mhurhangee/patent-ind-claim-en huggingface dataset:
An application processing method for an embedded universal integrated circuit card, eUICC, comprising: activating , by a terminal device, the eUICC; characterized in that the method further comprises selecting , by a modem of the terminal device, an Issuer Security Domain Root, ISD-R, application of the eUICC during an initialization process of the eUICC; obtaining, by a local profile assistant, LPA, in the terminal device, eUICC information during the initialization process of the eUICC, wherein the eUICC information includes at least one of eUICC identity information, information about a profile on the eUICC, or eUICC capability information. selecting , by a modem of the terminal device, an Issuer Security Domain Root, ISD-R, application of the eUICC during an initialization process of the eUICC; obtaining, by a local profile assistant, LPA, in the terminal device, eUICC information during the initialization process of the eUICC, wherein the eUICC information includes at least one of eUICC identity information, information about a profile on the eUICC, or eUICC capability information.
A battery system, comprising: a battery module in which a plurality of assembled batteries each having a plurality of battery cells is connected together; battery monitoring circuits that are provided so as to correspond to each of the assembled batteries of the battery module and monitor a status of each of the battery cells of the assembled batteries ; a control circuit for controlling operation of the battery monitoring circuits ; a first signal transmission path for transmitting all signals that are input and output between the battery monitoring circuits and the control circuit ; a first isolation element connected to the control circuit ; a second isolation element connected to the battery monitoring circuit ; the battery system characterized in that : the first signal transmission path is isolated from the control circuit by the first isolation element and is isolated from the battery monitoring circuit by capacitors for communication as the second isolation element, and an electrical potential of the first signal transmission path is a floating potential in relation to an electrical potential of the control circuit and electrical potentials of the battery monitoring circuits . a battery module in which a plurality of assembled batteries each having a plurality of battery cells is connected together; battery monitoring circuits that are provided so as to correspond to each of the assembled batteries of the battery module and monitor a status of each of the battery cells of the assembled batteries ; a control circuit for controlling operation of the battery monitoring circuits ; a first signal transmission path for transmitting all signals that are input and output between the battery monitoring circuits and the control circuit ; a first isolation element connected to the control circuit ; a second isolation element connected to the battery monitoring circuit ; the battery system characterized in that : the first signal transmission path is isolated from the control circuit by the first isolation element and is isolated from the battery monitoring circuit by capacitors for communication as the second isolation element, and an electrical potential of the first signal transmission path is a floating potential in relation to an electrical potential of the control circuit and electrical potentials of the battery monitoring circuits . the first signal transmission path is isolated from the control circuit by the first isolation element and is isolated from the battery monitoring circuit by capacitors for communication as the second isolation element, and an electrical potential of the first signal transmission path is a floating potential in relation to an electrical potential of the control circuit and electrical potentials of the battery monitoring circuits .
A secondary battery comprising: an electrode assembly comprising a first electrode plate , a second electrode plate , and a separator between the first electrode plate and the second electrode plate; a first electrode terminal electrically coupled to the first electrode plate and a second electrode terminal electrically coupled to the second electrode plate; and a first cover and a second cover respectively coupled to the end portions of the electrode assembly to cover a first end surface and a second end surface, respectively, of the electrode assembly, wherein the first electrode terminal and the second electrode terminal pass through a corresponding terminal opening in at least one of the first and second covers; the secondary battery further comprising: an external member wrapped around side surfaces of the electrode assembly and side surfaces of the first and second covers, the external member comprising a laminate film, wherein two edges of the external member are overlapped and welded together, and first and second ends of the external member are welded to the first and second covers, respectively, such that the electrode assembly is sealed. an electrode assembly comprising a first electrode plate , a second electrode plate , and a separator between the first electrode plate and the second electrode plate; a first electrode terminal electrically coupled to the first electrode plate and a second electrode terminal electrically coupled to the second electrode plate; and a first cover and a second cover respectively coupled to the end portions of the electrode assembly to cover a first end surface and a second end surface, respectively, of the electrode assembly, wherein the first electrode terminal and the second electrode terminal pass through a corresponding terminal opening in at least one of the first and second covers; the secondary battery further comprising: an external member wrapped around side surfaces of the electrode assembly and side surfaces of the first and second covers, the external member comprising a laminate film, wherein two edges of the external member are overlapped and welded together, and first and second ends of the external member are welded to the first and second covers, respectively, such that the electrode assembly is sealed. an external member wrapped around side surfaces of the electrode assembly and side surfaces of the first and second covers, the external member comprising a laminate film, wherein two edges of the external member are overlapped and welded together, and first and second ends of the external member are welded to the first and second covers, respectively, such that the electrode assembly is sealed.
