mhurhangee/ep-ind-claims huggingface dataset:
A method for use in a management entity of a virtualized network, comprising: receiving information regarding an installation of an application to a server, the information comprising a detection pattern based on detection information associated along with the application to be installed, wherein the detection pattern is used for detecting a data flow to be routed via the application to be installed, establishing a routing rule based on the detection pattern, and sending the routing rule to the server into which the application is to be installed. receiving information regarding an installation of an application to a server, the information comprising a detection pattern based on detection information associated along with the application to be installed, wherein the detection pattern is used for detecting a data flow to be routed via the application to be installed, establishing a routing rule based on the detection pattern, and sending the routing rule to the server into which the application is to be installed.
A plug (1, 50a, 70, 80) for plugging wells, and in particular oil and gas wells, said plug comprising: a plug body (2, 51a, 71, 81) having a cavity (4, 53a, 73, 83) for receiving heating means; means for receiving a eutectic alloy (3, 52a, 72, 82); means (5, 54a, 74, 84) for releasably retaining heating means within the cavity (4, 53a, 73, 83) of the plug body (2, 51a, 71, 81), said means being located within the cavity; wherein the plug further comprises a leading head in the form of an open ended cylinder (7, 55a, 75, 85), wherein the cylinder is open at the leading face; and characterised in that the leading head further comprises one or more wire meshes or brushes arranged on the external surface of the cylinder. a plug body (2, 51a, 71, 81) having a cavity (4, 53a, 73, 83) for receiving heating means; means for receiving a eutectic alloy (3, 52a, 72, 82); means (5, 54a, 74, 84) for releasably retaining heating means within the cavity (4, 53a, 73, 83) of the plug body (2, 51a, 71, 81), said means being located within the cavity; wherein the plug further comprises a leading head in the form of an open ended cylinder (7, 55a, 75, 85), wherein the cylinder is open at the leading face; and characterised in that the leading head further comprises one or more wire meshes or brushes arranged on the external surface of the cylinder.
A capacitive welder comprising: a charging circuit having a switching element; a welding transformer having a primary winding and a secondary winding; a capacitor to which an input electric power is introduced via the charging circuit; a discharge switching element connected in parallel with the primary winding and the capacitor, the primary winding being connected in series to the capacitor; a bypass switching element connected in parallel with the primary winding; welding electrodes (6A, 6B) connected in parallel with the secondary winding of the welding transformer; and a control circuit, characterised in that the control circuit is configured to bring the welding transformer into a reset allowing state by causing a reset current to flow in the primary winding using the input electric power introduced through the charging circuit without supplying an ON signal to the bypass switching element, and then supply the ON signal to the bypass switching element, when the welding transformer becomes a reset allowing state, such that the capacitor is charged through the bypass switching element by the input electric power introduced through the charging circuit, the control circuit being connected to the discharge switching element and the bypass switching element, the control circuit being configured to supply an ON signal to the discharge switching element after a voltage of the capacitor reaches a predetermined value, if the welding current should flow to the welding transformer. a charging circuit having a switching element; a welding transformer having a primary winding and a secondary winding; a capacitor to which an input electric power is introduced via the charging circuit; a discharge switching element connected in parallel with the primary winding and the capacitor, the primary winding being connected in series to the capacitor; a bypass switching element connected in parallel with the primary winding; welding electrodes (6A, 6B) connected in parallel with the secondary winding of the welding transformer; and a control circuit, characterised in that the control circuit is configured to bring the welding transformer into a reset allowing state by causing a reset current to flow in the primary winding using the input electric power introduced through the charging circuit without supplying an ON signal to the bypass switching element, and then supply the ON signal to the bypass switching element, when the welding transformer becomes a reset allowing state, such that the capacitor is charged through the bypass switching element by the input electric power introduced through the charging circuit, the control circuit being connected to the discharge switching element and the bypass switching element, the control circuit being configured to supply an ON signal to the discharge switching element after a voltage of the capacitor reaches a predetermined value, if the welding current should flow to the welding transformer.
