mhurhangee/patent-ind-claim-en huggingface dataset:
A beverage maker device, comprising: a housing installable in an aircraft galley; a tank configured to hold a volume of a fluid, the tank coupled to a fluid supply via an inlet ; and a manifold disposed within the housing and including one or more solenoid valves configured to control dispensing of the fluid from the tank through an outlet; and characterized by : at least one pressure transducer operatively coupled to the inlet, the pressure transducer configured to transmit at least one pressure signal corresponding to a pressure of the fluid through the inlet; and a process control board, PCB, disposed within the housing, the PCB comprising: at least one control processor; control circuitry communicatively coupled to the solenoid valves and to the pressure transducer , the control circuitry configured to: receive the at least one pressure signal; based on the received pressure signal, determine a flow volume of the fluid through the inlet; and if the determined flow volume reaches or exceeds a flow threshold, direct the solenoid valves to cease the dispensing of the fluid. a housing installable in an aircraft galley; a tank configured to hold a volume of a fluid, the tank coupled to a fluid supply via an inlet ; and a manifold disposed within the housing and including one or more solenoid valves configured to control dispensing of the fluid from the tank through an outlet; and characterized by : at least one pressure transducer operatively coupled to the inlet, the pressure transducer configured to transmit at least one pressure signal corresponding to a pressure of the fluid through the inlet; and a process control board, PCB, disposed within the housing, the PCB comprising: at least one control processor; control circuitry communicatively coupled to the solenoid valves and to the pressure transducer , the control circuitry configured to: receive the at least one pressure signal; based on the received pressure signal, determine a flow volume of the fluid through the inlet; and if the determined flow volume reaches or exceeds a flow threshold, direct the solenoid valves to cease the dispensing of the fluid. at least one control processor; control circuitry communicatively coupled to the solenoid valves and to the pressure transducer , the control circuitry configured to: receive the at least one pressure signal; based on the received pressure signal, determine a flow volume of the fluid through the inlet; and if the determined flow volume reaches or exceeds a flow threshold, direct the solenoid valves to cease the dispensing of the fluid. receive the at least one pressure signal; based on the received pressure signal, determine a flow volume of the fluid through the inlet; and if the determined flow volume reaches or exceeds a flow threshold, direct the solenoid valves to cease the dispensing of the fluid.
An arrangement comprising at least two burners , the arrangement having an exhaust gas guiding device , the exhaust gas guiding device serving to jointly guide exhaust gases of the two burners , the arrangement having a supply device , the supply device supplying the two burners jointly with combustion air, the arrangement having at least one backflow barrier , the backflow barrier preventing a gaseous medium from flowing in at least one flow direction, the backflow barrier being arranged in the exhaust gas guiding device or in the supply device , the backflow barrier having at least one opening and at least one movable element , the movable element being movable between at least two positions, the opening being open in case the movable element is in one of the two positions, the opening being closed in case the movable element is in another of the two positions, characterized in that the backflow barrier is arranged in the exhaust gas guiding device , one exhaust gas guide extending from each of the two burners , one opening being associated with each exhaust gas guide, the movable element being a flap mounted in a decentralized manner or on one side between the two openings , and a position of the flap being dependent on a ratio of the exhaust gas quantities of the two burners . the arrangement having an exhaust gas guiding device , the exhaust gas guiding device serving to jointly guide exhaust gases of the two burners , the arrangement having a supply device , the supply device supplying the two burners jointly with combustion air, the arrangement having at least one backflow barrier , the backflow barrier preventing a gaseous medium from flowing in at least one flow direction, the backflow barrier being arranged in the exhaust gas guiding device or in the supply device , the backflow barrier having at least one opening and at least one movable element , the movable element being movable between at least two positions, the opening being open in case the movable element is in one of the two positions, the opening being closed in case the movable element is in another of the two positions, characterized in that the backflow barrier is arranged in the exhaust gas guiding device , one exhaust gas guide extending from each of the two burners , one opening being associated with each exhaust gas guide, the movable element being a flap mounted in a decentralized manner or on one side between the two openings , and a position of the flap being dependent on a ratio of the exhaust gas quantities of the two burners .
