mhurhangee/ep-ind-claims huggingface dataset:
A communication method, comprising: sending, by a source access network device, a handover request to a target access network device, wherein the handover request comprises first information, and the first information comprises a list of session management-network slice selection assistance informations, SM-NSSAIs, that are allowed to be switched; wherein the session management-NSSAI comprises a slice/service type; receiving, by the source access network device, a handover request acknowledgement sent by the target access network device; and sending, by the source access network device, a handover command to the user equipment by using an RRC connection reconfiguration message after receiving the handover request acknowledgement; wherein the handover command comprises the first information; and wherein the source access network device and the target access network device exchange information about SM-NSSAI respectively supported by the source access network device and the target access network device; and the source access network device determines the target access network device to which the user equipment is to be handed over based on the stored first information before the handover request including the first information can be sent. sending, by a source access network device, a handover request to a target access network device, wherein the handover request comprises first information, and the first information comprises a list of session management-network slice selection assistance informations, SM-NSSAIs, that are allowed to be switched; wherein the session management-NSSAI comprises a slice/service type; receiving, by the source access network device, a handover request acknowledgement sent by the target access network device; and sending, by the source access network device, a handover command to the user equipment by using an RRC connection reconfiguration message after receiving the handover request acknowledgement; wherein the handover command comprises the first information; and wherein the source access network device and the target access network device exchange information about SM-NSSAI respectively supported by the source access network device and the target access network device; and the source access network device determines the target access network device to which the user equipment is to be handed over based on the stored first information before the handover request including the first information can be sent.
A rotary X-ray anode, which has a support body and a focal path formed on the support body, wherein the support body and the focal path are produced as a composite by powder metallurgy, the support body is formed from molybdenum or a molybdenum-based alloy and the focal path is formed from a tungsten-rhenium-alloy with a rhenium proportion in a range of 5-10 wt.%, characterized in that, in the conclusively heat-treated rotary X-ray anode, at least one portion of the focal path is present in a non-recrystallized and/or in a partially recrystallized structure and has a hardness of ≥ 350 HV 30.
A processor system to provide persistent memory, comprising: a volatile cache, a nonvolatile cache to store data received from said volatile cache, the data being associated with a transaction, the data to be received from the volatile cache while the transaction is being executed by said processor system, the processor system further comprising a nonvolatile cache transaction manager, the nonvolatile cache transaction manager being configured to identify the data as durable when all data associated with the transaction has been stored in the nonvolatile cache and the transaction has ended; and a nonvolatile memory to store the data received from the nonvolatile cache once the data is identified as durable. a volatile cache, a nonvolatile cache to store data received from said volatile cache, the data being associated with a transaction, the data to be received from the volatile cache while the transaction is being executed by said processor system, the processor system further comprising a nonvolatile cache transaction manager, the nonvolatile cache transaction manager being configured to identify the data as durable when all data associated with the transaction has been stored in the nonvolatile cache and the transaction has ended; and a nonvolatile memory to store the data received from the nonvolatile cache once the data is identified as durable.
Method for monitoring a first node (203, 401) in a communications network by a second node (205, 301), wherein the first node (203, 401) has a single-channel design and is designed to execute a safety-oriented application, wherein the second node (205, 301) has a dual-channel design, and wherein a safety protocol is used for a data transfer between the first node and the second node on the communications network, comprising the steps: - determining in the dual-channel second node at each of two consecutive time points a time value, which is based on an internal timer of the dual-channel second node (205, 301), and the dual-channel second node sending each determined time value to the single-channel first node (203, 401) via the communications network, - the single-channel first node (203, 401) receiving the sent time value and determining in response to the receipt a further time value, which is based on a further internal timer of the single-channel first node (203, 401), with the result that two further time values are present in the single-channel first node (203, 401), - the single-channel first node (203, 401) comparing a difference between the two time values from the dual-channel second node (205, 301) with a difference between the two further time values from the single-channel first node (203, 401), wherein the single-channel first node (203, 401) goes into an error state depending on the comparison. - determining in the dual-channel second node at each of two consecutive time points a time value, which is based on an internal timer of the dual-channel second node (205, 301), and the dual-channel second node sending each determined time value to the single-channel first node (203, 401) via the communications network, - the single-channel first node (203, 401) receiving the sent time value and determining in response to the receipt a further time value, which is based on a further internal timer of the single-channel first node (203, 401), with the result that two further time values are present in the single-channel first node (203, 401), - the single-channel first node (203, 401) comparing a difference between the two time values from the dual-channel second node (205, 301) with a difference between the two further time values from the single-channel first node (203, 401), wherein the single-channel first node (203, 401) goes into an error state depending on the comparison.