Method for operating an x-ray device comprising a control device for determining a stiffness information of a medical instrument (18, 19, 19') used during a minimally invasive interventional procedure in a vascular system of a patient, said control device being configured to - record a three-dimensional volume image of the vascular system at least in the intervention region with the x-ray device, - derive from the volume image three-dimensional vessel course information, in particular including centerlines and/or surface information and/or volume information for at least vessels used by the instrument (18, 19, 19') during the interventional procedure and/or the position of ostia along at least a part of the vessels, - record a two-dimensional projection image (33, 33') of the instrument (18, 19, 19') using the x-ray device, wherein the x-ray device and/or the projection image (33, 33') are registered to the volume image, and - determine a stiffness information of the instrument (18, 19, 19') by evaluation of the projection image (33, 33') using segmentation information determined by segmenting the instrument (18, 19, 19') in the projection image (33, 33') and/or the vessel course information. - record a three-dimensional volume image of the vascular system at least in the intervention region with the x-ray device, - derive from the volume image three-dimensional vessel course information, in particular including centerlines and/or surface information and/or volume information for at least vessels used by the instrument (18, 19, 19') during the interventional procedure and/or the position of ostia along at least a part of the vessels, - record a two-dimensional projection image (33, 33') of the instrument (18, 19, 19') using the x-ray device, wherein the x-ray device and/or the projection image (33, 33') are registered to the volume image, and - determine a stiffness information of the instrument (18, 19, 19') by evaluation of the projection image (33, 33') using segmentation information determined by segmenting the instrument (18, 19, 19') in the projection image (33, 33') and/or the vessel course information.
Method for manufacturing a hollow body of zinc plated sheet metal for an automobile, said hollow body comprising at least a first sheet metal panel assembled with a second sheet metal panel, said first sheet metal panel comprising at least a main portion perpendicular to the second panel, an end portion parallel to the second panel and a determined radius of curvature connecting said end portion to the main portion, said method comprising at least: - one prior positioning step during which the end portion of the first panel is placed on the second panel without clearance; and - one laser welding step during which the first panel is laser welded to the second panel while complying with a determined clearance between said first and second panels (12, 14) in order to allow the zinc vapours to be removed, the laser beam being positioned in a zone of the radius of curvature of the first panel corresponding to the determined clearance between the first and second panels (12, 14), a laser head delivering the laser beam being arranged on one side of the two panels (12, 14) in order to carry out so-called "transparency" welding, characterized in that during the laser welding step, the laser head is arranged on the side of the concavity of the radius of curvature and is inclined by a determined angle (α) at which the beam passes through the centre of the radius of curvature and the normal to the radius of curvature of the first panel. - one prior positioning step during which the end portion of the first panel is placed on the second panel without clearance; and - one laser welding step during which the first panel is laser welded to the second panel while complying with a determined clearance between said first and second panels (12, 14) in order to allow the zinc vapours to be removed, the laser beam being positioned in a zone of the radius of curvature of the first panel corresponding to the determined clearance between the first and second panels (12, 14), a laser head delivering the laser beam being arranged on one side of the two panels (12, 14) in order to carry out so-called "transparency" welding, characterized in that during the laser welding step, the laser head is arranged on the side of the concavity of the radius of curvature and is inclined by a determined angle (α) at which the beam passes through the centre of the radius of curvature and the normal to the radius of curvature of the first panel.
An article comprising a food or beverage container, or a portion thereof, the article comprising: a metal substrate; a thermally-cured coating disposed on at least a portion of the substrate, wherein the coating was formed by baking a coating composition at a temperature of at least 150°C, and wherein, prior to bake, the coating composition comprises a polyether polymer having a beta-dicarbonyl group. a metal substrate; a thermally-cured coating disposed on at least a portion of the substrate, wherein the coating was formed by baking a coating composition at a temperature of at least 150°C, and wherein, prior to bake, the coating composition comprises a polyether polymer having a beta-dicarbonyl group.
An electret web comprising: a thermoplastic resin; and a charge-enhancing additive comprising an arylamino-substituted benzoic acid or an arylamino-substituted benzoic acid salt. a thermoplastic resin; and a charge-enhancing additive comprising an arylamino-substituted benzoic acid or an arylamino-substituted benzoic acid salt.
