mhurhangee/ep-ind-claims huggingface dataset:
A method comprising: determining, within a unified data management function (410, 510, 612, 710), a default configured network slice selection assistance information, NSSAI, for a public land mobile network, PLMN, for a remote unit (102, 402, 502, 602, 702), wherein the default configured NSSAI applies to PLMNs for which no specific configured NSSAI has been provided to the remote unit; and the unified data management function (410, 510, 612, 710) providing the default configured network slice selection assistance information to the remote unit via an access and mobility management function (406, 506, 606, 706). determining, within a unified data management function (410, 510, 612, 710), a default configured network slice selection assistance information, NSSAI, for a public land mobile network, PLMN, for a remote unit (102, 402, 502, 602, 702), wherein the default configured NSSAI applies to PLMNs for which no specific configured NSSAI has been provided to the remote unit; and the unified data management function (410, 510, 612, 710) providing the default configured network slice selection assistance information to the remote unit via an access and mobility management function (406, 506, 606, 706).
Component carrier for electrical/electronic components (1, 2, 3), for example to be combined with a latch housing or as part of a latch housing of a motor vehicle door lock, comprising - a carrier element having a motor receptacle or motor cradle, and - a conductor track structure (6, 7) which is made of individual metal conductor tracks (6, 7), can be connected to the carrier element and consists of at least two partial conductor track structures (6; 7) each having a different material thickness (s 1; s 2) of the associated conductor tracks (6, 7); wherein - one partial conductor track structure is designed as a switch conductor track structure of a specified material thickness (s 2) and the other conductor track structure is designed as a motor conductor track structure having a greater material thickness (s 1) of the respective conductor tracks (6, 7), and - the motor conductor track structure is designed to contact an electric motor that can be placed in the motor receptacle or motor cradle. - a carrier element having a motor receptacle or motor cradle, and - a conductor track structure (6, 7) which is made of individual metal conductor tracks (6, 7), can be connected to the carrier element and consists of at least two partial conductor track structures (6; 7) each having a different material thickness (s 1; s 2) of the associated conductor tracks (6, 7); wherein - one partial conductor track structure is designed as a switch conductor track structure of a specified material thickness (s 2) and the other conductor track structure is designed as a motor conductor track structure having a greater material thickness (s 1) of the respective conductor tracks (6, 7), and - the motor conductor track structure is designed to contact an electric motor that can be placed in the motor receptacle or motor cradle.
A cleaning robot comprising: a chassis; a drive system connected to the chassis and configured to drive the robot across a floor surface; a signal generator carried by the chassis and arranged to direct a signal toward the floor surface; a sensor carried by the chassis and responsive to a reflection of the directed signal from the floor surface; and a controller in communication with the drive system and the sensor, the cleaning robot being characterised in that the controller is configured to control the drive system to alter direction of the robot in response to the sensor receiving a reflected signal indicating a floor surface type transition upon detecting the floor surface type, so as to keep the robot from crossing the floor surface type and to confine the robot to a selected area based on the floor surface type of the selected area, wherein the controller is further configured to control the drive system to drive the robot across the floor surface type transition in a predetermined set of circumstances. a chassis; a drive system connected to the chassis and configured to drive the robot across a floor surface; a signal generator carried by the chassis and arranged to direct a signal toward the floor surface; a sensor carried by the chassis and responsive to a reflection of the directed signal from the floor surface; and a controller in communication with the drive system and the sensor, the cleaning robot being characterised in that the controller is configured to control the drive system to alter direction of the robot in response to the sensor receiving a reflected signal indicating a floor surface type transition upon detecting the floor surface type, so as to keep the robot from crossing the floor surface type and to confine the robot to a selected area based on the floor surface type of the selected area, wherein the controller is further configured to control the drive system to drive the robot across the floor surface type transition in a predetermined set of circumstances.