A filter assembly including a filter element , comprising: a casing , the casing including a casing body extending from a first end to a second end and having a hollow interior defining a cavity for receiving another filter element , comprising an air filter installed into the cavity and sealing engaged at a periphery to the casing and a gasket sealing between the filter element and the air filter , wherein the gasket has a quadrilateral shape and engages a quadrilateral flange of the filter element , characterized in that a filter member is carried by the casing body at the second end and over the cavity , such that fluid cannot flow from the cavity through the second end without passing through the filter member , and that the gasket is integrally provided by the air filter . a casing , the casing including a casing body extending from a first end to a second end and having a hollow interior defining a cavity for receiving another filter element , comprising an air filter installed into the cavity and sealing engaged at a periphery to the casing and a gasket sealing between the filter element and the air filter , wherein the gasket has a quadrilateral shape and engages a quadrilateral flange of the filter element , characterized in that a filter member is carried by the casing body at the second end and over the cavity , such that fluid cannot flow from the cavity through the second end without passing through the filter member , and that the gasket is integrally provided by the air filter .
Equipment for the production of slabs in mineral grits bound with resins, comprising: a support frame , at least one lower plate , locked together with said frame , comprising at least one positioning zone for at least one mold having at least one forming cavity , open at the top, to contain a mix comprising the materials necessary to obtain the slabs, at least one pressing assembly comprising an upper plate movable, with respect to said frame , from an upper position of loading/unloading said mold in/from said positioning zone , to a lower position of pressing said mix inside said forming cavity , said pressing assembly comprising actuator means which control said upper plate in such a way that it applies, in the lower position, the desired pressure on the mix of materials inside said forming cavity , vibrating means associated at least with said lower plate , and an airtight chamber , communicating with suction means , adapted to reduce the pressure to a value lower than the atmospheric pressure, containing said mold , characterized by the fact that said chamber is interposed between said lower plate and an upper closing element opposite said lower plate . a support frame , at least one lower plate , locked together with said frame , comprising at least one positioning zone for at least one mold having at least one forming cavity , open at the top, to contain a mix comprising the materials necessary to obtain the slabs, at least one pressing assembly comprising an upper plate movable, with respect to said frame , from an upper position of loading/unloading said mold in/from said positioning zone , to a lower position of pressing said mix inside said forming cavity , said pressing assembly comprising actuator means which control said upper plate in such a way that it applies, in the lower position, the desired pressure on the mix of materials inside said forming cavity , vibrating means associated at least with said lower plate , and an airtight chamber , communicating with suction means , adapted to reduce the pressure to a value lower than the atmospheric pressure, containing said mold , characterized by the fact that said chamber is interposed between said lower plate and an upper closing element opposite said lower plate .
A computer-implemented method comprising: receiving at a messaging server a plurality of messages directed toward a plurality of computing devices , the plurality of messages including one or more messages for transmission to a first computing device ; classifying each of the one or more messages as either high priority or low priority, wherein a rule for classifying the one or more messages associated to applications varies based on a usage history of the applications at the first computing device ; postponing delivery of the one or more messages until at least one of a set of predetermined conditions is met, wherein the predetermined conditions include a first predetermined condition that at least one received message is classified as high priority; detecting, with a computer processor , that at least one of the predetermined conditions is met; and transmitting the one or more messages to the first computing device in response to the detection that at least one of the predetermined conditions is met. receiving at a messaging server a plurality of messages directed toward a plurality of computing devices , the plurality of messages including one or more messages for transmission to a first computing device ; classifying each of the one or more messages as either high priority or low priority, wherein a rule for classifying the one or more messages associated to applications varies based on a usage history of the applications at the first computing device ; postponing delivery of the one or more messages until at least one of a set of predetermined conditions is met, wherein the predetermined conditions include a first predetermined condition that at least one received message is classified as high priority; detecting, with a computer processor , that at least one of the predetermined conditions is met; and transmitting the one or more messages to the first computing device in response to the detection that at least one of the predetermined conditions is met.
