mhurhangee/patent-ind-claim-en huggingface dataset:
A dosing machine for dispensing metered quantities of fluid products, in particular for preparing paints, varnishes, dyes and the like, comprising: - a stock having a plurality of compartments configured to receive respective sealed disposable cartridges , - a dispensing head having a plurality of nozzles , and - a plurality of dosing circuits configured to supply metered quantities of fluid products to respective nozzles of the dispensing head , characterised in that each of said dosing circuits is hydraulically connected to two cartridge supports configured to be connected to respective cartridges containing the same fluid product, so that, during operation, one of the two cartridges connected to the same dosing circuit forms a buffer for the complementary cartridge, wherein said cartridge supports are fixed and are connected to respective tubes connected to two inlets of a three-way valve having an outlet connected to a metering pump , and wherein said three-way valve is controlled by a control unit according to signals coming from level sensors associated with said cartridge supports . - a stock having a plurality of compartments configured to receive respective sealed disposable cartridges , - a dispensing head having a plurality of nozzles , and - a plurality of dosing circuits configured to supply metered quantities of fluid products to respective nozzles of the dispensing head , characterised in that each of said dosing circuits is hydraulically connected to two cartridge supports configured to be connected to respective cartridges containing the same fluid product, so that, during operation, one of the two cartridges connected to the same dosing circuit forms a buffer for the complementary cartridge, wherein said cartridge supports are fixed and are connected to respective tubes connected to two inlets of a three-way valve having an outlet connected to a metering pump , and wherein said three-way valve is controlled by a control unit according to signals coming from level sensors associated with said cartridge supports .
A method for operating a communication network, 'CN', comprising the steps of - Receiving, by a mediating entity, 'ME', of said CN, a message for a responding entity, 'RE', of said CN, from an initiating entity, 'IE', - Checking, by said ME, whether said IE is authorized to communicate with said RE based on a list of subscriptions, which represent topics for subscription and which is securely stored in a trusted computing environment, 'TCE', of the ME, - Establishing a secure message exchange between said ME and said RE using said TCE of said ME and a TCE of said RE, - Sending, by said ME, at least the content of said message to said RE via said secure connection, - Processing the contents of said message by said RE, - Providing, by said RE, a result of the processed message for a topic via said secure connection to said ME, - Publishing, by said ME, said received result to said IE. - Receiving, by a mediating entity, 'ME', of said CN, a message for a responding entity, 'RE', of said CN, from an initiating entity, 'IE', - Checking, by said ME, whether said IE is authorized to communicate with said RE based on a list of subscriptions, which represent topics for subscription and which is securely stored in a trusted computing environment, 'TCE', of the ME, - Establishing a secure message exchange between said ME and said RE using said TCE of said ME and a TCE of said RE, - Sending, by said ME, at least the content of said message to said RE via said secure connection, - Processing the contents of said message by said RE, - Providing, by said RE, a result of the processed message for a topic via said secure connection to said ME, - Publishing, by said ME, said received result to said IE.
A method comprising: determining , using one or more sensor signals, dynamic state information for a tower of a wind turbine during power production, wherein the dynamic state information comprises determining velocity information and position information corresponding to a reference location of the tower and a tower frequency, the tower frequency depends from at least one of the velocity information and the position information; determining a first control loop gain value and a second control loop gain value using the tower frequency; and generating , using the first control loop gain value and the second control loop gain value, one or more control signals for controlling a rotational speed of a rotor of the wind turbine, the one or more control signals comprises: generating a pitch reference signal to control a pitch of one or more rotor blades of the wind turbine, wherein generating the pitch reference signal comprises applying the first control loop gain value to the velocity information and applying the second control loop gain value to the position information. determining a first control loop gain value and a second control loop gain value using the tower frequency; and generating , using the first control loop gain value and the second control loop gain value, one or more control signals for controlling a rotational speed of a rotor of the wind turbine, the one or more control signals comprises: generating a pitch reference signal to control a pitch of one or more rotor blades of the wind turbine, wherein generating the pitch reference signal comprises applying the first control loop gain value to the velocity information and applying the second control loop gain value to the position information.
