mhurhangee/patent-ind-claim-en huggingface dataset:
System for monitoring the distribution of water from a water-distribution device of the standpipe or hydrant type, for washing, sprinkling or fire-fighting, said distribution device comprising an outlet pipe by means of which the distribution water is intended to be distributed, the monitoring system comprising: - a valve system designed to be mounted in the outlet pipe and being designed to move between: o an open position under the action of a flow of distribution water in the outlet pipe , when said flow of water is above a predetermined flow threshold, and o a closed position when the flow of water is below said flow threshold, said valve system being designed to partially obstruct the outlet pipe in the closed position, the valve system being designed so that said obstruction is not watertight; - a detection means able to detect at least one of the two open or closed positions of the valve system in order to provide detected-position information, and - a means for monitoring the distribution of water designed so as, on the basis of the position information detected by said detection means , to generate a message representing the distribution of water by said distribution device , said monitoring means comprising a means for measuring the time during which the valve system is in the open position. - a valve system designed to be mounted in the outlet pipe and being designed to move between: o an open position under the action of a flow of distribution water in the outlet pipe , when said flow of water is above a predetermined flow threshold, and o a closed position when the flow of water is below said flow threshold, said valve system being designed to partially obstruct the outlet pipe in the closed position, the valve system being designed so that said obstruction is not watertight; o an open position under the action of a flow of distribution water in the outlet pipe , when said flow of water is above a predetermined flow threshold, and o a closed position when the flow of water is below said flow threshold, said valve system being designed to partially obstruct the outlet pipe in the closed position, the valve system being designed so that said obstruction is not watertight; - a detection means able to detect at least one of the two open or closed positions of the valve system in order to provide detected-position information, and - a means for monitoring the distribution of water designed so as, on the basis of the position information detected by said detection means , to generate a message representing the distribution of water by said distribution device ,
A vibration reduction damper and a center vent tube for being included in a jet engine , characterized in that the center vent tube has vent holes which pass therethrough in a radial direction, and the vibration reduction damper is disposed inside the center vent tube and has a sliding portion configured to come slidably in contact with an inner wall surface of the center vent tube , wherein the sliding portion is configured to avoid a region in which the vent holes are formed.
A process heater combustion stabilization method, comprising: sensing current operating parameters for a process heater at a plurality of time intervals; converting the current operating parameters into a time-varying signal; comparing the time-varying signal against a multi-dimensional burner stability envelope defined by a stability window of the process heater, each boundary of the stability window indicating when a burner within a combustion system likely enters an unstable state; altering operation of at least one burner of the process heater in response to the time-varying signal breaching the boundary of the stability window. sensing current operating parameters for a process heater at a plurality of time intervals; converting the current operating parameters into a time-varying signal; comparing the time-varying signal against a multi-dimensional burner stability envelope defined by a stability window of the process heater, each boundary of the stability window indicating when a burner within a combustion system likely enters an unstable state; altering operation of at least one burner of the process heater in response to the time-varying signal breaching the boundary of the stability window.
A battery module, comprising: a sub module including a cell stack assembly having a plurality of battery cells and a channel spacer interposed between adjacent battery cells , a front bus bar frame assembly coupled to one longitudinal side of the cell stack assembly , and a rear bus bar frame assembly coupled to the other longitudinal side of the cell stack assembly ; a module housing configured to accommodate the sub module ; a front sealing plate configured to cover an opening at one longitudinal side of the module housing and having an inlet (P1) for introducing an insulation cooling liquid; and a rear sealing plate configured to cover an opening at the other longitudinal side of the module housing and having an outlet (P2) for discharging the insulation cooling liquid, wherein the front bus bar frame assembly includes: a bus bar frame ; and a plurality of bus bars fixed on the bus bar frame and coupled to electrode leads of the battery cells and, characterized in that the battery module further comprises a pair of terminal assemblies having an external terminal located at an outer side of the front sealing plate and a stud provided through the front sealing plate to electrically connect the external terminal and the battery cell . a sub module including a cell stack assembly having a plurality of battery cells and a channel spacer interposed between adjacent battery cells , a front bus bar frame assembly coupled to one longitudinal side of the cell stack assembly , and a rear bus bar frame assembly coupled to the other longitudinal side of the cell stack assembly ; a module housing configured to accommodate the sub module ; a front sealing plate configured to cover an opening at one longitudinal side of the module housing and having an inlet (P1) for introducing an insulation cooling liquid; and a rear sealing plate configured to cover an opening at the other longitudinal side of the module housing and having an outlet (P2) for discharging the insulation cooling liquid, wherein the front bus bar frame assembly includes: a bus bar frame ; and a plurality of bus bars fixed on the bus bar frame and coupled to electrode leads of the battery cells and, characterized in that the battery module further comprises a pair of terminal assemblies having an external terminal located at an outer side of the front sealing plate and a stud provided through the front sealing plate to electrically connect the external terminal and the battery cell . a bus bar frame ; and a plurality of bus bars fixed on the bus bar frame and coupled to electrode leads of the battery cells and, characterized in that the battery module further comprises a pair of terminal assemblies having an external terminal located at an outer side of the front sealing plate and a stud provided through the front sealing plate to electrically connect the external terminal and the battery cell .
