mhurhangee/patent-ind-claim-en huggingface dataset:
A sealing member , comprising: sealing materials made from an elastic material; and a high rigidity material provided as a single body with the sealing materials and having a rigidity higher than a rigidity of the sealing materials , characterized in that the high rigidity material is arranged between adjacent sealing materials and is fixed through adhesion or the like as a single body with the sealing materials , the outer edge of the high rigidity material is arranged so as to be surrounded by the adjacent sealing materials , and the adjacent sealing materials protruding from the outer edge of the high rigidity material are adhered closely and fixed to each other through adhesion or the like, therefore the entire outer surface of the sealing member is made from the sealing materials without the high rigidity material exposed. sealing materials made from an elastic material; and a high rigidity material provided as a single body with the sealing materials and having a rigidity higher than a rigidity of the sealing materials , characterized in that the high rigidity material is arranged between adjacent sealing materials and is fixed through adhesion or the like as a single body with the sealing materials , the outer edge of the high rigidity material is arranged so as to be surrounded by the adjacent sealing materials , and the adjacent sealing materials protruding from the outer edge of the high rigidity material are adhered closely and fixed to each other through adhesion or the like, therefore the entire outer surface of the sealing member is made from the sealing materials without the high rigidity material exposed.
A method for detecting a structural failure of at least one fan blade of a fan rotor of an aircraft engine, the method comprising: obtaining a fan rotor speed and an engine vibration parameter; comparing a rate of change of the fan rotor speed to a deceleration threshold ; comparing the engine vibration parameter to a vibration threshold ; detecting the structural failure of the at least one fan blade when the engine vibration parameter exceeds the vibration threshold for a period of time and the rate of change of the fan rotor speed is below the deceleration threshold ; and in response to detecting the structural failure, triggering an alert indicative of the structural failure of the at least one fan blade , wherein the period of time is a first period of time (P 1 ), wherein detecting the structural failure comprises detecting when the engine vibration parameter exceeds the vibration threshold for the first period of time (P 1 ) and the rate of change of the fan rotor speed is below the deceleration threshold for a second period of time (P 2 ), and wherein comparing the engine vibration parameter to the vibration threshold comprises comparing the engine vibration parameter to the vibration threshold after the rate of change of the fan rotor speed is below the deceleration threshold for the second period of time (P 2 ). obtaining a fan rotor speed and an engine vibration parameter; comparing a rate of change of the fan rotor speed to a deceleration threshold ; comparing the engine vibration parameter to a vibration threshold ; detecting the structural failure of the at least one fan blade when the engine vibration parameter exceeds the vibration threshold for a period of time and the rate of change of the fan rotor speed is below the deceleration threshold ; and in response to detecting the structural failure, triggering an alert indicative of the structural failure of the at least one fan blade , wherein the period of time is a first period of time (P 1 ), wherein detecting the structural failure comprises detecting when the engine vibration parameter exceeds the vibration threshold for the first period of time (P 1 ) and the rate of change of the fan rotor speed is below the deceleration threshold for a second period of time (P 2 ), and wherein comparing the engine vibration parameter to the vibration threshold comprises comparing the engine vibration parameter to the vibration threshold after the rate of change of the fan rotor speed is below the deceleration threshold for the second period of time (P 2 ).
A musculoskeletal tissue engineering and compliance monitoring system , comprising: a tissue engineering apparatus comprising an ultrasound transducer configured to supply ultrasound to musculoskeletal tissue, wherein the tissue engineering apparatus is configured with a regimen defining a periodic application of the ultrasound over a long-term duration, the tissue engineering apparatus further comprising a sensor configured to detect use of the tissue engineering apparatus on the musculoskeletal tissue and a first transceiver configured to transmit data from the sensor; a user equipment, UE, device comprising a second transceiver configured to associate with the tissue engineering apparatus and receive the data from the tissue engineering apparatus, and a UE processor configured to compare the data for compliance with the periodic application specified in the regimen, generate a current status of the periodic application, and modify a reminder based on the current status of the periodic application; and a remote server comprising a third transceiver configured to receive the data including the current status from the UE device, and a server processor configured to compile the data into a compliance report identifying use of the tissue engineering apparatus over the long-term duration, the third transceiver further configured to transmit the compliance report to a subscribing device. a tissue engineering apparatus comprising an ultrasound transducer configured to supply ultrasound to musculoskeletal tissue, wherein the tissue engineering apparatus is configured with a regimen defining a periodic application of the ultrasound over a long-term duration, the tissue engineering apparatus further comprising a sensor configured to detect use of the tissue engineering apparatus on the musculoskeletal tissue and a first transceiver configured to transmit data from the sensor; a user equipment, UE, device comprising a second transceiver configured to associate with the tissue engineering apparatus and receive the data from the tissue engineering apparatus, and a UE processor configured to compare the data for compliance with the periodic application specified in the regimen, generate a current status of the periodic application, and modify a reminder based on the current status of the periodic application; and a remote server comprising a third transceiver configured to receive the data including the current status from the UE device, and a server processor configured to compile the data into a compliance report identifying use of the tissue engineering apparatus over the long-term duration, the third transceiver further configured to transmit the compliance report to a subscribing device.
