mhurhangee/patent-ind-claim-en huggingface dataset:
Circuit breaker with a switching unit for interrupting an electric circuit, said switching unit comprising - a stationary fixed contact and a moving contact , which is movable relative to the fixed contact and can be transferred from a closed position to an open position, and - a quenching device for quenching an arc formed when the contacts are opened, said quenching device comprising a prechamber for guiding the arc from the contacts to an quenching chamber , said prechamber having two insulating side walls and a pair of arc guide rails disposed between said side walls , - wherein one of the arc guide rails , is guided to the fixed contact , - wherein said arc guide rail has a curved or bent profile from the fixed contact toward the quenching chamber , and - wherein the arc guide rail connects the fixed contact to a first side wall of the quenching chamber , and has a convex profile starting from the fixed contact , characterized in - that a ferromagnetic shaped part is arranged on each of the side walls or that a shaped magnet is arranged on each of the side walls , the common magnetic field of which guides the arc along the arc guide rail , - that a permanent magnet is arranged in the area of the fixed contact , the magnetic field of which guides the arc along the arc guide rail , - that the permanent magnet is arranged radially on the inside of the bend or curvature of the arc guide rail , and - that the resulting magnetic field of the permanent magnet and the shaped parts or shaped magnets is bundled in the region of the fixed contact . - a stationary fixed contact and a moving contact , which is movable relative to the fixed contact and can be transferred from a closed position to an open position, and - a quenching device for quenching an arc formed when the contacts are opened, said quenching device comprising a prechamber for guiding the arc from the contacts to an quenching chamber , said prechamber having two insulating side walls and a pair of arc guide rails disposed between said side walls , - wherein one of the arc guide rails , is guided to the fixed contact , - wherein said arc guide rail has a curved or bent profile from the fixed contact toward the quenching chamber , and - wherein the arc guide rail connects the fixed contact to a first side wall of the quenching chamber , and has a convex profile starting from the fixed contact , - that a ferromagnetic shaped part is arranged on each of the side walls or that a shaped magnet is arranged on each of the side walls , the common magnetic field of which guides the arc along the arc guide rail , - that a permanent magnet is arranged in the area of the fixed contact , the magnetic field of which guides the arc along the arc guide rail , - that the permanent magnet is arranged radially on the inside of the bend or curvature of the arc guide rail , and - that the resulting magnetic field of the permanent magnet and the shaped parts or shaped magnets is bundled in the region of the fixed contact .
A method of identifying a test compound as an activator of mTORC1 activity comprising the steps of: a) providing a mixture comprising: (i) a first polypeptide comprising the amino acid sequence of: a GATOR2-binding fragment of Sestrin1 (SEQ ID NO:1), Sestrin2 (SEQ ID NO:2), Sestrin3 (SEQ ID NO:3), or a polypeptide having at least 80% identity to any one of SEQ ID NOs:1-3 that retains the ability to bind GATOR2; and (ii) a second polypeptide or protein complex comprising the amino acid sequence of: a Sestrin-binding fragment of a GATOR2 complex (SEQ ID NOs:4-8), or a polypeptide or protein complex having at least 80% identity to SEQ ID NOs:4-8 that retains the ability to bind to at least one of Sestrin1, Sestrin2 or Sestrin3, under conditions that allow the first polypeptide to associate with the second polypeptide or protein complex; b) incubating the mixture of a) with the test compound; c) determining whether the amount of the first polypeptide associated with the second polypeptide or protein complex is altered in the presence of the test compound as compared to either the absence of the test compound or the presence of a negative control, wherein if the amount of association is decreased the test compound is identified as an activator of mTORC1 activity. a) providing a mixture comprising: (i) a first polypeptide comprising the amino acid sequence of: a GATOR2-binding fragment of Sestrin1 (SEQ ID NO:1), Sestrin2 (SEQ ID NO:2), Sestrin3 (SEQ ID NO:3), or a polypeptide having at least 80% identity to any one of SEQ ID NOs:1-3 that retains the ability to bind GATOR2; and (ii) a second polypeptide or protein complex comprising the amino acid sequence of: a Sestrin-binding fragment of a GATOR2 complex (SEQ ID NOs:4-8), or a polypeptide or protein complex having at least 80% identity to SEQ ID NOs:4-8 that retains the ability to bind to at least one of Sestrin1, Sestrin2 or Sestrin3, under conditions that allow the first polypeptide to associate with the second polypeptide or protein complex; (i) a first polypeptide comprising the amino acid sequence of: a GATOR2-binding fragment of Sestrin1 (SEQ ID NO:1), Sestrin2 (SEQ ID NO:2), Sestrin3 (SEQ ID NO:3), or a polypeptide having at least 80% identity to any one of SEQ ID NOs:1-3 that retains the ability to bind GATOR2; and (ii) a second polypeptide or protein complex comprising the amino acid sequence of: a Sestrin-binding fragment of a GATOR2 complex (SEQ ID NOs:4-8), or a polypeptide or protein complex having at least 80% identity to SEQ ID NOs:4-8 that retains the ability to bind to at least one of Sestrin1, Sestrin2 or Sestrin3, b) incubating the mixture of a) with the test compound; c) determining whether the amount of the first polypeptide associated with the second polypeptide or protein complex is altered in the presence of the test compound as compared to either the absence of the test compound or the presence of a negative control, wherein if the amount of association is decreased the test compound is identified as an activator of mTORC1 activity.