A transfer pipe for a furnace, comprising: a body portion having an inlet and an outlet through which a fluid is transferred; and a guide portion having polygonal sides extending in a spiral form in an inward longitudinal direction of the body portion; characterized by a diameter change portion repeatedly changing an inner diameter of the body portion in the longitudinal direction thereof; wherein the transfer pipe has a polygonal cross-sectional shape therein. a body portion having an inlet and an outlet through which a fluid is transferred; and a guide portion having polygonal sides extending in a spiral form in an inward longitudinal direction of the body portion; characterized by a diameter change portion repeatedly changing an inner diameter of the body portion in the longitudinal direction thereof; wherein the transfer pipe has a polygonal cross-sectional shape therein.
A fault-tolerant control system for a wind turbine comprising a plurality of controllable wind turbine components, the control system comprising - control means (1102;1202-1207;1301-1305) for generating a replica of essentially concurrent set-point values, - a data communication network (1101;1200) for transmitting the replica of essentially concurrent set-point values to the plurality of wind turbine components (1109; 1220), and characterized by - a plurality of decentralised voting means being arranged so that a decentralised voting means is assigned to each wind turbine component, each decentralised voting means being adapted to select one set-point value out of the replica of set-point values. - control means (1102;1202-1207;1301-1305) for generating a replica of essentially concurrent set-point values, - a data communication network (1101;1200) for transmitting the replica of essentially concurrent set-point values to the plurality of wind turbine components (1109; 1220), and - a plurality of decentralised voting means being arranged so that a decentralised voting means is assigned to each wind turbine component, each decentralised voting means being adapted to select one set-point value out of the replica of set-point values.
A process of making a granular detergent composition comprising the steps of: a) forming an aqueous detergent slurry; b) spray drying said aqueous detergent slurry to form a plurality of spray-dried detergent particles; c) forming an emulsion comprising a surfactant and an amphiphilic graft co-polymer; and d) adding the emulsion from step c) to at least a portion of said plurality of spray-dried detergent particles, wherein the amphiphilic graft copolymer comprises a graft copolymer of polyethylene, polypropylene or polybutylene oxide with vinyl acetate in a weight ratio of from 1:0.2 to 1:10. a) forming an aqueous detergent slurry; b) spray drying said aqueous detergent slurry to form a plurality of spray-dried detergent particles; c) forming an emulsion comprising a surfactant and an amphiphilic graft co-polymer; and d) adding the emulsion from step c) to at least a portion of said plurality of spray-dried detergent particles,
A method of performing a fallback operation of a voice call when only a single-registration is performed in an environment in which an N26 interface between an Access and Mobility Management Function, AMF, and a Mobility Management Entity, MME, is not provided, the method performed by a user equipment, UE, and comprising: performing, by the UE, a NG core registration procedure and an IMS registration procedure; determining, by the UE, to initiate a mobile originating, MO, voice call; transmitting, by the UE, a service request message to the AMF for originating the voice call; receiving a service request reject message in response to the service request message from the AMF, wherein the service request reject message comprises information- indicating a fallback operation without the N26 interface; transmitting a Tracking Area Update, TAU, request message to the MME before transmitting an attach request message; receiving from the MME a TAU reject message comprising an indicator indicating that it is required to perform a PDN connection establishment procedure for handover, wherein the indicator is Handover PDN Connection Setup Support; and transmitting the attach request message comprising a PDN connection request message to the MME based on the indicator. performing, by the UE, a NG core registration procedure and an IMS registration procedure; determining, by the UE, to initiate a mobile originating, MO, voice call; transmitting, by the UE, a service request message to the AMF for originating the voice call; receiving a service request reject message in response to the service request message from the AMF, wherein the service request reject message comprises information- indicating a fallback operation without the N26 interface; transmitting a Tracking Area Update, TAU, request message to the MME before transmitting an attach request message; receiving from the MME a TAU reject message comprising an indicator indicating that it is required to perform a PDN connection establishment procedure for handover, wherein the indicator is Handover PDN Connection Setup Support; and transmitting the attach request message comprising a PDN connection request message to the MME based on the indicator.