A rotatable sealing structure for a gas turbine engine , comprising: a rotor comprising a first blade and a circumferentially adjacent second blade , each blade including a platform ; and a seal arranged between the blades and having a body that is configured for operative association with the first and second blades in a plurality of orientations to seal a gap defined between circumferentially opposed faces of the adjacent platforms , the seal being configured to engage the underside of the adjacent platforms ; whereby the seal body is asymmetrical and the seal includes first and second sides, each including tapered surfaces meeting at an apex ; characterised in that : the seal body is reversible 180° about first, second and third axes (A, R, H) that are orthogonal relative to one another such that the seal body is installable in four unique orientations. a rotor comprising a first blade and a circumferentially adjacent second blade , each blade including a platform ; and a seal arranged between the blades and having a body that is configured for operative association with the first and second blades in a plurality of orientations to seal a gap defined between circumferentially opposed faces of the adjacent platforms , the seal being configured to engage the underside of the adjacent platforms ; whereby the seal body is asymmetrical and the seal includes first and second sides, each including tapered surfaces meeting at an apex ; characterised in that : the seal body is reversible 180° about first, second and third axes (A, R, H) that are orthogonal relative to one another such that the seal body is installable in four unique orientations.
A control device for an automatic filter for fluids, comprising: - a filter data interface for transmitting control data to the automatic filter, - a sensor system and/or a sensor data interface for receiving status data of the automatic filter, - an input/output unit designed for inputting manual commands and for outputting data, - a network interface for data exchange with a data network, - a computing unit adapted to process the status data of the automatic filter, to control the input/output unit and process input data, to generate control data for controlling the automatic filter, and to operate the network interface, characterized in that it is designed to transmit the status data received via the sensor system or the sensor data interface, and/or the control data transmitted by it to the automatic filter, - to a device ("upstream device"), which is arranged upstream of the automatic filter in the operating sequence and by whose function the fluid flowing into a fluid inlet of the filter is influenced, and/or - to a device ("downstream device") which is arranged downstream of the automatic filter in the operating sequence and whose function is influenced by the fluid flowing out of a fluid outlet of the filter. - a filter data interface for transmitting control data to the automatic filter, - a sensor system and/or a sensor data interface for receiving status data of the automatic filter, - an input/output unit designed for inputting manual commands and for outputting data, - a network interface for data exchange with a data network, - a computing unit adapted to process the status data of the automatic filter, to control the input/output unit and process input data, to generate control data for controlling the automatic filter, and to operate the network interface, - to a device ("upstream device"), which is arranged upstream of the automatic filter in the operating sequence and by whose function the fluid flowing into a fluid inlet of the filter is influenced, and/or - to a device ("downstream device") which is arranged downstream of the automatic filter in the operating sequence and whose function is influenced by the fluid flowing out of a fluid outlet of the filter.
A battery pack comprising: a plurality of batteries that are chargeable and dischargeable; a battery holder that arranges the batteries at predetermined positions; and a bus bar that is a metal sheet fixed to electrode terminals of the batteries , wherein the bus bar includes: a plurality of fixed terminals connected with the electrode terminals of the batteries ; a base that connects the plurality of batteries with each other through the plurality of fixed terminals in series and/or in parallel; and fuse links that include ends that are connected with the fixed terminals , respectively, and roots that are connected with the base , and the battery pack further comprises a heat insulating member that tightly covers surfaces of the fuse links , and surfaces of the fixed terminals connected with the fuse links , respectively. a plurality of batteries that are chargeable and dischargeable; a battery holder that arranges the batteries at predetermined positions; and a bus bar that is a metal sheet fixed to electrode terminals of the batteries , wherein the bus bar includes: a plurality of fixed terminals connected with the electrode terminals of the batteries ; a base that connects the plurality of batteries with each other through the plurality of fixed terminals in series and/or in parallel; and fuse links that include ends that are connected with the fixed terminals , respectively, and roots that are connected with the base , and a plurality of fixed terminals connected with the electrode terminals of the batteries ; a base that connects the plurality of batteries with each other through the plurality of fixed terminals in series and/or in parallel; and fuse links that include ends that are connected with the fixed terminals , respectively, and roots that are connected with the base , and the battery pack further comprises a heat insulating member that tightly covers surfaces of the fuse links , and surfaces of the fixed terminals connected with the fuse links , respectively.