A vehicle for receiving loads, comprising at least one load receiving device , which is supported on a frame , comprising at least one drive motor , and comprising at least four roller elements , carrying the frame, in the form of at least two supporting roller elements and at least two stabilizing roller elements , two of the supporting roller elements being arranged next to one another in the travel direction of the vehicle, of which at least one, and in particular two can be driven by a drive motor , and in each case at least one stabilizing roller element (6, 6', 6", 6"', 7, 7', 107, 107') being arranged in front of and behind the supporting roller elements in the straight-ahead travel direction, which corresponds to the longitudinal direction of the vehicle, characterized in that at least one connecting leg , on which a rotation bearing device comprising a stabilizing roller element mounted therein, is pivotably attached to the frame on at least one pivot bearing , and the load receiving device is supported, on the one hand, on the connecting leg between the pivot bearing and the rotation bearing device and, on the other hand, on the side of the supporting roller elements located opposite the connecting leg or legs , the connecting legs being designed as connecting legs of a trapezoidal link, which connects a first leg and a second leg , the trapezoidal link being attached with the first leg to the frame , at least one rotation bearing device of one of the stabilizing roller elements being attached to a second leg of the trapezoidal link which is located opposite the first leg, and the load receiving device being supported on the connecting leg hingably connecting the first and second legs , and in particular between the first and second legs. characterized in that at least one connecting leg , on which a rotation bearing device comprising a stabilizing roller element mounted therein, is pivotably attached to the frame on at least one pivot bearing , and the load receiving device is supported, on the one hand, on the connecting leg between the pivot bearing and the rotation bearing device and, on the other hand, on the side of the supporting roller elements located opposite the connecting leg or legs , the connecting legs being designed as connecting legs of a trapezoidal link, which connects a first leg and a second leg , the trapezoidal link being attached with the first leg to the frame , at least one rotation bearing device of one of the stabilizing roller elements being attached to a second leg of the trapezoidal link which is located opposite the first leg, and the load receiving device being supported on the connecting leg hingably connecting the first and second legs , and in particular between the first and second legs.
A clothing treatment agent dispensing assembly for a clothing treatment device, the clothing treatment device comprising a body, wherein the clothing treatment agent dispensing assembly comprises a storage container , a dispensing container , and a liquid guiding tube ; the storage container is fixed in the body, and the dispensing container is slidably connected to the body; one end of the liquid guiding tube is in communication with the dispensing container , and the other end of the liquid guiding tube is inserted into the storage container ; and a length of the liquid guiding tube is set such that the other end of the liquid guiding tube will not come out of the storage container when the dispensing container moves away from the storage container , wherein the clothing treatment agent dispensing assembly further comprises a push switch , and the push switch is arranged to be capable of locking the dispensing container on the body and/or the storage container after the dispensing container is pushed into the body; and wherein the clothing treatment agent dispensing assembly further comprises a telescopic tube , characterized in that the telescopic tube is a bellows, an end of the liquid guiding tube is fixedly connected to one end of the telescopic tube and the other end of the telescopic tube is fixedly connected to the dispensing container , wherein the telescopic tube is able to be compressed so that the dispensing container is able to move toward the storage container and to unlock the push switch by force, when the liquid guiding tube is not able to move or does not move smoothly enough. wherein the clothing treatment agent dispensing assembly further comprises a push switch , and the push switch is arranged to be capable of locking the dispensing container on the body and/or the storage container after the dispensing container is pushed into the body; and wherein the clothing treatment agent dispensing assembly further comprises a telescopic tube , characterized in that the telescopic tube is a bellows, an end of the liquid guiding tube is fixedly connected to one end of the telescopic tube and the other end of the telescopic tube is fixedly connected to the dispensing container , wherein the telescopic tube is able to be compressed so that the dispensing container is able to move toward the storage container and to unlock the push switch by force, when the liquid guiding tube is not able to move or does not move smoothly enough.