A method for constructing an elevator (E;E'), comprising providing an elevator car; providing plurality of prefabricated hoistway modules (A,B,C; A',B',C') to be piled on top of each other, each hoistway module (A,B,C; A',B',C') bordering a hoistway space into which the whole elevator car or at least an upper or lower end thereof can be fitted to move; and piling said plurality of prefabricated modules (A,B,C; A',B',C') on top of each other, such that the hoistway spaces of the prefabricated modules (A,B,C; A',B',C') are vertically aligned forming a continuous vertically elongated hoistway where the elevator car can be fitted to move; and arranging the elevator car to be vertically movable in the hoistway, characterized in that the plurality of prefabricated hoistway modules (A,B,C; A',B',C') comprise a prefabricated top module (C;C') comprising a machinery for driving a hoisting roping, and the prefabricated top module (C;C') comprises one or more car guide rail sections, and the machinery for driving a hoisting roping is mounted on a car guide rail section of the prefabricated top module (C;C') to be vertically carried by the car guide rail section. providing an elevator car; providing plurality of prefabricated hoistway modules (A,B,C; A',B',C') to be piled on top of each other, each hoistway module (A,B,C; A',B',C') bordering a hoistway space into which the whole elevator car or at least an upper or lower end thereof can be fitted to move; and piling said plurality of prefabricated modules (A,B,C; A',B',C') on top of each other, such that the hoistway spaces of the prefabricated modules (A,B,C; A',B',C') are vertically aligned forming a continuous vertically elongated hoistway where the elevator car can be fitted to move; and arranging the elevator car to be vertically movable in the hoistway, characterized in that the plurality of prefabricated hoistway modules (A,B,C; A',B',C') comprise a prefabricated top module (C;C') comprising a machinery for driving a hoisting roping, and the prefabricated top module (C;C') comprises one or more car guide rail sections, and the machinery for driving a hoisting roping is mounted on a car guide rail section of the prefabricated top module (C;C') to be vertically carried by the car guide rail section.
A method for production of rounded zinc peroxide particles having an average particle diameter of 0.04 μm or more and an aspect ratio of 2.0 or less, comprising a step of adding an aqueous hydrogen peroxide solution in a concentration of 1 to 500 g/l in terms of hydrogen peroxide to a slurry of raw material zinc oxide particles in a concentration of 10 to 2000 g/l in terms of zinc oxide, and stirring the mixture, the treatment amount of hydrogen peroxide being 0.7 times or more of the number of moles relative to zinc oxide as raw material, wherein the average particle diameter of rounded zinc peroxide particles is measured as described in paragraph of the description, and the aspect ratio of zinc peroxide particles is measured as described in paragraph of the description. a step of adding an aqueous hydrogen peroxide solution in a concentration of 1 to 500 g/l in terms of hydrogen peroxide to a slurry of raw material zinc oxide particles in a concentration of 10 to 2000 g/l in terms of zinc oxide, and stirring the mixture, the treatment amount of hydrogen peroxide being 0.7 times or more of the number of moles relative to zinc oxide as raw material, wherein the average particle diameter of rounded zinc peroxide particles is measured as described in paragraph of the description, and the aspect ratio of zinc peroxide particles is measured as described in paragraph of the description.
A heat pump apparatus, comprising a compressor, a condenser, an evaporator, an electronic expansion valve and a four-/two-way valve, which are disposed in a refrigerant circuit, wherein the evaporator includes - a first conduit for refrigerant for absorbing heat through evaporation of the refrigerant, and - a second conduit with refrigerant for releasing heat through supercooling of the liquid refrigerant, wherein the evaporator further includes a plurality of fins and a defrost tray, and at least one of the fins includes an extension at one of its ends, which serves to receive the second conduit, wherein the second conduit is part of the refrigerant circuit, is configured as a defrost coil in which liquid refrigerant flows, and is used to heat the defrost tray. - a first conduit for refrigerant for absorbing heat through evaporation of the refrigerant, and - a second conduit with refrigerant for releasing heat through supercooling of the liquid refrigerant, wherein the evaporator further includes a plurality of fins and a defrost tray, and at least one of the fins includes an extension at one of its ends, which serves to receive the second conduit, wherein the second conduit is part of the refrigerant circuit, is configured as a defrost coil in which liquid refrigerant flows, and is used to heat the defrost tray. wherein the evaporator further includes a plurality of fins and a defrost tray, and at least one of the fins includes an extension at one of its ends, which serves to receive the second conduit, wherein the second conduit is part of the refrigerant circuit, is configured as a defrost coil in which liquid refrigerant flows, and is used to heat the defrost tray.