A wireless access point system, comprising: a processor configured to tap event data and process the event data using a plurality of event filters , wherein each event filter of the plurality of event filters applies event criteria to detect one or more types of events and tapping the event data includes intercepting the event data in the process of being routed, via the wireless access point system, between at least two different communication parties separate from the wireless access point system, and the event data is tapped within the wireless access point system using an analytic tap that observes network statistics and a performance tap that analyses content included in the event data; a memory configured to store the tapped event data; a communication interface configured to report a report of a detected event type, wherein at least a portion of the report is correlated to analyze a performance of a wireless network ; and characterized in that the wireless access point system is configured to send an interrogation communication to test a hypothesis of a cause of the detected event type and determine whether the detected event type has occurred based on a response to the interrogation communication received at the wireless access point system. a processor configured to tap event data and process the event data using a plurality of event filters , wherein each event filter of the plurality of event filters applies event criteria to detect one or more types of events and tapping the event data includes intercepting the event data in the process of being routed, via the wireless access point system, between at least two different communication parties separate from the wireless access point system, and the event data is tapped within the wireless access point system using an analytic tap that observes network statistics and a performance tap that analyses content included in the event data; a memory configured to store the tapped event data; a communication interface configured to report a report of a detected event type, wherein at least a portion of the report is correlated to analyze a performance of a wireless network ; and characterized in that the wireless access point system is configured to send an interrogation communication to test a hypothesis of a cause of the detected event type and determine whether the detected event type has occurred based on a response to the interrogation communication received at the wireless access point system.
Refrigerated cabinet at least comprising a refrigerating space for reception and storage of items to be refrigerated, a reservoir with a reservoir container in which a storage medium (44; 45) is received, a heat exchanger , a controller and a coolant line arrangement which is connectible with a coolant supply network by way of connections, wherein - the coolant line arrangement is led through the reservoir container, - the heat exchanger is arranged on an outer side of the reservoir container and is thermally coupled with the storage medium (44; 45) received in the reservoir container, - a coolant regulating device is arranged in the forward run of the coolant line arrangement, - the coolant regulating device is a speed-controlled pump , - the reservoir container at least in a section consists of a thermally conductive material and has an insulation , - the insulation completely surrounds the reservoir apart from a section by way of which the reservoir is connected with the heat exchanger , - the heat exchanger has cooling ribs , and - the heat exchanger is coupled by way of at least one thermally conductive section of the reservoir container with the storage medium (44; 45) received in the reservoir container. - the coolant line arrangement is led through the reservoir container, - the heat exchanger is arranged on an outer side of the reservoir container and is thermally coupled with the storage medium (44; 45) received in the reservoir container, - a coolant regulating device is arranged in the forward run of the coolant line arrangement, - the coolant regulating device is a speed-controlled pump , - the reservoir container at least in a section consists of a thermally conductive material and has an insulation , - the insulation completely surrounds the reservoir apart from a section by way of which the reservoir is connected with the heat exchanger , - the heat exchanger has cooling ribs , and - the heat exchanger is coupled by way of at least one thermally conductive section of the reservoir container with the storage medium (44; 45) received in the reservoir container.
