mhurhangee/ep-ind-claims huggingface dataset:
Method for selecting a network slice instantiation (S0,S1,S2) in a communication network for the transmission of uplink data from a user terminal, the method comprising the following steps, subsequent to the receipt of an uplink packet (Pi) by a communication module of the user terminal: verifying, by means of the communication module, the correspondence between the uplink packet and at least one rule (R1,R2) designating a network slice instantiation able to transmit the uplink packet in the communication network; when the uplink packet corresponds to a rule designating a network slice instantiation, transmitting, by means of the communication module, the uplink packet to an entity for access to the user plane (ANUP 1) of the designated network slice instantiation; and when no rule designating a network slice instantiation corresponds to the uplink packet, transmitting, by means of the communication module, the uplink packet to an entity for access to the user plane (ANUP 0) of a default network slice instantiation. verifying, by means of the communication module, the correspondence between the uplink packet and at least one rule (R1,R2) designating a network slice instantiation able to transmit the uplink packet in the communication network; when the uplink packet corresponds to a rule designating a network slice instantiation, transmitting, by means of the communication module, the uplink packet to an entity for access to the user plane (ANUP 1) of the designated network slice instantiation; and when no rule designating a network slice instantiation corresponds to the uplink packet, transmitting, by means of the communication module, the uplink packet to an entity for access to the user plane (ANUP 0) of a default network slice instantiation.
Position-adaptive communication method, executed by a communication control module of a mobile vehicle, for establishing and maintaining a communications connection between a communications interface of a mobile vehicle, in particular a water vehicle and/or aircraft, and a communications interface of a counterpart station, wherein the communication method is a package-based communication method, with a communications protocol, which transmits in a communications framework in a sequence user data, backup data and if necessary signalling data as a data package, and wherein between data packages and/or inside the data packages a transmission pause is provided, wherein the transmission pause is a result of the sum of a run time of a data package from the vehicle to the counterpart station, a processing time for receiving and processing the data package and for generating a confirmation message at the counterpart station and a run time of the confirmation message from the counterpart station to the vehicle, comprising the steps - determining position data of the vehicle with reference to a coordinate system; - receiving a movement data set from at least one counterpart station by means of a receiving device; - extracting position data from the received movement data and determining the position of the counterpart station in the global coordinate system; - determining a direction vector of the vehicle to the counterpart station; - determining a signal run time from the length of the direction vector; - adaptive adjustment of the transmission pause to the determined signal run time by a timer of the communication control module. - determining position data of the vehicle with reference to a coordinate system; - receiving a movement data set from at least one counterpart station by means of a receiving device; - extracting position data from the received movement data and determining the position of the counterpart station in the global coordinate system; - determining a direction vector of the vehicle to the counterpart station; - determining a signal run time from the length of the direction vector; - adaptive adjustment of the transmission pause to the determined signal run time by a timer of the communication control module.
A system comprising: a chromatograph (310,910) to separate an analyte into components, wherein the components include co-eluting components that cannot be separated with the chromatography; a molecular rotational resonance spectrometer, in fluid communication with the chromatograph (310,910), to measure MRR spectra of the co-eluting components; and a processor, operably coupled to the MRR spectrometer, configured to resolve based at least in part on the MRR spectra, at least one of an isomer, an isotopologue, or an isotopomer among the co-eluting components of the analyte. a chromatograph (310,910) to separate an analyte into components, wherein the components include co-eluting components that cannot be separated with the chromatography; a molecular rotational resonance spectrometer, in fluid communication with the chromatograph (310,910), to measure MRR spectra of the co-eluting components; and a processor, operably coupled to the MRR spectrometer, configured to resolve based at least in part on the MRR spectra, at least one of an isomer, an isotopologue, or an isotopomer among the co-eluting components of the analyte.
A battery pack having a secondary battery and a circuit configured to control charging and discharging of the secondary battery, the battery pack comprising: a first computer configured to communicate with a second computer (31, 42) disposed in a charging device and to authenticate the charging device; and charging control means, configured to be controlled by the first computer configured to supply a charging current to the secondary battery when the charging device has been successfully authenticated and to shut off the charging current when the charging device has not been successfully authenticated; characterized in that the battery pack is configured to cancel the shutoff state of the charging current when the battery pack is detached from the charging device. a first computer configured to communicate with a second computer (31, 42) disposed in a charging device and to authenticate the charging device; and charging control means, configured to be controlled by the first computer configured to supply a charging current to the secondary battery when the charging device has been successfully authenticated and to shut off the charging current when the charging device has not been successfully authenticated; characterized in that the battery pack is configured to cancel the shutoff state of the charging current when the battery pack is detached from the charging device.