A compound of formula I: wherein: Y is (CH 2) n, where n is from 2 to 4; W 1 and W 11 are independently selected from OH and OR P, where R P is Me or Et; A 1 is CR A or N; A 2 is CR B or N; A 3 is CR C or N; A 4 is CR D or N; where no more than two of A 1, A 2, A 3, and A 4 may be N; one or two of R A, R B, R C and R D, (if present) are selected from H, F, Cl, Br, Me, CF 3, cyclopropyl, cyano, OMe, OEt, CH 2 OH, CH 2 OMe and OH; the remainder of R A, R B, R C and R D, (if present) are H; A 11 is CR AA or N; A 12 is CR BB or N; A 13 is CR CC or N; A 14 is CR DD or N; where no more than two of A 11, A 12, A 13 and A 14 may be N; one or two of R AA, R BB, R CC and R DD, (if present) are selected from H, F, Cl, Br, Me, CF 3, cyclopropyl, cyano, OMe, OEt, CH 2 OH, CH 2 OMe and OH; the remainder of R AA, R BB, R CC and R DD, (if present) are H; R C1, R C3 and R C4 are independently selected from H, CI, F, Br, Me, OMe, OEt, cyano, CF 3, CH 2 OH, CH 2 OMe, C 2-4 alkenyl and Csheterocyclyl; R C11 R C13 and R C14 are independently selected from H, CI, F, Br, Me, OMe, OEt, cyano, CF 3, CH 2 OH, CH 2 OMe, C 2-4 alkenyl and Csheterocyclyl. Y is (CH 2) n, where n is from 2 to 4; W 1 and W 11 are independently selected from OH and OR P, where R P is Me or Et; A 1 is CR A or N; A 2 is CR B or N; A 3 is CR C or N; A 4 is CR D or N; where no more than two of A 1, A 2, A 3, and A 4 may be N; one or two of R A, R B, R C and R D, (if present) are selected from H, F, Cl, Br, Me, CF 3, cyclopropyl, cyano, OMe, OEt, CH 2 OH, CH 2 OMe and OH; the remainder of R A, R B, R C and R D, (if present) are H; A 11 is CR AA or N; A 12 is CR BB or N; A 13 is CR CC or N; A 14 is CR DD or N; where no more than two of A 11, A 12, A 13 and A 14 may be N; one or two of R AA, R BB, R CC and R DD, (if present) are selected from H, F, Cl, Br, Me, CF 3, cyclopropyl, cyano, OMe, OEt, CH 2 OH, CH 2 OMe and OH; the remainder of R AA, R BB, R CC and R DD, (if present) are H; R C1, R C3 and R C4 are independently selected from H, CI, F, Br, Me, OMe, OEt, cyano, CF 3, CH 2 OH, CH 2 OMe, C 2-4 alkenyl and Csheterocyclyl; R C11 R C13 and R C14 are independently selected from H, CI, F, Br, Me, OMe, OEt, cyano, CF 3, CH 2 OH, CH 2 OMe, C 2-4 alkenyl and Csheterocyclyl.
A cooking oven, in particular a domestic cooking oven, wherein: - the cooking oven comprises at least one oven cavity, - the cooking oven comprises at least two resistive heating elements (10, 12, 18) for heating up the oven cavity, - at least two of the resistive heating elements (10, 12, 18) are connected in series, - the cooking oven comprises at least one cooling fan for cooling down the oven cavity, characterized in that: - the cooling fan is connected in parallel to at least one of the resistive heating elements (10, 12, 18) connected in series, so that - the resistive heating elements (10, 12, 18) connected in series form a voltage divider for the cooling fan. - the cooking oven comprises at least one oven cavity, - the cooking oven comprises at least two resistive heating elements (10, 12, 18) for heating up the oven cavity, - at least two of the resistive heating elements (10, 12, 18) are connected in series, - the cooking oven comprises at least one cooling fan for cooling down the oven cavity, - the cooling fan is connected in parallel to at least one of the resistive heating elements (10, 12, 18) connected in series, so that - the resistive heating elements (10, 12, 18) connected in series form a voltage divider for the cooling fan.