A method for requesting, analyzing, and transmitting data from the driver assistance systems of a vehicle (F), what are known as FAS data, to an external user (N), comprising the steps of: - determining FAS data via the sensor system of the driver assistance systems of the vehicle (F), - storing the FAS data in a vehicle-side swarm data aggregator (SDA), wherein the FAS data in the swarm data aggregator (SDA) are provided with a destruction period, - creating a summary of the FAS data stored in the swarm data aggregator (SQ), - transmitting the summary of the FAS data to a swarm memory (SQ) of an external backend computer (BE), - analysis of the summary of the FAS data by an analysis device (AW) of the backend computer (BE), - requesting the FAS data stored in the swarm data aggregator (SQ), by the analysis device (AW), in the event that the analysis of the summary results that relevant FAS data are present in the swarm data aggregator (SQ), - transmitting the FAS data from the swarm data aggregator (SQ) of the vehicle (F) to the swarm memory (SQ) of the backend computer (BE), and - transmitting the FAS data from the swarm memory (SQ) to the external user (N). - determining FAS data via the sensor system of the driver assistance systems of the vehicle (F), - storing the FAS data in a vehicle-side swarm data aggregator (SDA), wherein the FAS data in the swarm data aggregator (SDA) are provided with a destruction period, - creating a summary of the FAS data stored in the swarm data aggregator (SQ), - transmitting the summary of the FAS data to a swarm memory (SQ) of an external backend computer (BE), - analysis of the summary of the FAS data by an analysis device (AW) of the backend computer (BE), - requesting the FAS data stored in the swarm data aggregator (SQ), by the analysis device (AW), in the event that the analysis of the summary results that relevant FAS data are present in the swarm data aggregator (SQ), - transmitting the FAS data from the swarm data aggregator (SQ) of the vehicle (F) to the swarm memory (SQ) of the backend computer (BE), and - transmitting the FAS data from the swarm memory (SQ) to the external user (N).
A method for tool length measurement using a non-contact tool setting apparatus mounted to a machine tool, the non-contact tool setting apparatus comprising a transmitter for emitting a light beam (12;80) having a beam width and a receiver for receiving the light beam, the receiver generating a beam intensity signal describing the intensity of received light, the method being for measuring the length of a tool having a nominal tool diameter less than the beam width such that fully inserting the tool into the light beam only partially occludes the light beam, the method comprising the steps of; (i) using the machine tool to move the tool through the light beam (12;80) thereby causing a change in the beam intensity signal, the tool being moved by the machine tool into or out of the light beam in a direction along the length of the tool and in a direction perpendicular to the direction of the light beam, (ii) generating a trigger signal that indicates the beam intensity signal has crossed a trigger threshold, and (iii) determining the length of the tool using the trigger signal generated in step (ii), the method further comprising a step of applying a tool length correction that accounts for the nominal tool diameter being less than the beam width. (i) using the machine tool to move the tool through the light beam (12;80) thereby causing a change in the beam intensity signal, the tool being moved by the machine tool into or out of the light beam in a direction along the length of the tool and in a direction perpendicular to the direction of the light beam, (ii) generating a trigger signal that indicates the beam intensity signal has crossed a trigger threshold, and (iii) determining the length of the tool using the trigger signal generated in step (ii),
Electrosurgical instrument comprising - a base unit having a receptacle in the form of a straight channel for a plug section of an electrode assembly , and - an electrode assembly with a rod assembly extending between a distal and a proximal end, the distal end of which rod assembly carries an electrosurgical effector or can be coupled to such an effector and the proximal end of which rod assembly is designed as a plug section and is plugged into the receptacle of the base unit in a sealing manner, wherein the receptacle of the base unit and the plug section of the electrode assembly each carry a plurality of spaced-apart contact elements (123, 123', 123", 133; 221, 231) which are electrically insulated from one another and form a corresponding plurality of contact pairs, each comprising a plug-side and a receptacle-side contact element (123, 123', 123", 133; 221, 231) which make electrical contact with one another, and wherein the plug section has a sleeve made of an elastic sealing material, the outer wall of which sealingly abuts against the inner wall of a sealing section of the receptacle , characterized in that the sleeve is clamped axially between a plug-side fixing and a receptacle-side contact surface , which extends transversely to the axial direction of the receptacle and faces distally. - a base unit having a receptacle in the form of a straight channel for a plug section of an electrode assembly , and - an electrode assembly with a rod assembly extending between a distal and a proximal end, the distal end of which rod assembly carries an electrosurgical effector or can be coupled to such an effector and the proximal end of which rod assembly is designed as a plug section and is plugged into the receptacle of the base unit in a sealing manner, wherein the receptacle of the base unit and the plug section of the electrode assembly each carry a plurality of spaced-apart contact elements (123, 123', 123", 133; 221, 231) which are electrically insulated from one another and form a corresponding plurality of contact pairs, each comprising a plug-side and a receptacle-side contact element (123, 123', 123", 133; 221, 231) which make electrical contact with one another, and wherein the plug section has a sleeve made of an elastic sealing material, the outer wall of which sealingly abuts against the inner wall of a sealing section of the receptacle , characterized in that the sleeve is clamped axially between a plug-side fixing and a receptacle-side contact surface , which extends transversely to the axial direction of the receptacle and faces distally.