A stationary blade for a blade set of a hair cutting appliance, the stationary blade comprising: - a top wall , a bottom wall , and a guide slot formed therebetween to accommodate a movable blade , - a plurality of stationary blade teeth each having a frontal end , wherein the top wall and the bottom wall are mutually joined at the frontal ends , wherein the top wall and the bottom wall are, at least at the frontal ends , made from sheet metal material, and characterized in that , at the frontal ends , two or more sheet metal folded edges (106, 108; 206, 208, 210) are present. - a top wall , a bottom wall , and a guide slot formed therebetween to accommodate a movable blade , - a plurality of stationary blade teeth each having a frontal end ,
An electrical gear configured for supply of electrical power to a subsea machinery to be rotated at high speed, such as a subsea motor / pump or a subsea motor/ compressor assembly, the electrical gear comprising, in series connection: a) a high input voltage (HV) AC motor having a number of magnet poles; b) a medium output voltage (MV) AC generator (9; 90) having a number of magnet poles which is higher than the pole number of the HVAC motor, c) the HVAC motor configured to run on high voltage alternating current at a first frequency, caracterized in that the HVAC motor is drivingly connected to the MVAC generator (9; 90) via a common shaft , the MVAC generator (9; 90) is configured to deliver medium voltage alternating current at a second frequency, higher than said first frequency, to a medium input voltage (MV) AC motor (3; 30) having a number of magnet poles which is lower than the pole number of the MVAC generator (9; 90), d) wherein the HVAC motor , the MVAC generator (9; 90) and the MVAC motor (3; 30) are assembled on a common geometrical axis of rotation, and the MVAC motor (3; 30) is drivingly connected (15; 18) to the subsea machinery . a) a high input voltage (HV) AC motor having a number of magnet poles; b) a medium output voltage (MV) AC generator (9; 90) having a number of magnet poles which is higher than the pole number of the HVAC motor, c) the HVAC motor configured to run on high voltage alternating current at a first frequency, caracterized in that the HVAC motor is drivingly connected to the MVAC generator (9; 90) via a common shaft , the MVAC generator (9; 90) is configured to deliver medium voltage alternating current at a second frequency, higher than said first frequency, to a medium input voltage (MV) AC motor (3; 30) having a number of magnet poles which is lower than the pole number of the MVAC generator (9; 90), d) wherein the HVAC motor , the MVAC generator (9; 90) and the MVAC motor (3; 30) are assembled on a common geometrical axis of rotation, and the MVAC motor (3; 30) is drivingly connected (15; 18) to the subsea machinery .
