mhurhangee/patent-ind-claim-en huggingface dataset:
A container comprising a cylindrical pouring nozzle having an outer thread and a cap having an inner thread , which inner thread can be screwed onto an outer thread of the pouring nozzle as far as an end position, the cap having a substantially cylindrical outer wall and a substantially cylindrical inner wall which delimit a receiving space , in the form of an annular cylinder, for the pouring nozzle , characterized by a stop, the cap abutting, in the end position, the stop of the pouring nozzle in the direction of rotation, a seal made of a material that is softer than a material of the cap and a material of the pouring nozzle , the seal being rigidly connected to the cap and having a first sealing element which is arranged between the cap and the pouring nozzle in a radial direction when the cap is screwed on and abuts a lateral surface portion of the pouring nozzle , the seal being arranged in the receiving space at a front end of the receiving space , a sealing face of the seal facing the receiving space being free of production-related surface structures.
A method comprising the following steps performed by a wireless communication device that is suitable for being carried around by a user, the method comprising: Detecting , while the wireless communication device is connected to a base station , a presence of a wireless relay station ; determining a predicted connection time for a connection to be established between the wireless communication device and the wireless relay station, the predicted connection time being a time required for completing one or more impending transmissions of the wireless communication device; Determining , whether a movement or non-movement of the wireless communication device coincides with a movement or non-movement of the wireless relay station based on the predicted connection time, by determining whether the wireless communication device and the wireless relay station are stationary at the same location, or whether the wireless communication device is moving in unison with the wireless relay station, wherein the coincidence between the movement or non-movement of the wireless communication device and the wireless relay station is determined for the duration of the predicted connection time; Connecting , by the wireless communication device, if the movement or non-movement of the wireless communication device coincides with the movement or non-movement of the wireless relay station for the duration of the predicted connection time, to the wireless relay station. Detecting , while the wireless communication device is connected to a base station , a presence of a wireless relay station ; determining a predicted connection time for a connection to be established between the wireless communication device and the wireless relay station, the predicted connection time being a time required for completing one or more impending transmissions of the wireless communication device; Determining , whether a movement or non-movement of the wireless communication device coincides with a movement or non-movement of the wireless relay station based on the predicted connection time, by determining whether the wireless communication device and the wireless relay station are stationary at the same location, or whether the wireless communication device is moving in unison with the wireless relay station, wherein the coincidence between the movement or non-movement of the wireless communication device and the wireless relay station is determined for the duration of the predicted connection time; Connecting , by the wireless communication device, if the movement or non-movement of the wireless communication device coincides with the movement or non-movement of the wireless relay station for the duration of the predicted connection time, to the wireless relay station.
A manufacturing method of a hydrolysate of animal protein comprising: preparing meat slurry by dispersing ground meat in water in an amount of 100 to 300 parts by weight with respect to 100 parts by weight of meat and removing fat floating to a surface of the water; and manufacturing an enzymatic hydrolysis product by carrying out an enzymatic hydrolysis to the meat slurry with addition of a protease in an amount of 0.25 to 5 parts by weight with respect to 100 parts by weight of the meat under a pressure of 75 to 200 MPa at a temperature of 40 to 60°C for 5 to 50 hours; and obtaining a supernatant containing a hydrolysate of meat protein by cooling the enzymatic hydrolysis product at a temperature at which the fat is coagulated and removing a precipitate layer containing the coagulated fat or insoluble meat protein by centrifugation, wherein the meat includes one or more selected from the group consisting of beef, pork, chicken, venison, salmon flesh, and tuna flesh, and wherein the protease includes one or more selected from the group consisting of Alcalase, Bromelain, Flavourzyme, α-chymotrypsin, papain, trypsin acetylated, ficin, thermolysin, pancreatin, pepsin, trypsin, serine proteases, thereonine proteases, cysteine proteases, aspartate proteases, glutamic proteases, and metalloproteases. preparing meat slurry by dispersing ground meat in water in an amount of 100 to 300 parts by weight with respect to 100 parts by weight of meat and removing fat floating to a surface of the water; and manufacturing an enzymatic hydrolysis product by carrying out an enzymatic hydrolysis to the meat slurry with addition of a protease in an amount of 0.25 to 5 parts by weight with respect to 100 parts by weight of the meat under a pressure of 75 to 200 MPa at a temperature of 40 to 60°C for 5 to 50 hours; and obtaining a supernatant containing a hydrolysate of meat protein by cooling the enzymatic hydrolysis product at a temperature at which the fat is coagulated and removing a precipitate layer containing the coagulated fat or insoluble meat protein by centrifugation, wherein the meat includes one or more selected from the group consisting of beef, pork, chicken, venison, salmon flesh, and tuna flesh, and wherein the protease includes one or more selected from the group consisting of Alcalase, Bromelain, Flavourzyme, α-chymotrypsin, papain, trypsin acetylated, ficin, thermolysin, pancreatin, pepsin, trypsin, serine proteases, thereonine proteases, cysteine proteases, aspartate proteases, glutamic proteases, and metalloproteases.