Assembly for charging a load, comprising: a cable charging device, comprising a connector interface for wired connection to a mains supply, a contactless charging device, comprising an inductive power receiving coil, and a DC/DC converter comprising an isolating transformer and an output rectifier configured for coupling to the load, wherein the transformer comprises a first side and a second side, the second side being coupled to the output rectifier, wherein the first side comprises a first port and a second port, wherein the first port and the second port are inductively coupled to the second side, wherein the cable charging device is coupled to the first port and wherein the contactless charging device is coupled to the second port, characterised in that the inductive power receiving coil is coupled to the second port through an AC current carrying cable. a cable charging device, comprising a connector interface for wired connection to a mains supply, a contactless charging device, comprising an inductive power receiving coil, and a DC/DC converter comprising an isolating transformer and an output rectifier configured for coupling to the load, wherein the transformer comprises a first side and a second side, the second side being coupled to the output rectifier, wherein the first side comprises a first port and a second port, wherein the first port and the second port are inductively coupled to the second side, wherein the cable charging device is coupled to the first port and wherein the contactless charging device is coupled to the second port,
A method of operation by a wireless communication device that communicates with a wireless communication network and performs radar transmissions for surrounding-environment sensing using a same or overlapping millimeter wave (mmW) frequency range, the method comprising: classifying, for a current orientation and position of the wireless communication device, individual radar beam directions among a plurality of radar beam directions as being restricted or unrestricted, where any given radar beam direction is classified as being restricted based on known or estimated Uplink reception interference arising in the wireless communication network from radar transmissions by the wireless communication device in the given radar beam direction; and adapting radar transmissions by the wireless communication device in consideration of the classifications made for the individual radar beam directions, the adapting comprising muting or reducing radar-signal transmission power with respect to each restricted radar beam direction; and chracterised by the classifying comprising: determining one or more radio network nodes of the wireless communication network to consider, and for each radio network node being considered and each radar beam direction being considered, estimating an UL received power that would be experienced at the considered radio network node for a radar transmission performed by the wireless communication device in the considered radar beam direction at a defined transmit power level. classifying, for a current orientation and position of the wireless communication device, individual radar beam directions among a plurality of radar beam directions as being restricted or unrestricted, where any given radar beam direction is classified as being restricted based on known or estimated Uplink reception interference arising in the wireless communication network from radar transmissions by the wireless communication device in the given radar beam direction; and adapting radar transmissions by the wireless communication device in consideration of the classifications made for the individual radar beam directions, the adapting comprising muting or reducing radar-signal transmission power with respect to each restricted radar beam direction;
A compactor for waste material comprising: a housing for receipt of a bag, the housing comprising sidewalls (11, 12, 13) including at least one openable sidewall; and a compacting press comprising an actuator to force material into the bag when it is housed in the housing, characterised in that at least one of the sidewalls (11, 12) comprises two adjacent panels (14, 15) connected by articulation means allowing the at least one sidewall to fold during a compaction operation in response to pressures exerted on the bag/housing to change the geometry of the housing during compaction. a housing for receipt of a bag, the housing comprising sidewalls (11, 12, 13) including at least one openable sidewall; and a compacting press comprising an actuator to force material into the bag when it is housed in the housing,
A system for monitoring structural health of bonded components, having at least two components (112,114), the system comprising: a damage-detection module powered by electrical energy from an energy-harvesting device; electrically-conductive ink applied onto the bonded components (112/114) and across an interface between the at least two components (112,114) of the bonded components, the electrically-conductive ink forming an electrical circuit with the damage-detection module; and a visual-indication device electrically coupled to the damage-detection module, the visual-indication device configured to visually indicate damage to the bonded components (112/114) in response to receipt of electrical energy; wherein the damage-detection module is configured to detect a break in the electrically-conductive ink and to transmit electrical energy from the energy-harvesting device to the visual-indication device in response to detecting the break in the electrically-conductive ink; and wherein the visual-indication device is configured to generate a permanent visual indication of damage to the bonded components (112/114). a damage-detection module powered by electrical energy from an energy-harvesting device; electrically-conductive ink applied onto the bonded components (112/114) and across an interface between the at least two components (112,114) of the bonded components, the electrically-conductive ink forming an electrical circuit with the damage-detection module; and a visual-indication device electrically coupled to the damage-detection module, the visual-indication device configured to visually indicate damage to the bonded components (112/114) in response to receipt of electrical energy;
A composition for use in inhibiting arteriosclerosis, which comprises both a cholesterol-lowering agent and a reduced coenzyme Q 10 represented by the following formula in the formula, n = 10, wherein the cholesterol-lowering agent is selected from the group consisting of lovastatin, simvastatin, pravastatin, otorvastatin, resuvastatin, fluvastatin, cerivastatin, and pitavastatin.