A communication method, comprising: sending, by a first access network device, a first message to a second access network device, wherein the first message carries a quality-of-service flow identification, QFI, for a split bearer corresponding to the first access network device and a quality-of-service, QoS, parameter corresponding to the QFI; and receiving, by the first access network device, a second message from the second access network device, wherein the second message is a response to the first message characterized in that the second message carries a QFI for a split bearer corresponding to the second access network device and a QoS parameter corresponding to the QFI; and performing, by the first access network device, data transmission based on the QFI for the split bearer corresponding to the second access network device and the QoS parameter corresponding to the QFI. sending, by a first access network device, a first message to a second access network device, wherein the first message carries a quality-of-service flow identification, QFI, for a split bearer corresponding to the first access network device and a quality-of-service, QoS, parameter corresponding to the QFI; and receiving, by the first access network device, a second message from the second access network device, wherein the second message is a response to the first message characterized in that the second message carries a QFI for a split bearer corresponding to the second access network device and a QoS parameter corresponding to the QFI; and performing, by the first access network device, data transmission based on the QFI for the split bearer corresponding to the second access network device and the QoS parameter corresponding to the QFI.
Haptic-feedback control interface for a motor vehicle, including a magnetorheological fluid module (3; 31) comprising a mobile element (6; 61), a magnetorheological fluid in contact with the mobile element (6; 61), a unit for applying a magnetic field and at least one coil (8; 81) for applying a magnetic field to the magnetorheological fluid, the unit for applying a magnetic field being configured so as to modify the supply of power to the coil (8; 81) so as to generate haptic feedback for the user moving the mobile element (6; 61), characterized in that it includes a waking unit configured so as to detect the activation of a reinitialization parameter, the waking unit being linked to the unit for applying a magnetic field in order to apply a waking magnetic field to the magnetorheological fluid when the activation of a reinitialization parameter is detected.
A mixing valve assembly comprising supply pipes (109,111;209,211) for hot and cold water, a mixing valve (101;201) having inlets (137,139;251,253) for the supply pipes (109,111;209,211) for hot and cold water, a mounting plate (103;203) for securing to a support surface such that the supply pipes (109,111;209,211) extend through the mounting plate (103;203) for reception in the inlets (137,139;251,253), sleeves (159,161;269,271) positionable on the pipes (109,111;209,211) for reception in the inlets (137,139;251,53), wherein the mixing valve (101;201) is releasably connectable to the mounting plate (103;203), characterised in that the sleeves (159,161;269,271) are a sliding fit on the pipes (109,111;209,211) and are co-operable with the inlets (137,139;251,53) in response to reception in the inlets to compress the sleeves (159,161;269,271) to grip and secure releasably the supply pipes (109,111;209,211) in the inlets (137,139;251,253) and wherein the sleeves (159,161;269,271) and mounting plate (103;203) can be removed from the supply pipes (109,111;209,211) when the mixing valve (101,201) is detached from the mounting plate (103;203).
An automation system for controlling a machine or installation, to which individual elements in the form of sensors, actuators or controllers are assigned, wherein the individual elements exchange information directly with a computer network having at least one computer unit via the Internet by means of tamper-proof protocols, wherein the individual elements can be identified by the computer network by means of unambiguous identifiers, characterised in that initial values of parameters of the individual elements are combined in a state vector and stored in the computer network and in that, during operation of the machine or system, the computer network checks at defined times whether the currently available parameter values of the state vector correspond to the initial values of this state vector, and in that the computer network generates control commands as a function of these checks.