A power transmission system comprising: at least one power substation for receiving power from a power source ; a Direct Current (DC) cable for transferring the power from the power source to the power substation , the DC cable comprising one or more cable segments forming a first power routing path to route the power to the power substation and one or more cable segments forming a second power routing path to route the power to the power substation ; a main switch unit coupled between the power source and the at least one power substation and configured for, in the event of a fault on or a maintenance event for a faulty cable segment of one of the first and second power routing paths, routing the power to the power substation via the one or more operational cable segments of the other of the first and second power routing paths; and a plurality of segment switch units , each cable segment being electrically coupled to at least one segment switch unit , wherein each segment switch unit comprises: at least one shorting switch element (206; 214) for providing a short circuit path to prevent the power from the power source to be routed to the faulty cable segment in response to a shorting command, and at least one disconnect switch element for disconnecting the faulty cable segment in response to a disconnect command. at least one power substation for receiving power from a power source ; a Direct Current (DC) cable for transferring the power from the power source to the power substation , the DC cable comprising one or more cable segments forming a first power routing path to route the power to the power substation and one or more cable segments forming a second power routing path to route the power to the power substation ; a main switch unit coupled between the power source and the at least one power substation and configured for, in the event of a fault on or a maintenance event for a faulty cable segment of one of the first and second power routing paths, routing the power to the power substation via the one or more operational cable segments of the other of the first and second power routing paths; and a plurality of segment switch units , each cable segment being electrically coupled to at least one segment switch unit , wherein each segment switch unit comprises: at least one shorting switch element (206; 214) for providing a short circuit path to prevent the power from the power source to be routed to the faulty cable segment in response to a shorting command, and at least one disconnect switch element for disconnecting the faulty cable segment in response to a disconnect command. at least one shorting switch element (206; 214) for providing a short circuit path to prevent the power from the power source to be routed to the faulty cable segment in response to a shorting command, and at least one disconnect switch element for disconnecting the faulty cable segment in response to a disconnect command.
A method of processing a joint , said method comprising: forming an actively brazed joint in a vacuum furnace from at least two components coupled together by a volume of a joining metal alloy having a solidus temperature and a liquidus temperature, wherein the joining metal alloy is heated to a first temperature that is higher than the liquidus temperature in the vacuum furnace; and cooling the actively brazed joint to a second temperature that is lower than the solidus temperature; and maintaining the second temperature within the vacuum furnace for a predefined duration to form at least one region of segregated crystallization within the volume of the joining metal alloy, wherein the at least one region of segregated crystallization is configured to increase the liquidus temperature of a layer of brazed metal, formed from the joining metal alloy, between the at least two components. forming an actively brazed joint in a vacuum furnace from at least two components coupled together by a volume of a joining metal alloy having a solidus temperature and a liquidus temperature, wherein the joining metal alloy is heated to a first temperature that is higher than the liquidus temperature in the vacuum furnace; and cooling the actively brazed joint to a second temperature that is lower than the solidus temperature; and maintaining the second temperature within the vacuum furnace for a predefined duration to form at least one region of segregated crystallization within the volume of the joining metal alloy, wherein the at least one region of segregated crystallization is configured to increase the liquidus temperature of a layer of brazed metal, formed from the joining metal alloy, between the at least two components.