A method, executed by a wireless device, for wireless access to a network that uses network-oriented measurement, where-in association between the wireless device and physical transmit point, TP, is determined by the network according to uplink transmission-based measurement, , the method comprising: receiving a logical entity identifier, ID, from a controller in a radio access network, wherein the logical ID identifies a logical entity covering a group of transmit points, TPs, and is carried in a synchronization channel; and communicating with a TP in the logical entity based on the logical entity ID, characterized by comprising: obtaining a dedicated connection ID, the dedicated connection ID being generated from a wireless device ID and the logical entity ID; and communicating with at least two TPs of the group of TPs in the logical entity based on the dedicated connection ID. receiving a logical entity identifier, ID, from a controller in a radio access network, wherein the logical ID identifies a logical entity covering a group of transmit points, TPs, and is carried in a synchronization channel; and communicating with a TP in the logical entity based on the logical entity ID, characterized by comprising: obtaining a dedicated connection ID, the dedicated connection ID being generated from a wireless device ID and the logical entity ID; and communicating with at least two TPs of the group of TPs in the logical entity based on the dedicated connection ID. obtaining a dedicated connection ID, the dedicated connection ID being generated from a wireless device ID and the logical entity ID; and communicating with at least two TPs of the group of TPs in the logical entity based on the dedicated connection ID.
An inorganic-organic hybrid phosphor compound of Cu m X m (L 1 ) o (L 2 ) p , wherein: X is a halogen, L 1 is an organic aromatic multi-dentate ligand, wherein at least two atoms of the ligand are heteroatoms independently selected from the group consisting of N, O and S and each of said at least two atoms is coordinated to a Cu atom in a respective Cu m X m cluster so that each of said L 1 links two Cu m X m clusters, L 2 is an organic mono-dentate or multi-dentate ligand, wherein at least 1 atom of the ligand are heteroatoms independently selected from the group consisting of N, O and S and the Cu atom is coordinated to one of these heteroatoms, m is an integer selected from the group consisting of 4, 5 and 6; and o is selected from the group consisting of 1, 2, 3, 4, 5 and 6, p is selected from the group consisting of 0, 1, 2, 3, 4, 5 and 6, wherein the atoms of said compound are arranged to form a network having a 1D, 2D or 3D crystalline lattice structure. X is a halogen, L 1 is an organic aromatic multi-dentate ligand, wherein at least two atoms of the ligand are heteroatoms independently selected from the group consisting of N, O and S and each of said at least two atoms is coordinated to a Cu atom in a respective Cu m X m cluster so that each of said L 1 links two Cu m X m clusters, L 2 is an organic mono-dentate or multi-dentate ligand, wherein at least 1 atom of the ligand are heteroatoms independently selected from the group consisting of N, O and S and the Cu atom is coordinated to one of these heteroatoms, m is an integer selected from the group consisting of 4, 5 and 6; and o is selected from the group consisting of 1, 2, 3, 4, 5 and 6, p is selected from the group consisting of 0, 1, 2, 3, 4, 5 and 6, wherein the atoms of said compound are arranged to form a network having a 1D, 2D or 3D crystalline lattice structure.
A process for manufacturing a multifilament yarn with an extruder having at least a feeding zone , a transition zone and a metering zone , a pump and block section and a spinneret from an absorbable copolymer having a melting point into multifilament fibers comprising the steps of: a. Setting and maintaining at least two of the three extrusion zones selected from the group consisting of the feeding zone , the transition zone and the metering zone , at an operational temperature from about 50 °C below to about 2 °C below the melting point of the copolymer, b. Setting and maintaining the pump and block section at a pump temperature from about 15 °C below to no more than 25 °C above the melting point of the copolymer; c. Setting and maintaining the spinneret at a spin temperature from about 10 °C below to no more than 30 °C above the melting point of the copolymer. a. Setting and maintaining at least two of the three extrusion zones selected from the group consisting of the feeding zone , the transition zone and the metering zone , at an operational temperature from about 50 °C below to about 2 °C below the melting point of the copolymer, b. Setting and maintaining the pump and block section at a pump temperature from about 15 °C below to no more than 25 °C above the melting point of the copolymer; c. Setting and maintaining the spinneret at a spin temperature from about 10 °C below to no more than 30 °C above the melting point of the copolymer.