An electromagnetic flexure valve including: a first pole piece and a second pole piece ; a flexure assembly a portion of which is configured for movement between a first state adjacent the first pole piece and a second state adjacent the second pole piece ; a coil configured to receive electrical power from a power supply and to actuate the flexure assembly between the first and second states; and characterised by a biasing configuration, including an electromagnet and second magnet , configured to bias the flexure assembly into the first or the second state when the coil is not powered by the power supply and irrespective of the current state of the flexure assembly such that a failsafe mode is provided wherein the biasing configuration is configured such that the electromagnet and second magnet apply a substantially balanced magnetic force on the flexure assembly when electrical power is provided to the electromagnet and when electrical power ceases to be provided to the electromagnet the magnetic force of the second magnet moves the flexure assembly towards the second magnet or retains the flexure assembly in a position biased towards the second magnet . a first pole piece and a second pole piece ; a flexure assembly a portion of which is configured for movement between a first state adjacent the first pole piece and a second state adjacent the second pole piece ; a coil configured to receive electrical power from a power supply and to actuate the flexure assembly between the first and second states; and characterised by a biasing configuration, including an electromagnet and second magnet , configured to bias the flexure assembly into the first or the second state when the coil is not powered by the power supply and irrespective of the current state of the flexure assembly such that a failsafe mode is provided wherein the biasing configuration is configured such that the electromagnet and second magnet apply a substantially balanced magnetic force on the flexure assembly when electrical power is provided to the electromagnet and when electrical power ceases to be provided to the electromagnet the magnetic force of the second magnet moves the flexure assembly towards the second magnet or retains the flexure assembly in a position biased towards the second magnet .
A device for loading an automated analysis system, the device including: a chassis ; a movable loading element movably coupled to the chassis and configured to move between a first and a second position; a holding structure , the holding structure being floatingly coupled to the movable loading element so that the holding structure can move in one, two or all three orthogonal spatial directions relative to the movable loading element when the movable loading element is in the first position, wherein the holding structure is configured to hold a receptacle for material to be loaded into the automated analysis system; two or more first alignment elements (5; 6) attached to the chassis , and two or more second alignment elements (20; 21) attached to the holding structure , the first and second alignment elements being arranged at different locations of the chassis and the holding structure , respectively, wherein at least one of the second alignment elements is arranged at a forward portion of the holding structure and at least a second one of the second alignment elements is arranged at a rearward portion of the holding structure in a direction of movement of the movable loading element, wherein each of the first alignment elements (5; 6) is configured to engage with a respective one of the second alignment elements (20; 21) to align the holding structure in a predetermined position relative to the chassis when the movable loading element is in the second position, characterized in that the movable loading element is a drawer. a chassis ; a movable loading element movably coupled to the chassis and configured to move between a first and a second position; a holding structure , the holding structure being floatingly coupled to the movable loading element so that the holding structure can move in one, two or all three orthogonal spatial directions relative to the movable loading element when the movable loading element is in the first position, wherein the holding structure is configured to hold a receptacle for material to be loaded into the automated analysis system; two or more first alignment elements (5; 6) attached to the chassis , and two or more second alignment elements (20; 21) attached to the holding structure , the first and second alignment elements being arranged at different locations of the chassis and the holding structure , respectively, wherein at least one of the second alignment elements is arranged at a forward portion of the holding structure and at least a second one of the second alignment elements is arranged at a rearward portion of the holding structure in a direction of movement of the movable loading element, wherein each of the first alignment elements (5; 6) is configured to engage with a respective one of the second alignment elements (20; 21) to align the holding structure in a predetermined position relative to the chassis when the movable loading element is in the second position, characterized in that the movable loading element is a drawer.
A sintered oxide compact target for sputtering comprising indium (In), gallium (Ga), zinc (Zn), oxygen (O) and unavoidable impurities, wherein the composition ratio of the respective elements satisfies the Formula of In x Ga y Zn z O a {wherein 0.2 ≤ x / (x + y) ≤ 0.8, 0.1 ≤ z/ (x + y +z) ≤ 0.5, a = (3/2) x + (3/2) y + z}, wherein the sintered oxide compact target has a minute granular structure containing ZnGa 2 O 4 spinel phases, wherein the maximum size of the ZnGa 2 O 4 spinel phases existing in a 90μm x 90μm area range of the sintered oxide compact target is 3.71 μm or less and the number of ZnGa 2 O 4 spinel phases having a grain size of 3μm or larger is 10 or less.