Wine-making process which comprises: - a step of arranging an enological product; - a step of arranging an inactive yeast for wine-making use; - a step of adding, to said enological product, said inactive yeast such that it does not perform a fermentation action in said process; said method being characterized in that said step of arranging said inactive yeast comprises: - providing an active yeast for wine-making use, never dried, with water residue of at least 40% by mass; - inserting said active yeast in a pressurization chamber; - inserting, within said pressurization chamber, a fluid at a lysis pressure higher than 1000 bar in order to subject said active yeast to said lysis pressure with consequent breakage of the molecular structure of said active yeast and obtainment of an inactive yeast lysate having at least one colloidal fraction and mannoproteins susceptible of reacting in wine or must; - depressurizing said pressurization chamber; - extracting said inactive yeast from said pressurization chamber. said adding step being executed before or after a step of fermentation of said enological product. - a step of arranging an enological product; - a step of arranging an inactive yeast for wine-making use; - a step of adding, to said enological product, said inactive yeast such that it does not perform a fermentation action in said process; - providing an active yeast for wine-making use, never dried, with water residue of at least 40% by mass; - inserting said active yeast in a pressurization chamber; - inserting, within said pressurization chamber, a fluid at a lysis pressure higher than 1000 bar in order to subject said active yeast to said lysis pressure with consequent breakage of the molecular structure of said active yeast and obtainment of an inactive yeast lysate having at least one colloidal fraction and mannoproteins susceptible of reacting in wine or must; - depressurizing said pressurization chamber; - extracting said inactive yeast from said pressurization chamber.
An apparatus, comprising: an optical fiber ; an actuator configured to generate a force to vary an orientation of a first end of the optical fiber ; and a joint mechanically coupling the actuator to the optical fiber , wherein the joint is configured to couple the force generated by the actuator to the optical fiber , and wherein the joint comprises: a neck extending along an axis (z, 150, 512, 608, 714), the optical fiber being threaded through an aperture extending along the axis (z, 150, 512, 608, 714) through the neck , wherein the optical fiber is attached to the joint at a surface of the neck facing the axis (z, 150, 512, 608, 714), a collar extending along the axis (z, 150, 512, 608, 714), wherein the actuator is mechanically attached to the joint at an inner surface of the collar facing the axis, and a flexural element extending radially from the neck to the collar , wherein the joint has a first stiffness (kz) with respect to the axis (z, 150, 512, 608, 714), a second stiffness (kx) with respect to a first radial direction (x, 402a), and a third stiffness (ky) with respect to a second radial direction (y, 402b) orthogonal the first radial direction (x, 402a), and wherein the first stiffness (kz) is greater than the second stiffness (kx) and the third stiffness (ky). an optical fiber ; an actuator configured to generate a force to vary an orientation of a first end of the optical fiber ; and a joint mechanically coupling the actuator to the optical fiber , wherein the joint is configured to couple the force generated by the actuator to the optical fiber , and wherein the joint comprises: a neck extending along an axis (z, 150, 512, 608, 714), the optical fiber being threaded through an aperture extending along the axis (z, 150, 512, 608, 714) through the neck , wherein the optical fiber is attached to the joint at a surface of the neck facing the axis (z, 150, 512, 608, 714), a collar extending along the axis (z, 150, 512, 608, 714), wherein the actuator is mechanically attached to the joint at an inner surface of the collar facing the axis, and a flexural element extending radially from the neck to the collar , a neck extending along an axis (z, 150, 512, 608, 714), the optical fiber being threaded through an aperture extending along the axis (z, 150, 512, 608, 714) through the neck , wherein the optical fiber is attached to the joint at a surface of the neck facing the axis (z, 150, 512, 608, 714), a collar extending along the axis (z, 150, 512, 608, 714), wherein the actuator is mechanically attached to the joint at an inner surface of the collar facing the axis, and a flexural element extending radially from the neck to the collar , wherein the joint has a first stiffness (kz) with respect to the axis (z, 150, 512, 608, 714), a second stiffness (kx) with respect to a first radial direction (x, 402a), and a third stiffness (ky) with respect to a second radial direction (y, 402b) orthogonal the first radial direction (x, 402a), and wherein the first stiffness (kz) is greater than the second stiffness (kx) and the third stiffness (ky).