A coil arrangement for an inductive sensor, comprising - a transmitter coil, - at least one first receiver coil, and - at least one second receiver coil, - wherein the windings of the first receiver coil are inside all windings of the transmitter coil, - wherein the windings of the second receiver coil are outside all windings of the transmitter coil, and - wherein each winding of the first receiver coil is associated a winding of the second receiver coil and said windings are arranged in relation to the transmitter coil such that, when a current flows through the transmitter coil, said windings are permeated with a magnetic flux of the same size, but in opposite directions, characterized by - a compensation network used to symmetrize the arrangement such that the voltage induced at the receiver side is negligible for the intended purpose, by providing a regulation through a control loop - wherein at least a part of the compensation network is formed as a star-shaped interconnection of at least three capacitors C ks, C k1 and C k3, said partial network having a common star point K C. - a transmitter coil, - at least one first receiver coil, and - at least one second receiver coil, - wherein the windings of the first receiver coil are inside all windings of the transmitter coil, - wherein the windings of the second receiver coil are outside all windings of the transmitter coil, and - wherein each winding of the first receiver coil is associated a winding of the second receiver coil and said windings are arranged in relation to the transmitter coil such that, when a current flows through the transmitter coil, said windings are permeated with a magnetic flux of the same size, but in opposite directions, characterized by - a compensation network used to symmetrize the arrangement such that the voltage induced at the receiver side is negligible for the intended purpose, by providing a regulation through a control loop - wherein at least a part of the compensation network is formed as a star-shaped interconnection of at least three capacitors C ks, C k1 and C k3, said partial network having a common star point K C.
A method for producing a High Internal Phase Emulsion foam comprising the steps of: forming a High Internal Phase Emulsion from an oil phase comprising monomer, cross-linking agent, emulsifier, an aqueous phase, characterized in that the method further comprises: pumping the High Internal Phase Emulsion into a water bath, wherein the water bath has a temperature of between 70°C and 100°C; and curing the High Internal Phase Emulsion in the water bath to form a High Internal Phase Emulsion foam, wherein one of the oil phase, aqueous phase or water bath comprises an initiator. forming a High Internal Phase Emulsion from an oil phase comprising monomer, cross-linking agent, emulsifier, an aqueous phase, characterized in that the method further comprises: an oil phase comprising monomer, cross-linking agent, emulsifier, an aqueous phase, characterized in that the method further comprises: pumping the High Internal Phase Emulsion into a water bath, wherein the water bath has a temperature of between 70°C and 100°C; and curing the High Internal Phase Emulsion in the water bath to form a High Internal Phase Emulsion foam, wherein one of the oil phase, aqueous phase or water bath comprises an initiator.
A light pipe for use with an LED, the light pipe comprising: a lower section (106, 202) of the light pipe (107, 200), wherein the lower section (106, 202) is a compound parabolic concentrator with a recess at a lower end of the lower section, wherein the compound parabolic concentrator is capable of collimating light emitted from the LED proximate to the recess; an upper section (108, 204) of the light pipe (107, 200), wherein the upper section(108, 204) is a tapered cylinder that narrows towards the upper end of the light pipe (107, 200) and directs the collimated light from the compound parabolic concentrator onto a reflector (112,206) proximate to the upper end, such that the reflector (112, 206) reflects the directed light in a radial direction. a lower section (106, 202) of the light pipe (107, 200), wherein the lower section (106, 202) is a compound parabolic concentrator with a recess at a lower end of the lower section, wherein the compound parabolic concentrator is capable of collimating light emitted from the LED proximate to the recess; an upper section (108, 204) of the light pipe (107, 200), wherein the upper section(108, 204) is a tapered cylinder that narrows towards the upper end of the light pipe (107, 200) and directs the collimated light from the compound parabolic concentrator onto a reflector (112,206) proximate to the upper end, such that the reflector (112, 206) reflects the directed light in a radial direction.