A method for controlling ion motion comprising: (a) generating an ion trapping field comprising a quadrupole component by applying a main AC potential to an electrode structure of a linear ion trap, the electrode structure having a central axis and comprising a pair of opposing electrodes (110, 112) positioned along an axis orthogonal to the central axis of the electrode structure; (b) applying an additional AC potential (δ) to the electrode pair (110, 112) to displace a central axis (Z') of the trapping field from the central axis of the electrode structure along the axis of the electrode pair; (c) introducing a nonlinear resonance condition in the trapping field; and (d) applying a DC offset potential to the electrode pair (110, 112) such that the nonlinear resonance condition can excite ion motion substantially along the axis of the electrode pair (110, 112) and primarily in a single direction along the axis of the electrode pair, so that the electrode pair (110, 112) shifts the a-q operating point (P 1) for an ion to a point (P 2) in a-q space at which the ion can be resonantly excited to increase oscillation primarily in one direction along the axis of the electrode pair (110, 112). (a) generating an ion trapping field comprising a quadrupole component by applying a main AC potential to an electrode structure of a linear ion trap, the electrode structure having a central axis and comprising a pair of opposing electrodes (110, 112) positioned along an axis orthogonal to the central axis of the electrode structure; (b) applying an additional AC potential (δ) to the electrode pair (110, 112) to displace a central axis (Z') of the trapping field from the central axis of the electrode structure along the axis of the electrode pair; (c) introducing a nonlinear resonance condition in the trapping field; and (d) applying a DC offset potential to the electrode pair (110, 112) such that the nonlinear resonance condition can excite ion motion substantially along the axis of the electrode pair (110, 112) and primarily in a single direction along the axis of the electrode pair, so that the electrode pair (110, 112) shifts the a-q operating point (P 1) for an ion to a point (P 2) in a-q space at which the ion can be resonantly excited to increase oscillation primarily in one direction along the axis of the electrode pair (110, 112).
Method for carrying out distance measurements between the vehicles (PV1, PV2, PV3, PL) of a convoy, in which the distances (d) between the vehicles (PV1, PV2, PV3, PL) of the convoy are controlled automatically, wherein for distance measurement a UWB ranging method, corresponding to ultra-wide band ranging, is used, in which, per individual distance measurement, a message is sent to a vehicle in front or a vehicle behind (PV1, PV2, PV3, PL) which, following receipt of this message, sends an immediate response back to the first vehicle (PV1, PV2, PV3, PL), characterized in that coordination of the time sequence of the individual distance measurements between each two vehicles (PV1, PV2, PV3, PL) of the convoy is carried out such that a planned time is assigned to each individual distance measurement at which it is to take place starting from a coordination event, wherein the coordination event corresponds to the transmission of a distance measurement coordination message from a control station or a vehicle (PV1, PV2, PV3, PL) of the convoy, wherein starting time points for the individual distance measurements between the vehicles (PV1, PV2, PV3, PL) of the convoy are coordinated so that the individual distance measurements are carried out in succession, wherein the individual distance measurements are carried out starting from the rear end of the convoy towards the front or starting from the front end of the convoy towards the rear.
A self-monitoring tire, comprising: a tire body, comprising: a tread rubber for contact with ground; a bead for coupling to a rim; and a sidewall structure (106, 300, 400) including two portions disposed at opposite sides of the tread rubber, and extending from opposite sides of the tread rubber to the bead; and a tire pressure sensor (130, 20), wherein the tire pressure sensor (130, 20) is disposed between respective outward surfaces (300a, 400a) of the two portions of the sidewall structure (106, 300, 400), and secured on or embedded in either one of the two portions of the sidewall structure (106, 300, 400), characterized in that wherein the tire pressure sensor (130, 20) has a gas tunnel, which is sealed in a selected one of the two portions of the sidewall structure (106, 300, 400) at an inward surface (300b, 400b) of the selected portion of the sidewall structure (106, 300, 400) without free gas flow to or from an inner room of the tire, and tire pressure sensing is conducted by detecting gas pressure existing in the sealed gas tunnel. a tire body, comprising: a tread rubber for contact with ground; a bead for coupling to a rim; and a sidewall structure (106, 300, 400) including two portions disposed at opposite sides of the tread rubber, and extending from opposite sides of the tread rubber to the bead; and a tread rubber for contact with ground; a bead for coupling to a rim; and a sidewall structure (106, 300, 400) including two portions disposed at opposite sides of the tread rubber, and extending from opposite sides of the tread rubber to the bead; and a tire pressure sensor (130, 20), wherein the tire pressure sensor (130, 20) is disposed between respective outward surfaces (300a, 400a) of the two portions of the sidewall structure (106, 300, 400), and secured on or embedded in either one of the two portions of the sidewall structure (106, 300, 400), characterized in that wherein the tire pressure sensor (130, 20) has a gas tunnel, which is sealed in a selected one of the two portions of the sidewall structure (106, 300, 400) at an inward surface (300b, 400b) of the selected portion of the sidewall structure (106, 300, 400) without free gas flow to or from an inner room of the tire, and tire pressure sensing is conducted by detecting gas pressure existing in the sealed gas tunnel.