A composition comprising recombinant human acid α-glucosidase (rhGAA) molecules for use in the treatment of Pompe disease in combination with miglustat in a patient in need thereof; wherein the patient is enzyme replacement therapy (ERT)-experienced; wherein the composition is administered intravenously at a dose of 5 mg/kg to 20 mg/kg and the miglustat is administered orally at a dose of 260 mg or 130 mg; wherein the rhGAA molecules are produced in Chinese hamster ovary (CHO) cells, the rhGAA molecules comprise seven potential N-glycosylation sites, 40%-60% of the N-glycans on the rhGAA molecules are complex type N-glycans, and at least 50% of the rhGAA molecules bear a bis-mannose-6-phosphate (bis-M6P) unit at the first potential N-glycosylation site. wherein the patient is enzyme replacement therapy (ERT)-experienced; wherein the composition is administered intravenously at a dose of 5 mg/kg to 20 mg/kg and the miglustat is administered orally at a dose of 260 mg or 130 mg; wherein the rhGAA molecules are produced in Chinese hamster ovary (CHO) cells, the rhGAA molecules comprise seven potential N-glycosylation sites, 40%-60% of the N-glycans on the rhGAA molecules are complex type N-glycans, and at least 50% of the rhGAA molecules bear a bis-mannose-6-phosphate (bis-M6P) unit at the first potential N-glycosylation site.
A spacecraft , comprising: a side having an exposed area capable of permitting heat transfer between the spacecraft and deep space; at least one extensible member coupled to the spacecraft , the at least one extensible member being movable between a collapsed position in which a free end of the extensible member is positioned adjacent to the exposed area at a first distance and an extended position in which the free end is spaced apart from the exposed area at a second distance, greater than the first distance; and a thermal control panel comprising first and second sides , the first side having an emissivity less than an emissivity of the second side , the first side having an absorptivity of at least 0.50 and an emissivity of less than 0.20, the second side having an absorptivity of at least 0.80 and an emissivity of at least 0.80, the panel being coupled to the extensible member free end, the second side facing the exposed area when the extensible member is in the collapsed position; wherein in the collapsed position, the panel is configured to absorb ambient light and emit heat toward the exposed area thereby minimizing heat loss from the spacecraft side, and wherein in the extended position, heat transfer from the spacecraft side is not substantially restricted by the panel first and second sides . a side having an exposed area capable of permitting heat transfer between the spacecraft and deep space; at least one extensible member coupled to the spacecraft , the at least one extensible member being movable between a collapsed position in which a free end of the extensible member is positioned adjacent to the exposed area at a first distance and an extended position in which the free end is spaced apart from the exposed area at a second distance, greater than the first distance; and a thermal control panel comprising first and second sides , the first side having an emissivity less than an emissivity of the second side , the first side having an absorptivity of at least 0.50 and an emissivity of less than 0.20, the second side having an absorptivity of at least 0.80 and an emissivity of at least 0.80, the panel being coupled to the extensible member free end, the second side facing the exposed area when the extensible member is in the collapsed position; wherein in the collapsed position, the panel is configured to absorb ambient light and emit heat toward the exposed area thereby minimizing heat loss from the spacecraft side, and wherein in the extended position, heat transfer from the spacecraft side is not substantially restricted by the panel first and second sides .
An oxygen detecting agent composition comprising a redox dye and a reducing agent, wherein the redox dye has the following formula A x Fe(III)[Fe(II)(CN) 6 ] y ·zH 2 O wherein A represents one or two or more types of the cations of the components selected from the group consisting of NH 4 , K, Na and Fe(II), x is a number of 0 to 3, y is a number of 0.3 to 1.5; and z is a number of 0 to 30, and the reducing agent is at least one selected from the group consisting of monosaccharides, disaccharides, ascorbic acid and the salts thereof, dithionous acid and the salts thereof, and cysteine and the salts thereof, and wherein the oxygen detecting agent composition comprises a sodium inorganic salt or a sodium organic salt. A represents one or two or more types of the cations of the components selected from the group consisting of NH 4 , K, Na and Fe(II), x is a number of 0 to 3, y is a number of 0.3 to 1.5; and z is a number of 0 to 30, and the reducing agent is at least one selected from the group consisting of monosaccharides, disaccharides, ascorbic acid and the salts thereof, dithionous acid and the salts thereof, and cysteine and the salts thereof, and wherein the oxygen detecting agent composition comprises a sodium inorganic salt or a sodium organic salt.