A method for producing a Cu-Ni-Sn alloy by a continuous casting method or a semi-continuous casting method, the method comprising the steps of: pouring a molten Cu-Ni-Sn alloy from one end of a mold , both ends of which are open, and continuously drawing out the alloy as an ingot from the other end of the mold while solidifying a part of the alloy; and carrying out mist cooling on the drawn-out ingot to cool the ingot, thereby making a cast product of the Cu-Ni-Sn alloy, wherein the Cu-Ni-Sn alloy is a spinodal alloy comprising Ni: 8 to 22% by weight and Sn: 4 to 10% by weight, with the balance being Cu and inevitable impurities wherein the cooling is performed by allowing the ingot to pass through a cooler disposed immediately below the mold , wherein the cooler comprises: a cylindrical main body ; a liquid supply part provided at an upper part of the cylindrical main body and configured in such a way as to discharge liquid downward; and an air ejection part that ejects air toward a central axis of the cylindrical main body , the air ejection part provided below the liquid supply part , wherein the cooler is configured in such a way that the liquid that is discharged downward is mixed with the air without directly hitting against the ingot . pouring a molten Cu-Ni-Sn alloy from one end of a mold , both ends of which are open, and continuously drawing out the alloy as an ingot from the other end of the mold while solidifying a part of the alloy; and carrying out mist cooling on the drawn-out ingot to cool the ingot, thereby making a cast product of the Cu-Ni-Sn alloy, wherein the Cu-Ni-Sn alloy is a spinodal alloy comprising Ni: 8 to 22% by weight and Sn: 4 to 10% by weight, with the balance being Cu and inevitable impurities wherein the cooling is performed by allowing the ingot to pass through a cooler disposed immediately below the mold , wherein the cooler comprises: a cylindrical main body ; a liquid supply part provided at an upper part of the cylindrical main body and configured in such a way as to discharge liquid downward; and an air ejection part that ejects air toward a central axis of the cylindrical main body , the air ejection part provided below the liquid supply part , a cylindrical main body ; a liquid supply part provided at an upper part of the cylindrical main body and configured in such a way as to discharge liquid downward; and an air ejection part that ejects air toward a central axis of the cylindrical main body , the air ejection part provided below the liquid supply part , wherein the cooler is configured in such a way that the liquid that is discharged downward is mixed with the air without directly hitting against the ingot .
Capsule for soluble mixture , in an operating condition intended to the production of fluid food or beverages, comprising a container , a lid peripherally bounded to an annular edge of the container and perforable for inletting a liquid into container in correspondence with the operating condition, and further comprising a tubular duct having an inner end opening into the container volume and an outer end fixed to a base of the container , opposed to lid , and leading outside for pouring the fluid food in correspondence of the operating condition; said capsule being characterized in that in an inactive condition, set before the operating condition, the inner end of the duct is configured to abut in mutual contact with the lid occluding the inner end to prevent the escape of soluble mixture and that by the pressure of the liquid entered into the container , in the operating condition the lid , made of a material at least partially flexible and/or deformable, is configured to move away from that inner end opening to allow the dispensing of the fluid food through the outer end .