A gasket with a carrier film comprising: a combination of a rubber-only gasket body; and a carrier film holding the gasket body, wherein the gasket body and the carrier film are not bonded to each other, the gasket body is detachable from the carrier film, a tab enlarging a plane area of the gasket body is integrally provided in the gasket body, no adhesive agent or bonding agent is applied onto a surface of the tab, when the gasket is ready-to-mount, a gasket holding portion containing a three-dimensional shape deformed along an outer shape of the gasket body is provided in a portion overlapping with the gasket body on a plane in the carrier film, no air inflow port is provided at a position which overlaps the tab on a plane portion next to the gasket holding portion in the carrier film, when the gasket is ready-to-mount, characterised in that the tab is brought into a state of overlapping with the plane portion of the carrier film in a thickness direction of the gasket, and the tab is not stored in the gasket holding portion of the three-dimensional shape. a combination of a rubber-only gasket body; and a carrier film holding the gasket body, wherein the gasket body and the carrier film are not bonded to each other, the gasket body is detachable from the carrier film, a tab enlarging a plane area of the gasket body is integrally provided in the gasket body, no adhesive agent or bonding agent is applied onto a surface of the tab, when the gasket is ready-to-mount, a gasket holding portion containing a three-dimensional shape deformed along an outer shape of the gasket body is provided in a portion overlapping with the gasket body on a plane in the carrier film, no air inflow port is provided at a position which overlaps the tab on a plane portion next to the gasket holding portion in the carrier film, when the gasket is ready-to-mount, characterised in that the tab is brought into a state of overlapping with the plane portion of the carrier film in a thickness direction of the gasket, and the tab is not stored in the gasket holding portion of the three-dimensional shape.
A particle comprising a core and a shell, said core comprising at least one nucleic acid origami structure encapsulated by the shell, said shell comprising at least 12 capsid units, the capsid units comprising one or more capsid proteins from a spherical virus, wherein the particle is a virus-like particle having a quasi-spherical geometry and wherein the core comprising the at least one nucleic acid origami structure is nearly spherical.
A micro scanner device, comprising: a fixing frame serving as an outer frame; an axis portion defining an axis of rotation; a holder comprising four holding strips (HD1a, HD1b, HD2c, HD2d) each having a linear cantilever beam structure, wherein one end of each holding strip is connected to the axis portion and another end of each holding strip is fixed to the fixing frame; a drive portion mounted on each holding strip and generating, in response to a voltage applied thereto, a force for deforming the holder; a moving portion mounted for swinging with respect to the axis portion according to displacement of the axis portion; and a drive circuit for applying to the drive portion a voltage having a frequency that approximates to or equals a natural frequency of the micro scanner itself and for generating in each holding strip at least one node intersecting with respect to a length of the holder, characterized in that each of the four holding strips has a structure extending perpendicular to said axis of rotation. a fixing frame serving as an outer frame; an axis portion defining an axis of rotation; a holder comprising four holding strips (HD1a, HD1b, HD2c, HD2d) each having a linear cantilever beam structure, wherein one end of each holding strip is connected to the axis portion and another end of each holding strip is fixed to the fixing frame; a drive portion mounted on each holding strip and generating, in response to a voltage applied thereto, a force for deforming the holder; a moving portion mounted for swinging with respect to the axis portion according to displacement of the axis portion; and a drive circuit for applying to the drive portion a voltage having a frequency that approximates to or equals a natural frequency of the micro scanner itself and for generating in each holding strip at least one node intersecting with respect to a length of the holder, characterized in that each of the four holding strips has a structure extending perpendicular to said axis of rotation.
Oil filter element of an oil filter of an internal combustion engine in particular of a motor vehicle which can be disposed replaceably in a filter housing, and which comprises a filter medium which encloses an interior space of the oil filter element circumferentially in a closed manner and which is sealingly connected at least on one front side with an end body, characterized in that the end body features a bypass opening towards an interior space of the oil filter element, and that a plurality of support member sections are disposed at the end body which are designed to serve as a support against an interior side of a housing cover and that in circumferential direction adjacent support member sections define at least one flow channel of a bypass line.