A network quality monitoring method, comprising: Obtaining (S101), by a network quality monitoring apparatus, network running data, wherein the network running data comprises static data and dynamic data that are of an access point, AP, and the dynamic data comprises a plurality of groups of dynamic data corresponding to a plurality of sampling periods, wherein the static data does not change with time and the dynamic data changes with time; Determining (S102), by the network quality monitoring apparatus, one channel efficiency value of the AP based on each of the plurality of groups of dynamic data of the AP; obtaining a plurality of channel efficiency values of the AP, wherein one channel efficiency value of the AP is a volume of data transmitted per unit time in a valid data transmission time period in one sampling period; Determining (S103), by the network quality monitoring apparatus, a channel efficiency baseline of the AP based on the static data of the AP, wherein the channel efficiency baseline of the AP is used to indicate a variation relationship between a reference value of a channel efficiency value of the AP and a first dynamic parameter, and the first dynamic parameter is one of the dynamic data; and Determining (S104), by the network quality monitoring apparatus based on the plurality of channel efficiency values of the AP and the channel efficiency baseline of the AP, network quality of a wireless local area network in which the AP is located. Obtaining (S101), by a network quality monitoring apparatus, network running data, wherein the network running data comprises static data and dynamic data that are of an access point, AP, and the dynamic data comprises a plurality of groups of dynamic data corresponding to a plurality of sampling periods, wherein the static data does not change with time and the dynamic data changes with time; Determining (S102), by the network quality monitoring apparatus, one channel efficiency value of the AP based on each of the plurality of groups of dynamic data of the AP; obtaining a plurality of channel efficiency values of the AP, wherein one channel efficiency value of the AP is a volume of data transmitted per unit time in a valid data transmission time period in one sampling period; Determining (S103), by the network quality monitoring apparatus, a channel efficiency baseline of the AP based on the static data of the AP, wherein the channel efficiency baseline of the AP is used to indicate a variation relationship between a reference value of a channel efficiency value of the AP and a first dynamic parameter, and the first dynamic parameter is one of the dynamic data; and Determining (S104), by the network quality monitoring apparatus based on the plurality of channel efficiency values of the AP and the channel efficiency baseline of the AP, network quality of a wireless local area network in which the AP is located.
A towed agricultural implement comprising a support frame one end of which is adapted for connection to a towing vehicle; support arms carried from the support frame , each of the support arms being moveable between a working position and a transport position; each support arm being provided with at least one rotary rake carrying a plurality of time arms adapted to be driven about a central rake axis; a drive apparatus carried by the support frame , one end of the drive apparatus being adapted for connection to the towing vehicle; a drive arrangement adapted to connect the at least one rotary rake to the drive apparatus carried on the support frame and to drive the time arms of the at least one rotary rake ; characterised in that an intermediate drive element connecting the support frame drive apparatus and the drive arrangement is moveably supported from the support frame . a support frame one end of which is adapted for connection to a towing vehicle; support arms carried from the support frame , each of the support arms being moveable between a working position and a transport position; each support arm being provided with at least one rotary rake carrying a plurality of time arms adapted to be driven about a central rake axis; a drive apparatus carried by the support frame , one end of the drive apparatus being adapted for connection to the towing vehicle; a drive arrangement adapted to connect the at least one rotary rake to the drive apparatus carried on the support frame and to drive the time arms of the at least one rotary rake ; characterised in that an intermediate drive element connecting the support frame drive apparatus and the drive arrangement is moveably supported from the support frame .
Thermal flowmeter, comprising: - a sensor element that generates a measuring signal; - a metal sensor housing - made in a generative manufacturing process - of a thermal flowmeter , wherein said housing is connected to the sensor element generating the measuring signal with an opening or with a sensor nozzle of a tube , wherein the monolithic sensor housing comprises a hollow body and two pin sleeves which project out of the hollow body , wherein the sensor element that generates the measuring signal is arranged in one of the two pin sleeves ; and - a pressure-bearing component; characterized in that the sensor housing is connected to the pressure-bearing component , the pressure-bearing component comprises a sleeve and a wall , wherein the wall extends in a parallel projection in the direction of a longitudinal axis (A) of the sleeve over an entire cross-section, wherein the pressure-bearing component has at least a cable gland and a potting compound , wherein the potting compound partially or completely fills the sleeve , and wherein the pressure-bearing component is arranged in the opening or in the sensor nozzle of the tube , radially behind the connection element in relation to the longitudinal axis of the tube . - a sensor element that generates a measuring signal; - a metal sensor housing - made in a generative manufacturing process - of a thermal flowmeter , wherein said housing is connected to the sensor element generating the measuring signal with an opening or with a sensor nozzle of a tube , wherein the monolithic sensor housing comprises a hollow body and two pin sleeves which project out of the hollow body , wherein the sensor element that generates the measuring signal is arranged in one of the two pin sleeves ; and - a pressure-bearing component;