A mechanical thrombectomy apparatus for removing a clot from a vessel without jamming, the apparatus comprising: an elongate inversion support comprising a catheter having a distal end and a distal end opening ; a tractor comprising a flexible tube that extends distally in an un-inverted configuration within the catheter , inverts over the distal end opening of the catheter and extends proximally in an inverted configuration along the distal end of the catheter , wherein the tractor comprises a tubular wall, further wherein the tractor is configured to invert by rolling over the distal end opening of the catheter when a first end of the tractor is pulled proximally within the catheter , wherein the tractor is biased to expand to have an inner diameter that is greater than the outer diameter of the catheter in the inverted configuration and is biased to expand to have an inner diameter that is greater than the inner diameter of the catheter in the un-inverted configuration wherein a relaxed outer diameter of the tractor in the un-inverted configuration is greater than a relaxed outer diameter of the tractor in the inverted configuration, and wherein the apparatus further comprises an elongate puller coupled to the first end of the tractor . an elongate inversion support comprising a catheter having a distal end and a distal end opening ; a tractor comprising a flexible tube that extends distally in an un-inverted configuration within the catheter , inverts over the distal end opening of the catheter and extends proximally in an inverted configuration along the distal end of the catheter , wherein the tractor comprises a tubular wall, further wherein the tractor is configured to invert by rolling over the distal end opening of the catheter when a first end of the tractor is pulled proximally within the catheter , wherein the tractor is biased to expand to have an inner diameter that is greater than the outer diameter of the catheter in the inverted configuration and is biased to expand to have an inner diameter that is greater than the inner diameter of the catheter in the un-inverted configuration wherein a relaxed outer diameter of the tractor in the un-inverted configuration is greater than a relaxed outer diameter of the tractor in the inverted configuration, and wherein the apparatus further comprises an elongate puller coupled to the first end of the tractor .
Turbine for an exhaust-gas turbocharger , having a turbine housing which has two volutes through which an exhaust gas can flow and between which a separating wall is provided, and having only one wastegate valve , designed as a linear valve , for both volutes , which wastegate valve has a linear valve element for opening and closing wastegate outlets of the two volutes in the direction of a common outlet chamber arranged outside the volutes , - wherein the linear valve element is, in order to close the wastegate outlets , guided from the direction of the outlet chamber toward a valve seat , characterized in that the linear valve element is connected to a displacement shaft , which has a shaft longitudinal axis , for actuating the linear valve element , wherein the displacement shaft is guided out of the turbine housing through the separating wall in the direction of a separating wall plane spanned by the separating wall , and is arranged so as to be guided movably in the direction of its shaft longitudinal axis in the separating wall , and wherein the linear valve element can be lifted off from the valve seat by means of the displacement shaft in order to open the wastegate outlets in the axial direction of the shaft longitudinal axis into the outlet chamber . - wherein the linear valve element is, in order to close the wastegate outlets , guided from the direction of the outlet chamber toward a valve seat ,
An apparatus suitable for cleaning a food processor having a forward flow direction along a food flow path for processing food, the food flow path including an enclosed length and terminating at a dispensing port , the apparatus comprising: (a) an intake manifold having a first inlet port and a first outlet port ; (b) a control valve intermediate the first inlet port and the first outlet port ; (c) controller connected to the control valve for regulating flow through the control valve from the first inlet port to the first outlet port ; and (d) a distribution manifold having a first input port and a fluidly connected first output port to define a manifold flow path between its first input port and its first output port ; characterized in that the distribution manifold has an induction port fluidly connected to the manifold flow path intermediate its first input port and its first output port . (a) an intake manifold having a first inlet port and a first outlet port ; (b) a control valve intermediate the first inlet port and the first outlet port ; (c) controller connected to the control valve for regulating flow through the control valve from the first inlet port to the first outlet port ; and (d) a distribution manifold having a first input port and a fluidly connected first output port to define a manifold flow path between its first input port and its first output port ;
A method for manufacturing an electrode unit comprising a positive electrode, a negative electrode, and a separator, the method comprising: a selection step of selecting a positive electrode collector provided in a positive electrode and a negative electrode collector provided in a negative electrode; a coating step of applying an active material to each of the positive and negative electrode collectors selected in the selection step; and a bonding step of applying heat to bond the positive electrode, the separator, and the negative electrode to each other, wherein the selection step comprises a calculation step and a ratio determining step, the calculation step calculates a stress applied to an inside of each of the positive electrode collector and the negative electrode collector due to cooling of the electrode unit after the electrode unit is manufactured, and the ratio determining step determines a ratio of a thickness of the positive electrode collector and the negative electrode collector for adjusting the stress which is calculated in the calculation step, wherein the stress is resistivity (P) in a material acting per unit area (A) of the material, and wherein, in the selection step, the positive electrode collector and the negative electrode collector are selected so that a ratio of the thickness of the positive electrode collector to the thickness of the negative electrode collector is 1.8 to 3.1. a selection step of selecting a positive electrode collector provided in a positive electrode and a negative electrode collector provided in a negative electrode; a coating step of applying an active material to each of the positive and negative electrode collectors selected in the selection step; and a bonding step of applying heat to bond the positive electrode, the separator, and the negative electrode to each other, wherein the selection step comprises a calculation step and a ratio determining step, the calculation step calculates a stress applied to an inside of each of the positive electrode collector and the negative electrode collector due to cooling of the electrode unit after the electrode unit is manufactured, and the ratio determining step determines a ratio of a thickness of the positive electrode collector and the negative electrode collector for adjusting the stress which is calculated in the calculation step, wherein the stress is resistivity (P) in a material acting per unit area (A) of the material, and wherein, in the selection step, the positive electrode collector and the negative electrode collector are selected so that a ratio of the thickness of the positive electrode collector to the thickness of the negative electrode collector is 1.8 to 3.1.