A semiconductor device, comprising: a first silicon germanium buffer layer disposed above a silicon substrate ; a parasitic leakage barrier disposed above the first buffer layer ; a second silicon germanium buffer layer disposed above the parasitic leakage barrier , said second buffer layer having a higher concentration of germanium than the first buffer layer ; wherein the parasitic leakage barrier includes at least two layers of alternating first and second layer types and , wherein one layer of the first layer type of the at least two layers is composed essentially of silicon or silicon germanium having a lower concentration of germanium than the first or second buffer layer and wherein the other layer of the second layer type of the at least two layers is essentially composed of the same material as the first buffer layer ; a germanium active layer disposed above the second buffer layer ; a gate electrode stack disposed above the germanium active layer ; and source and drain regions disposed above the parasitic leakage barrier , on either side of the gate electrode stack , wherein the parasitic leakage barrier comprises a semiconductor layer having a band-gap greater than a band-gap of the first buffer layer , greater than a band-gap of the second buffer layer , and greater than a band-gap of the germanium active layer . a first silicon germanium buffer layer disposed above a silicon substrate ; a parasitic leakage barrier disposed above the first buffer layer ; a second silicon germanium buffer layer disposed above the parasitic leakage barrier , said second buffer layer having a higher concentration of germanium than the first buffer layer ; wherein the parasitic leakage barrier includes at least two layers of alternating first and second layer types and , wherein one layer of the first layer type of the at least two layers is composed essentially of silicon or silicon germanium having a lower concentration of germanium than the first or second buffer layer and wherein the other layer of the second layer type of the at least two layers is essentially composed of the same material as the first buffer layer ; a germanium active layer disposed above the second buffer layer ; a gate electrode stack disposed above the germanium active layer ; and source and drain regions disposed above the parasitic leakage barrier , on either side of the gate electrode stack , wherein the parasitic leakage barrier comprises a semiconductor layer having a band-gap greater than a band-gap of the first buffer layer , greater than a band-gap of the second buffer layer , and greater than a band-gap of the germanium active layer .
A computer-implemented method for reporting log data to one or more destinations, the method comprising: receiving , at a log definition component , a log definition that describes one or more logs, the log definition including a list of fields to include in the log and one or more report destinations to which to store the log, the fields including request headers, response headers, and module variables for modules that extend functionality of a web server , the log definition being authored by an administrator or content provider either by editing the log definition directly or through a user interface; receiving one or more captured log events, the captured log events being events raised by the web server or by the modules that extend the web server and captured by a server data component , and being events on a client of the web server captured and sent to the web server by a client data capture component ; determining whether the one or more captured log events match the log definition and storing the log events that match the log definition for reporting, for each of the one or more report destinations, selecting a report destination from the one or more report destinations specified in the log definition mapping fields in the log definition to fields in the received captured log events; sending the mapped fields of the received captured log events to the selected report destination; wherein the preceding steps are performed by at least one processor. receiving , at a log definition component , a log definition that describes one or more logs, the log definition including a list of fields to include in the log and one or more report destinations to which to store the log, the fields including request headers, response headers, and module variables for modules that extend functionality of a web server , the log definition being authored by an administrator or content provider either by editing the log definition directly or through a user interface; receiving one or more captured log events, the captured log events being events raised by the web server or by the modules that extend the web server and captured by a server data component , and being events on a client of the web server captured and sent to the web server by a client data capture component ; determining whether the one or more captured log events match the log definition and storing the log events that match the log definition for reporting, for each of the one or more report destinations, selecting a report destination from the one or more report destinations specified in the log definition mapping fields in the log definition to fields in the received captured log events; sending the mapped fields of the received captured log events to the selected report destination; selecting a report destination from the one or more report destinations specified in the log definition mapping fields in the log definition to fields in the received captured log events; sending the mapped fields of the received captured log events to the selected report destination; wherein the preceding steps are performed by at least one processor.