Combustion chamber of a combustion installation, in particular a gas turbine, with a heat shield having at least two segments (2, 2'), - wherein each segment (2, 2') has a liner element (4, 4') facing a combustion space, and a holding device (5, 5'), - wherein the liner element (4, 4') is attached to a supporting structure via a supporting element, and wherein the holding device fixes the liner element (4, 4') and the supporting element to the supporting structure, - wherein the liner element (4, 4') has an edge region (8, 8') which engages behind a flange region (9, 9') formed by the holding device (5, 5'), - wherein a gap open towards the combustion chamber remains between the edges of two adjacent liner elements (4, 4'), characterised in that - the holding device together with the supporting element forms a first cooling channel, and that to cool the edge regions (8, 8') of the liner elements (4, 4') facing the gap, the holding device (5, 5') in the area of its flange region (9, 9') has passage openings (12, 12') through which cooling gas flows from the first cooling channel (11, 11') to the edge region (8, 8') to be cooled. - wherein each segment (2, 2') has a liner element (4, 4') facing a combustion space, and a holding device (5, 5'), - wherein the liner element (4, 4') is attached to a supporting structure via a supporting element, and wherein the holding device fixes the liner element (4, 4') and the supporting element to the supporting structure, - wherein the liner element (4, 4') has an edge region (8, 8') which engages behind a flange region (9, 9') formed by the holding device (5, 5'), - wherein a gap open towards the combustion chamber remains between the edges of two adjacent liner elements (4, 4'), characterised in that - the holding device together with the supporting element forms a first cooling channel, and that to cool the edge regions (8, 8') of the liner elements (4, 4') facing the gap, the holding device (5, 5') in the area of its flange region (9, 9') has passage openings (12, 12') through which cooling gas flows from the first cooling channel (11, 11') to the edge region (8, 8') to be cooled.
A method for repairing a railway circulation rail, said circulation rail extending longitudinally along an axis vertically along an axis, said circulation rail including an upper part, adapted to be in contact with a wheel of a railway vehicle, which includes at least one damaged zone, the method including: - a step of withdrawing the damaged zone so as to form a recess in the upper part of the circulation rail, said recess having, in a longitudinal section plane (X, Z), a concave profile successively including a first curvilinear portion, a longitudinal portion and a second curvilinear portion, characterised in that the method further includes the following steps: - a step of placing a mould about the recess, and - a step of filling the mould with liquid metal so as to fill said recess and thus repair said circulation rail. - a step of withdrawing the damaged zone so as to form a recess in the upper part of the circulation rail, - a step of placing a mould about the recess, and - a step of filling the mould with liquid metal so as to fill said recess and thus repair said circulation rail.
A ceramic honeycomb structure comprising mullite and tialite, wherein the volume ratio of mullite to tialite is higherthan 3:1, and wherein the amount of mullite in the structure is greater than 75% by volume (calculated on the basis of the total volume of the mineral phases).
A magnetic iron oxide nanoparticle having cubic shape, provided with a polymeric coating comprising carboxylic groups on its surface, said nanoparticle being further functionalised with a platinum-based chemotherapeutic agent and with a targeting agent comprising a scFv antibody fragment, wherein said chemotherapeutic agent and said targeting agent are both attached to different carboxylic groups of said polymeric coating, each of them by means of amino-poly(ethylen glycol) linkers, equal or different to each other, wherein said linkers are covalently bound to said carboxylic groups of the coating.
A method for quantifying a plurality of free amino acids in a body fluid sample from a human individual, comprising: (a) derivatizing the free amino acids; (b) separating the derivatized free amino acids by liquid chromatography; and (c) quantifying at least 25 of the plurality of the free amino acids by measuring the derivatized free amino acids from step (b) using mass spectrometry analysis, wherein the MS is other than tandem MS. (a) derivatizing the free amino acids; (b) separating the derivatized free amino acids by liquid chromatography; and (c) quantifying at least 25 of the plurality of the free amino acids by measuring the derivatized free amino acids from step (b) using mass spectrometry analysis,
A method for sealing an article with a non-chrome corrosion inhibitor seal, comprising: applying an aqueous-based suspension 105 comprising a thiol-containing corrosion inhibitor 102 on a surface of an anodized substrate 103, wherein the surface of the anodized substrate 103 comprises an anodic oxide coating 101, wherein the thiol-containing corrosion inhibitor 107 comprises 5,5-dithiobis-(1,3,4-thiadiazole-2 -thione). applying an aqueous-based suspension 105 comprising a thiol-containing corrosion inhibitor 102 on a surface of an anodized substrate 103, wherein the surface of the anodized substrate 103 comprises an anodic oxide coating 101, wherein the thiol-containing corrosion inhibitor 107 comprises 5,5-dithiobis-(1,3,4-thiadiazole-2 -thione).