A coking system , comprising: a plurality of coke ovens ; a plurality of uptake ducts in fluid communication with the plurality of coke ovens , each of the plurality of uptake ducts having an uptake flow vector of exhaust gas from one of the plurality of coke ovens ; and a common tunnel having a common flow vector of exhaust gas and configured to transfer the exhaust gas to a venting system, the plurality of uptake ducts and common tunnel being fluidly coupled with one another at a plurality of interfaces, at least some of the plurality of interfaces being non-perpendicular, wherein the uptake ducts are disposed at angles with respect to the common tunnel and bias the uptake flow vectors and common flow vector toward a common flow direction, wherein: the plurality of uptake ducts comprises a first uptake duct in fluid communication with a first coke oven of the plurality of coke ovens and having a first uptake flow vector, and wherein the system further comprises a second uptake duct of the plurality of uptake ducts in fluid communication with the first coke oven or a second coke oven of the plurality of coke ovens and having a second uptake flow vector of exhaust gas; and at least a portion of the first uptake duct is non-perpendicular to the common tunnel by a first angle and at least a portion of the second uptake duct is non-perpendicular to the common tunnel by a second angle different from the first angle, whereby minimising a static pressure differential between an upstream portion and a downstream portion of the common tunnel and discouraging a draft loss within the coking system . a plurality of coke ovens ; a plurality of uptake ducts in fluid communication with the plurality of coke ovens , each of the plurality of uptake ducts having an uptake flow vector of exhaust gas from one of the plurality of coke ovens ; and a common tunnel having a common flow vector of exhaust gas and configured to transfer the exhaust gas to a venting system, the plurality of uptake ducts comprises a first uptake duct in fluid communication with a first coke oven of the plurality of coke ovens and having a first uptake flow vector, and wherein the system further comprises a second uptake duct of the plurality of uptake ducts in fluid communication with the first coke oven or a second coke oven of the plurality of coke ovens and having a second uptake flow vector of exhaust gas; and at least a portion of the first uptake duct is non-perpendicular to the common tunnel by a first angle and at least a portion of the second uptake duct is non-perpendicular to the common tunnel by a second angle different from the first angle,
A method of a User Equipment, in the following also referred to as UE, comprising: initiating a random access procedure ; receiving a Physical Downlink Control Channel, in the following also referred to as PDCCH, transmission ; and determining whether contention resolution associated with the random access procedure is successful , characterized in that if the initiating the random access procedure is performed for Special Cell, in the following also referred to as SpCell, beam failure recovery, the determining whether the contention resolution is successful is based on whether the PDCCH transmission is addressed to a Cell Radio Network Temporary Identifier, in the following also referred to as C-RNTI, of the UE; and if the initiating the random access procedure is performed for Secondary Cell, in the following also referred to as SCell, beam failure recovery, the determining whether the contention resolution is successful is based on whether the PDCCH transmission is addressed to the C-RNTI of the UE and whether the PDCCH transmission comprises an uplink, in the following also referred to as UL, grant for a new transmission. initiating a random access procedure ; receiving a Physical Downlink Control Channel, in the following also referred to as PDCCH, transmission ; and determining whether contention resolution associated with the random access procedure is successful , characterized in that if the initiating the random access procedure is performed for Special Cell, in the following also referred to as SpCell, beam failure recovery, the determining whether the contention resolution is successful is based on whether the PDCCH transmission is addressed to a Cell Radio Network Temporary Identifier, in the following also referred to as C-RNTI, of the UE; and if the initiating the random access procedure is performed for Secondary Cell, in the following also referred to as SCell, beam failure recovery, the determining whether the contention resolution is successful is based on whether the PDCCH transmission is addressed to the C-RNTI of the UE and whether the PDCCH transmission comprises an uplink, in the following also referred to as UL, grant for a new transmission.
A drive-device-integrated rotating electrical machine , comprising: an electric motor ; a drive device equipped with an electronic part for controlling driving of the electric motor and wiring parts; a housing and a heat sink which constitute a drive-device storing section for storing the drive device ; and a connector section provided with a power connector for feeding power to the drive device and a signal connector ; wherein a radially protruding portion is provided radially on at least one of circumferences of the housing and the heat sink constituting the drive-device storing section; an opening portion is formed on at least one said radially protruding portion; and a connector-connecting portion for electrically connecting the connector section with the drive device is provided in the vicinity of said opening portion , wherein the connector section is attachably/detachably attached onto at least one said opening portion , characterized in that a housing-side one of said opening portion is formed on one of said radially protruding portion provided on the housing, a heat sink-side one of said opening portion is formed on another of said radially protruding portion provided on the heat sink, and a portion for attaching the connector section and the connector-connecting portion are individually provided in the respective opening portions. an electric motor ; a drive device equipped with an electronic part for controlling driving of the electric motor and wiring parts; a housing and a heat sink which constitute a drive-device storing section for storing the drive device ; and a connector section provided with a power connector for feeding power to the drive device and a signal connector ; wherein a radially protruding portion is provided radially on at least one of circumferences of the housing and the heat sink constituting the drive-device storing section; an opening portion is formed on at least one said radially protruding portion; and a connector-connecting portion for electrically connecting the connector section with the drive device is provided in the vicinity of said opening portion , wherein the connector section is attachably/detachably attached onto at least one said opening portion , characterized in that a housing-side one of said opening portion is formed on one of said radially protruding portion provided on the housing, a heat sink-side one of said opening portion is formed on another of said radially protruding portion provided on the heat sink, and a portion for attaching the connector section and the connector-connecting portion are individually provided in the respective opening portions.
A superconducting gate memory circuit comprising: a gate circuit configured to set a digital state as one of a first data state and a second data state in response to a presence of or absence of a write data single flux quantum, SFQ, pulse provided on a write data input ; and a storage loop coupled to the gate circuit and configured to conduct a loop current (I LOOP ) having a current amplitude that is set based on the digital state. a gate circuit configured to set a digital state as one of a first data state and a second data state in response to a presence of or absence of a write data single flux quantum, SFQ, pulse provided on a write data input ; and a storage loop coupled to the gate circuit and configured to conduct a loop current (I LOOP ) having a current amplitude that is set based on the digital state.
