aerofoil, wherein the trailing edge portion is connected to the main portion by first and second connection members (18, 20; 18', 20'), the first and second connection members being flexible, wherein the first connection member extends inwardly away from the area (A; A') and has an end which is directly or indirectly connected to the main portion, wherein the first and second connection members at least partially define a cavity (30; 30') when the aerofoil is viewed in cross section, and wherein the cavity is provided with an inertia damper (40; 40').
Container closing device of the stopper kind including in the lower portion thereof a sealing body , and in the upper portion thereof a head , said head including an RFID component presented in the form of an insert , a shell including an outer surface and an inner surface, and a ballast inside the shell , said closing device being characterised in that: - the outer surface of the shell is at least partially metallised; - the insert is positioned inside the shell substantially centred on a radial plane of the head ; - the ballast is separated from the insert by at least one empty space arranged inside the head . - the outer surface of the shell is at least partially metallised; - the insert is positioned inside the shell substantially centred on a radial plane of the head ; - the ballast is separated from the insert by at least one empty space arranged inside the head .
Production apparatus for a composite component , having a guide device and an assembly unit , wherein the guide device is designed to feed a rod product to the assembly unit , and wherein the assembly unit is designed to connect the rod product to a flexible sheet material , characterized in that a blasting apparatus is arranged between the guide device and the assembly unit in order to treat the rod product with a blasting medium.
A battery pack, comprising: a battery box , wherein the battery box comprises an upper cover and a lower box , and the upper cover and the lower box are sealed; a plurality of battery modules , accommodated in the battery box , wherein each battery module comprises a plurality of battery cells arranged in a horizontal direction and a plurality of busbars electrically connecting the plurality of battery cells , each battery cell comprises an electrode assembly and a battery housing , the electrode assembly is accommodated in the battery housing , and the electrode assembly comprises a first electrode plate , a second electrode plate , and a separator disposed between the first electrode plate and the second electrode plate ; a cooling plate , disposed at a side of the battery module in a vertical direction and disposed outside the battery box ; and a buffering member , disposed between the cooling plate and the battery box , wherein an elastic modulus of the buffering member is less than an elastic modulus of the cooling plate and an elastic modulus of the battery box ; wherein, the electrode assembly is of a wound structure and is flat, outer surfaces of the electrode assembly comprise two flat surfaces that are opposite to each other in the vertical direction; or, the electrode assembly is of a laminated structure, and the first electrode plate , the separator , and the second electrode plate are stacked along the vertical direction. a battery box , wherein the battery box comprises an upper cover and a lower box , and the upper cover and the lower box are sealed; a plurality of battery modules , accommodated in the battery box , wherein each battery module comprises a plurality of battery cells arranged in a horizontal direction and a plurality of busbars electrically connecting the plurality of battery cells , each battery cell comprises an electrode assembly and a battery housing , the electrode assembly is accommodated in the battery housing , and the electrode assembly comprises a first electrode plate , a second electrode plate , and a separator disposed between the first electrode plate and the second electrode plate ; a cooling plate , disposed at a side of the battery module in a vertical direction and disposed outside the battery box ; and a buffering member , disposed between the cooling plate and the battery box , wherein an elastic modulus of the buffering member is less than an elastic modulus of the cooling plate and an elastic modulus of the battery box ; wherein, the electrode assembly is of a wound structure and is flat, outer surfaces of the electrode assembly comprise two flat surfaces that are opposite to each other in the vertical direction; or, the electrode assembly is of a laminated structure, and the first electrode plate , the separator , and the second electrode plate are stacked along the vertical direction.
A method for producing an orthodontic correcting device having a wire or a wall , which wire or wall rests on a tooth surface and has a dynamic synthetic material that changes its shape in a predictable way upon contact with water or saliva or heat, having the steps of - detecting the actual position of a tooth to be corrected, - calculating the nominal position of the tooth to be corrected, - calculating the wall or wire of the correcting device , taking into account the actual position, the nominal position and the change in shape of the dynamic synthetic material, - producing the correcting device with the wall resting on the tooth surface in the actual position or the wire resting on the tooth surface, which wall or wire changes its shape at least in sections in a way as calculated upon contact with water or saliva or heat in order to move the tooth in the direction of the nominal position. - detecting the actual position of a tooth to be corrected, - calculating the nominal position of the tooth to be corrected, - calculating the wall or wire of the correcting device , taking into account the actual position, the nominal position and the change in shape of the dynamic synthetic material, - producing the correcting device with the wall resting on the tooth surface in the actual position or the wire resting on the tooth surface, which wall or wire changes its shape at least in sections in a way as calculated upon contact with water or saliva or heat in order to move the tooth in the direction of the nominal position.
An articulating arm assembly and a passenger seat, the articulating arm assembly comprising: a static portion attached to the passenger seat; a rotation portion attached to the static portion such that the rotation portion pivots about a rotation axis; an arm body attached to the rotation portion , the rotation portion and the arm body comprise a stowed position and a deployed position; and a wiring portion disposed inside the arm body and extending from the arm body into the rotation portion , wherein the wiring portion disposed such that it extends parallel to the rotation axis from the rotation portion toward and into the static portion or that it extends along an axis that is coincident with the rotation axis from the rotation portion toward and into the static portion , and wherein the static portion comprises a main portion and a housing portion ; and the housing portion comprises a recessed area (201b.1) that is at least partially cylindrical and approximately corresponds to an external surface of the rotation portion , characterized in that the static portion comprising a plunger and at least one spring located within a cavity (201b.2) of the housing portion ; and the at least one spring causes the plunger to push the rotation portion away from the stowed position. a static portion attached to the passenger seat; a rotation portion attached to the static portion such that the rotation portion pivots about a rotation axis; an arm body attached to the rotation portion , the rotation portion and the arm body comprise a stowed position and a deployed position; and a wiring portion disposed inside the arm body and extending from the arm body into the rotation portion , wherein the wiring portion disposed such that it extends parallel to the rotation axis from the rotation portion toward and into the static portion or that it extends along an axis that is coincident with the rotation axis from the rotation portion toward and into the static portion , and wherein the static portion comprises a main portion and a housing portion ; and the housing portion comprises a recessed area (201b.1) that is at least partially cylindrical and approximately corresponds to an external surface of the rotation portion , characterized in that the static portion comprising a plunger and at least one spring located within a cavity (201b.2) of the housing portion ; and the at least one spring causes the plunger to push the rotation portion away from the stowed position.