Method for combusting fuel gas with oxidant gas in a process furnace comprising a firebox containing a burner and a tube, which method comprises optionally pre-heating an oxidant gas and/or a fuel gas ; and subjecting the oxidant gas and/or the fuel gas to humidification, thereby obtaining a humidified gas ; characterized by superheating the humidified gas with an external waste heat stream before feeding the gas to the burner, wherein the humidification step results in a humidified gas of 20-50 °C, wherein the humidified gas is superheated to a temperature of 40-75°C, and wherein the temperature of the humidified gas in the superheating step is increased by at least 10 °C. optionally pre-heating an oxidant gas and/or a fuel gas ; and subjecting the oxidant gas and/or the fuel gas to humidification, thereby obtaining a humidified gas ; characterized by superheating the humidified gas with an external waste heat stream before feeding the gas to the burner, wherein the humidification step results in a humidified gas of 20-50 °C, wherein the humidified gas is superheated to a temperature of 40-75°C, and wherein the temperature of the humidified gas in the superheating step is increased by at least 10 °C.
A gateway device comprising: a memory for storing information regarding an environment around a radio base station ; a controller for executing processing for determining a radio base station on which a mobile station last camped and another radio base station including information regarding a surrounding environment close to information regarding the environment around the radio base station , as a transmission destination of a message to page the mobile station , based on the stored information; and a transmission unit for transmitting the message. a memory for storing information regarding an environment around a radio base station ; a controller for executing processing for determining a radio base station on which a mobile station last camped and another radio base station including information regarding a surrounding environment close to information regarding the environment around the radio base station , as a transmission destination of a message to page the mobile station , based on the stored information; and a transmission unit for transmitting the message.
A thermoplastic graft copolymer resin, comprising: a seed; an alkyl acrylate rubber core enclosing the seed; and a shell enclosing the rubber core, wherein the thermoplastic graft copolymer resin has a gel content of 93 % by weight or more and a swelling index of 6 to 14, wherein the seed is a rubber seed, wherein the rubber seed is a rubber polymer prepared by polymerizing alkyl acrylate and a cyclic polymerization initiator, wherein the rubber core is a rubber polymer prepared by polymerizing alkyl acrylate and a cyclic polymerization initiator. a seed; an alkyl acrylate rubber core enclosing the seed; and a shell enclosing the rubber core, wherein the thermoplastic graft copolymer resin has a gel content of 93 % by weight or more and a swelling index of 6 to 14, wherein the seed is a rubber seed, wherein the rubber seed is a rubber polymer prepared by polymerizing alkyl acrylate and a cyclic polymerization initiator, wherein the rubber core is a rubber polymer prepared by polymerizing alkyl acrylate and a cyclic polymerization initiator.
A fan frame of a centrifugal fan with dual outlets in the same direction, comprising: an upper cover ; a base plate , wherein the base plate and the upper cover are connected to form an accommodating space (S) and an air outlet plane (O), the accommodating space (S) is used for accommodating an impeller , and the impeller and a side wall of the fan frame (FF) form a flow channel therebetween; and a first air deflector arranged near the air outlet plane (O), wherein the first air deflector divides the air outlet plane (O) into a first air outlet (O1) and a second air outlet ; characterized in that the first air deflector extends inward the flow channel from the air outlet plane (O), and a slant surface is formed on an end of the first air deflector extending into the flow channel as a first guide portion ; and wherein one side surface of the first air deflector close to the base plate is shorter than the other side surface of the first air deflector away from the base plate , so that the slant surface on the first air deflector is formed as the first guide portion . an upper cover ; a base plate , wherein the base plate and the upper cover are connected to form an accommodating space (S) and an air outlet plane (O), the accommodating space (S) is used for accommodating an impeller , and the impeller and a side wall of the fan frame (FF) form a flow channel therebetween; and a first air deflector arranged near the air outlet plane (O), wherein the first air deflector divides the air outlet plane (O) into a first air outlet (O1) and a second air outlet ; characterized in that the first air deflector extends inward the flow channel from the air outlet plane (O), and a slant surface is formed on an end of the first air deflector extending into the flow channel as a first guide portion ; and wherein one side surface of the first air deflector close to the base plate is shorter than the other side surface of the first air deflector away from the base plate , so that the slant surface on the first air deflector is formed as the first guide portion .