A method for processing signalling tracing, the method comprising: reading , by a client, a configuration file corresponding to a traced service, wherein data in the configuration file at least includes an event number of the traced service, and encoding and decoding information of the traced service; establishing , by the client, a connection between the client and a server; generating , by the client, a registration message by encoding registration information and an event number of the traced service based on the encoding and decoding information, wherein the registration message is configured to be decoded by the traced service in the server based on encoding and decoding information set by the traced service itself; registering with , by the client, the traced service in the server based on the configuration file by sending the registration message to the server; and receiving , by the client, a signalling tracing message of the traced service fed back by the server after the registration is successful, wherein the signalling tracing message includes tracing information of an event corresponding to the event number of the traced service in the configuration file happening in the traced service; and outputting , by the client, the signalling tracing message to a display interface. reading , by a client, a configuration file corresponding to a traced service, wherein data in the configuration file at least includes an event number of the traced service, and encoding and decoding information of the traced service; establishing , by the client, a connection between the client and a server; generating , by the client, a registration message by encoding registration information and an event number of the traced service based on the encoding and decoding information, wherein the registration message is configured to be decoded by the traced service in the server based on encoding and decoding information set by the traced service itself; registering with , by the client, the traced service in the server based on the configuration file by sending the registration message to the server; and receiving , by the client, a signalling tracing message of the traced service fed back by the server after the registration is successful, wherein the signalling tracing message includes tracing information of an event corresponding to the event number of the traced service in the configuration file happening in the traced service; and outputting , by the client, the signalling tracing message to a display interface.
A system for monitoring the cold chain integrity of at least one packet of environmentally sensitive goods, the system comprising: a light source; a monitoring unit applied directly to the packet, the monitoring unit comprising: an environmental sensor monitoring an environmental condition to which the goods in the packet are subjected to and outputting environmental condition data, a monitoring unit memory to store the environmental condition data output by the environmental sensor, a microprocessor, an optical output device for conveying the environmental condition data stored in monitoring unit memory, an optical output device trigger, in which the optical output device trigger is a photocell, the optical output device trigger being responsive to a complex triggering event consisting of a complex predetermined triggering sequence of light incident thereon, from the light source, to avoid false operation, and operable to cause the optical output device to begin conveying the environmental condition data, and a power supply; _ a light source; a monitoring unit applied directly to the packet, the monitoring unit comprising: an environmental sensor monitoring an environmental condition to which the goods in the packet are subjected to and outputting environmental condition data, a monitoring unit memory to store the environmental condition data output by the environmental sensor, a microprocessor, an optical output device for conveying the environmental condition data stored in monitoring unit memory, an optical output device trigger, in which the optical output device trigger is a photocell, the optical output device trigger being responsive to a complex triggering event consisting of a complex predetermined triggering sequence of light incident thereon, from the light source, to avoid false operation, and operable to cause the optical output device to begin conveying the environmental condition data, and a power supply; _
A labelling apparatus for labelling containers , comprising: a gripper cylinder for transferring labels having glue applied thereto to the containers; a non-corotating first pneumatic line for supplying compressed air to gripping devices arranged circumferentially on the gripper cylinder; a stationary device for distributing media to provide compressed air; and a first regulating valve for adjusting the supply of compressed air to the gripping devices, wherein the first regulating valve is integrated into the first pneumatic line and jointly connected to the device for distributing media, in particular by means of a detachable snap-in plug connector or a detachable screw connector, so that the first pneumatic line with the first regulating valve can be disassembled from the labelling apparatus separately from the associated gripper cylinder or together with it.
A system for detecting safe operating conditions and maintained integrity in a Pressure Safety Valve (PSV) , the system comprising a valve with an inlet , an outlet , a valve disc controlling fluid flow between the inlet and outlet, a stem connected to the valve disc , a spring washer , and a spring in communication with the valve disc and the spring washer , a position sensor which detects the position of the valve disc transferred through the stem , a vibration sensor which detects vibration in the valve disc , an inlet pressure sensor which detects the static pressure in the inlet , a microcontroller which is controlling said sensors , and further including a compression load cell sensor which detects the dynamic force applied on the valve spring washer by the spring . a position sensor which detects the position of the valve disc transferred through the stem , a vibration sensor which detects vibration in the valve disc , an inlet pressure sensor which detects the static pressure in the inlet , a microcontroller which is controlling said sensors , and further including a compression load cell sensor which detects the dynamic force applied on the valve spring washer by the spring .