A system for assisting a user in manually delivering repetitive therapy to a patient, the system comprising: a ventilation therapy delivery device, and an external defibrillator comprising a processor, a memory, and associated circuitry; at least one sensor for sensing at least one parameter relating to how well ventilation is being delivered by the ventilation therapy delivery device; a visual display of the external defibrillator for generating a visual, non-verbal feedback graphic to provide the user with a graphical indication of how well the repetitive therapy is being delivered, the feedback graphic configured to provide graphical ventilation feedback, wherein the processor is configured to process at least one output from the at least one sensor to control an appearance of the feedback graphic on the visual display to indicate that ventilation tidal volume and ventilation rate are each within a respective target zone. a ventilation therapy delivery device, and an external defibrillator comprising a processor, a memory, and associated circuitry; at least one sensor for sensing at least one parameter relating to how well ventilation is being delivered by the ventilation therapy delivery device; a visual display of the external defibrillator for generating a visual, non-verbal feedback graphic to provide the user with a graphical indication of how well the repetitive therapy is being delivered, the feedback graphic configured to provide graphical ventilation feedback, wherein the processor is configured to process at least one output from the at least one sensor to control an appearance of the feedback graphic on the visual display to indicate that ventilation tidal volume and ventilation rate are each within a respective target zone.
Container for handling a workpiece, comprising a housing in which a housing jacket, a housing base and a housing cover enclose a working chamber, wherein the housing via an access opening in the housing cover is accessible and double-walled and is installed in an internal space between the double walls forms an evacuated insulating chamber, characterized in that the access opening has a closure for hermetically sealing the working chamber and the working chamber is surrounded by a heating element, which extends at least in sections along the housing jacket. wherein the housing via an access opening in the housing cover is accessible and double-walled and is installed in an internal space between the double walls forms an evacuated insulating chamber, characterized in that the access opening has a closure for hermetically sealing the working chamber and the working chamber is surrounded by a heating element, which extends at least in sections along the housing jacket.
A method of evaluating a biological sample, the method comprising: performing a Nuclear Magnetic Resonance experiment on a component of the biological sample to obtain a component NMR spectrum, performing a Near Infrared Spectroscopy experiment on the component of the biological sample to obtain a component NIR spectrum, using a computer to perform a data fusion analysis of the component NIR spectrum with the component NMR spectrum, assigning peaks from the component NIR spectrum to the component based on the data fusion analysis, performing an NIR experiment on the biological sample to obtain a biological sample NIR spectrum, and using a computer to determine the quantity in the biological sample of the component by comparing the biological sample NIR spectrum to the assigned peaks of the component NIR spectrum, wherein the biological sample comprises a mixture of a plurality of components used in a biological synthesis, wherein each of the plurality of components is a different cell culture media nutrient selected from the group consisting of an amino acid, peptide, sugar, carbohydrate, vitamin, growth factor, salt, antibiotic, or surfactant. performing a Nuclear Magnetic Resonance experiment on a component of the biological sample to obtain a component NMR spectrum, performing a Near Infrared Spectroscopy experiment on the component of the biological sample to obtain a component NIR spectrum, using a computer to perform a data fusion analysis of the component NIR spectrum with the component NMR spectrum, assigning peaks from the component NIR spectrum to the component based on the data fusion analysis, performing an NIR experiment on the biological sample to obtain a biological sample NIR spectrum, and using a computer to determine the quantity in the biological sample of the component by comparing the biological sample NIR spectrum to the assigned peaks of the component NIR spectrum, wherein the biological sample comprises a mixture of a plurality of components used in a biological synthesis, wherein each of the plurality of components is a different cell culture media nutrient selected from the group consisting of an amino acid, peptide, sugar, carbohydrate, vitamin, growth factor, salt, antibiotic, or surfactant.