Tool having a base body of hard metal, cermet, ceramics, steel or high speed steel and a multi-layer wear protection coating deposited on the base body by means of the PVD process, characterized in that the wear protection coating comprises the following coats: a) a first coat deposited on the base body and having the composition Ti a Al (1-a) N wherein 0.4≤a≤0.6 and a coating thickness of 0.5 μm to 4 μm, b) a second coat deposited on the first coat and consisting of a sequence of 10 to 80 of each of first layers and second layers being alternatingly arranged on top of each other, wherein each of the first and second layers has a layer thickness of from 5 nm to 100 nm, wherein the first layer comprises the nitrides of the elements Ti, Al, Cr and Si, the first layer comprises 2 to 40, preferably 3 to 10, of each of alternatingly on top of each other deposited sub-layers of the compositions Ti y Si (1-y) N and Al z Cr (1-z) N, respectively, wherein 0.70≤y≤0.98 and 0.6≤z≤0.8 and having a thickness of each of the sub-layers of from 0.5 nm to 15 nm, the first layer has cubic face-centered crystal structure, and wherein the second layer has the composition of Ti x Al (1-x) N wherein 0.4≤x≤0.6, wherein the wear protection coating can comprise a further hard material coats above the second coat . a) a first coat deposited on the base body and having the composition Ti a Al (1-a) N wherein 0.4≤a≤0.6 and a coating thickness of 0.5 μm to 4 μm, b) a second coat deposited on the first coat and consisting of a sequence of 10 to 80 of each of first layers and second layers being alternatingly arranged on top of each other, wherein each of the first and second layers has a layer thickness of from 5 nm to 100 nm, wherein the first layer comprises the nitrides of the elements Ti, Al, Cr and Si, the first layer comprises 2 to 40, preferably 3 to 10, of each of alternatingly on top of each other deposited sub-layers of the compositions Ti y Si (1-y) N and Al z Cr (1-z) N, respectively, wherein 0.70≤y≤0.98 and 0.6≤z≤0.8 and having a thickness of each of the sub-layers of from 0.5 nm to 15 nm, the first layer has cubic face-centered crystal structure, and wherein the second layer has the composition of Ti x Al (1-x) N wherein 0.4≤x≤0.6, wherein the first layer comprises the nitrides of the elements Ti, Al, Cr and Si, the first layer comprises 2 to 40, preferably 3 to 10, of each of alternatingly on top of each other deposited sub-layers of the compositions Ti y Si (1-y) N and Al z Cr (1-z) N, respectively, wherein 0.70≤y≤0.98 and 0.6≤z≤0.8 and having a thickness of each of the sub-layers of from 0.5 nm to 15 nm, the first layer has cubic face-centered crystal structure, and wherein the second layer has the composition of Ti x Al (1-x) N wherein 0.4≤x≤0.6,
A communication method, comprising: obtaining (S210), by a first network device, a first aggregate maximum bit rate, AMBR, of a protocol data unit, PDU, session, wherein the first AMBR is an AMBR of a flow that is served by a second network device in the PDU session, the first network device is a master node serving a terminal, and the second network device is a secondary node serving the terminal; and sending (S220), by the first network device, first information to the second network device, wherein the first information comprises the first AMBR, so that the second network device provides, based on the first AMBR, the PDU session service for the terminal. obtaining (S210), by a first network device, a first aggregate maximum bit rate, AMBR, of a protocol data unit, PDU, session, wherein the first AMBR is an AMBR of a flow that is served by a second network device in the PDU session, the first network device is a master node serving a terminal, and the second network device is a secondary node serving the terminal; and sending (S220), by the first network device, first information to the second network device, wherein the first information comprises the first AMBR, so that the second network device provides, based on the first AMBR, the PDU session service for the terminal.
A method for preparing a copper-containing catalyst comprising the steps of: (a) combining an acidic copper-containing solution with a first basic precipitant solution in a first precipitation step to form a first precipitate, (b) combining an acidic aluminium-containing solution, further comprising one or more metal compounds selected from copper compounds, zinc compounds and promoter compounds, with a second basic precipitant solution in a second precipitation step to form a second precipitate, (c) contacting the first and second precipitates together in a further mixing step to form a catalyst precursor, and (d) washing, drying and calcining the catalyst precursor to form the copper-containing catalyst, wherein a silica precursor is included in the first precipitation step, the second precipitation step or the precipitate mixing step, to provide a catalyst with a silica content, expressed as SiOz, in the range of 0.1 to 5.0 wt%.