A method for an originating mobile network to identify a type of communications service of a terminating user, the method comprising: at a server of the originating mobile network, receiving from an originating user device provisioned for Voice over LTE communications service, a user identifier for a terminating user, wherein the originating user device is associated with a first mobile network operator, MNO, of the originating mobile network, and wherein the terminating user is associated with a second MNO that is different from the first MNO; at the server, requesting with a query from an Internet Protocol eXchange, IPX, network a service identifier which indicates the type of communications service for which the terminating user is provisioned; at the server, receiving from the second MNO of the terminating user the service identifier in response; at the server, determining whether the terminating user is provisioned for Voice over LTE communications service based on the received service identifier; and at the server, routing a call between the originating user device and the terminating user using Voice over LTE communications service when the terminating user device is provisioned for Voice over LTE communications service. at a server of the originating mobile network, receiving from an originating user device provisioned for Voice over LTE communications service, a user identifier for a terminating user, wherein the originating user device is associated with a first mobile network operator, MNO, of the originating mobile network, and wherein the terminating user is associated with a second MNO that is different from the first MNO; at the server, requesting with a query from an Internet Protocol eXchange, IPX, network a service identifier which indicates the type of communications service for which the terminating user is provisioned; at the server, receiving from the second MNO of the terminating user the service identifier in response; at the server, determining whether the terminating user is provisioned for Voice over LTE communications service based on the received service identifier; and at the server, routing a call between the originating user device and the terminating user using Voice over LTE communications service when the terminating user device is provisioned for Voice over LTE communications service.
A message transmission method, comprising: obtaining , by a core network device , a first correspondence, wherein the first correspondence comprises a correspondence between target device information and first time sensitive networking, TSN, domain information, the target device information is used to identify a target device, and the first TSN domain information is used to identify a TSN domain to which a first TSN device belongs; receiving , by the core network device , a multicast message from a second TSN device, wherein the multicast message is a message that carries a multicast address and allows a group of receivers that intend to receive data from the multicast address to receive and process the data, the multicast message comprises second TSN domain information, and the second TSN domain information is used to identify a TSN domain to which the second TSN device belongs; and sending , by the core network device , the multicast message to the target device when determining , based on the second TSN domain information and the first correspondence, that the second TSN device and the first TSN device belong to a same TSN domain, and not sending, by the core network device , the multicast message to the target device when determining that the second TSN device and the first TSN device do not belong to a same TSN domain, wherein the core network device and the target device are part of a wireless network of a TSN network, and the target device has a connection relationship with the first TSN device. obtaining , by a core network device , a first correspondence, wherein the first correspondence comprises a correspondence between target device information and first time sensitive networking, TSN, domain information, the target device information is used to identify a target device, and the first TSN domain information is used to identify a TSN domain to which a first TSN device belongs; receiving , by the core network device , a multicast message from a second TSN device, wherein the multicast message is a message that carries a multicast address and allows a group of receivers that intend to receive data from the multicast address to receive and process the data, the multicast message comprises second TSN domain information, and the second TSN domain information is used to identify a TSN domain to which the second TSN device belongs; and sending , by the core network device , the multicast message to the target device when determining , based on the second TSN domain information and the first correspondence, that the second TSN device and the first TSN device belong to a same TSN domain, and not sending, by the core network device , the multicast message to the target device when determining that the second TSN device and the first TSN device do not belong to a same TSN domain, wherein the core network device and the target device are part of a wireless network of a TSN network, and the target device has a connection relationship with the first TSN device.
A printer , comprising: a media control system, the media control system having at least one motor (110,A, 110B, 110C) coupled to a media moving device : characterized by a memory to store motor characteristics for the at least one motor: the media control system to control the tension in media loaded in a paper path using the at least one motor, the media control system using the stored motor characteristics to adjust a control signal to the at least one motor. a media control system, the media control system having at least one motor (110,A, 110B, 110C) coupled to a media moving device : characterized by a memory to store motor characteristics for the at least one motor: the media control system to control the tension in media loaded in a paper path using the at least one motor, the media control system using the stored motor characteristics to adjust a control signal to the at least one motor.