Wall installation connection box unit, comprising - a box housing body having a rear-side base portion and a sleeve portion projecting forward from the base portion, which sleeve portion peripherally surrounds an installation component mounting space , which space is accessible via an open front end face of the sleeve portion, - an extension sleeve which is configured for coaxial arrangement on the sleeve portion and axial pushing back relative to the sleeve portion, and - a retaining structure which allows axial pushing back of the extension sleeve on the sleeve portion from a mounting position (M S ) to an end use position (E S ) on a variable axial level (H E ) and retains the extension sleeve in the end use position on the sleeve portion, - wherein the retaining structure includes a retaining ridge structure radially projecting from the sleeve portion , and a counter-retaining structure provided on the extension sleeve and cooperating with the retaining ridge structure in a frictionally engaged and/or form-locking manner, characterized in that - the retaining ridge structure is formed integrally with at least an adjacent axial partial region of the sleeve portion from a sealing resilient material, and the counter-retaining structure is made of a material which has greater stiffness as compared to the sealing resilient material. - a box housing body having a rear-side base portion and a sleeve portion projecting forward from the base portion, which sleeve portion peripherally surrounds an installation component mounting space , which space is accessible via an open front end face of the sleeve portion, - an extension sleeve which is configured for coaxial arrangement on the sleeve portion and axial pushing back relative to the sleeve portion, and - a retaining structure which allows axial pushing back of the extension sleeve on the sleeve portion from a mounting position (M S ) to an end use position (E S ) on a variable axial level (H E ) and retains the extension sleeve in the end use position on the sleeve portion, - wherein the retaining structure includes a retaining ridge structure radially projecting from the sleeve portion , and a counter-retaining structure provided on the extension sleeve and cooperating with the retaining ridge structure in a frictionally engaged and/or form-locking manner, characterized in that - the retaining ridge structure is formed integrally with at least an adjacent axial partial region of the sleeve portion from a sealing resilient material, and the counter-retaining structure is made of a material which has greater stiffness as compared to the sealing resilient material.
A gripping apparatus, the gripping apparatus comprising: - a membrane enabling gecko-like adhesion to an object ; - a flexible housing ; said membrane being fixedly connected to a periphery of the housing ; a cavity present between the membrane and the housing ; and a connection to an air pressure regulator connected to said cavity wherein an outer surface of the membrane comprises a plurality of islands projecting from an outer surface of the membrane remote from the cavity such that the adhesion to the object is enhanced, and wherein the plurality of islands is formed by nano-bumps. - a membrane enabling gecko-like adhesion to an object ; - a flexible housing ;
An atomizer, wherein the atomizer comprises a core assembly , the core assembly defines an air-inlet passage and a smoke-outlet passage at both ends, respectively, at least one atomizing chamber and at least one cooling passage , both of which are communicated with the air-inlet passage and the smoke-outlet passage , respectively, are formed in the core assembly , and the atomizing chamber is spaced from the at least one cooling passage , whereby in use a part of air entering the atomizer passes through the cooling passage and then is further mixed with smoke generated by atomizing another part of air through the atomizing chamber .