A method for transmitting an Uplink Control Information, UCI, by a user equipment, UE, the method comprising: receiving higher layer signaling informing of β offset, 1 UCI − type, ⋯, β osset, N R 1, UCI − type values; determining a number of coded modulation symbols per spatial layer Q' for an UCI type from the value of β offset, n RP UCI − type associated with a set n RP of reception points, RPs; multiplexing per spatial layer the Q' coded modulation symbols for the UCI type in a physical uplink shared channel, PUSCH; and transmitting the PUSCH, wherein the number of coded modulation symbols per spatial layer Q' is determined as Q ′ = min ⌈ O ⋅ M sc PUSCH − initial ⋅ N symb PUSCH − initial ⋅ β offset, n RP UCI − type ∑ r = 0 C − 1 K r ⌉, 4 ⋅ M sc PUSCH where O is a number of information bits for the UCI type, M sc PUSCH is a PUSCH transmission bandwidth in a transmission time interval, TTI, N symb PUSCH − initial is a number of TTI symbols for initial PUSCH transmission for a same data TB, M sc PUSCH − initial is a PUSCH transmission bandwidth for initial PUSCH transmission for a same data TB, C is a number of code blocks, and K r is a number of bits for code block number r, wherein the UCI type is transmitted by the UE to one set of RPs from a number N RP of sets of RPs, the N RP being greater than one, the one set of RPs being identified by the identifier n RP having a value between 1 and N RP. receiving higher layer signaling informing of β offset, 1 UCI − type, ⋯, β osset, N R 1, UCI − type values; determining a number of coded modulation symbols per spatial layer Q' for an UCI type from the value of β offset, n RP UCI − type associated with a set n RP of reception points, RPs; multiplexing per spatial layer the Q' coded modulation symbols for the UCI type in a physical uplink shared channel, PUSCH; and transmitting the PUSCH,
Drive and control system for a lifting gate with a vertically moved gate leaf, comprising: a drive motor connectable to said gate leaf and adapted to vertically move said gate leaf, a control unit for actuating said drive motor, and a power regulating unit for regulating said drive motor, characterized in that said drive motor is a synchronous motor and can be down-regulated up to zero rotational speed, said control unit is upon the occurrence of a stop condition adapted to actuate said drive motor such that its rotational speed is reduced in a controlled manner and said gate leaf is thereby braked in a motor-driven manner, wherein said drive motor is configured to provide sufficient torque at zero rotational speed to hold said gate leaf at a current position, and wherein said drive and control system further comprises an accumulator unit adapted to provide said drive motor, said control unit and said power regulating unit with electrical energy in the event of a power failure in order to ensure the operation of a regulated stop and holding in position. a drive motor connectable to said gate leaf and adapted to vertically move said gate leaf, a control unit for actuating said drive motor, and a power regulating unit for regulating said drive motor, characterized in that said drive motor is a synchronous motor and can be down-regulated up to zero rotational speed, said control unit is upon the occurrence of a stop condition adapted to actuate said drive motor such that its rotational speed is reduced in a controlled manner and said gate leaf is thereby braked in a motor-driven manner, wherein said drive motor is configured to provide sufficient torque at zero rotational speed to hold said gate leaf at a current position, and wherein said drive and control system further comprises an accumulator unit adapted to provide said drive motor, said control unit and said power regulating unit with electrical energy in the event of a power failure in order to ensure the operation of a regulated stop and holding in position.
Method for arranging an electrical cable in a foundation of an offshore wind turbine for the purpose of connection to an electrical installation, wherein a) an internally hollow transition piece TP provided on an upper side of a mounting means (flange) for the wind turbine is connected to an internally hollow foundation pile MP arranged in an underwater bottom; b) free outer ends of a TP messenger wire arranged in the transition piece and an MP messenger wire arranged in the foundation pile are mutually connected; c) the TP messenger wire is attached with a haul-in cable end to a haul-in cable; d) the MP messenger wire is attached with a traction cable end to a traction cable, lowered underwater from a cable-laying vessel, via a cable entry opening provided on a lower side of the foundation pile in a peripheral wall of the foundation pile, and is pulled with the traction cable toward the cable-laying vessel; e) the MP messenger wire or the traction cable is connected to an electrical cable present on the cable-laying vessel; f) the mutually connected messenger wires and the electrical cable are pulled with the haul-in cable through the cable entry opening into the foundation until a length of the electrical cable has been placed into the foundation; wherein the internal cavities of the transition piece and the foundation pile are provided prior to step a) with respectively the TP and MP messenger wire. a) an internally hollow transition piece TP provided on an upper side of a mounting means (flange) for the wind turbine is connected to an internally hollow foundation pile MP arranged in an underwater bottom; b) free outer ends of a TP messenger wire arranged in the transition piece and an MP messenger wire arranged in the foundation pile are mutually connected; c) the TP messenger wire is attached with a haul-in cable end to a haul-in cable; d) the MP messenger wire is attached with a traction cable end to a traction cable, lowered underwater from a cable-laying vessel, via a cable entry opening provided on a lower side of the foundation pile in a peripheral wall of the foundation pile, and is pulled with the traction cable toward the cable-laying vessel; e) the MP messenger wire or the traction cable is connected to an electrical cable present on the cable-laying vessel; f) the mutually connected messenger wires and the electrical cable are pulled with the haul-in cable through the cable entry opening into the foundation until a length of the electrical cable has been placed into the foundation;
Laundry care appliance with a outer tub for receiving a washing liquor, wherein the outer tub has a reservoir aperture, a collar,, which is arranged and embodied on the reservoir aperture to seal the reservoir aperture, wherein the collar has an inlet nozzle, and a tray housing, in which a dispensing tray is received for accommodating a laundry care substance, wherein the tray housing has an outlet nozzle, which is fluidically connected to the inlet nozzle of the collar, wherein the laundry care appliance has a partition, which is arranged and formed in the outlet nozzle, to subdivide an interior of the outlet nozzle into a fluid duct for carrying fluid and an air duct for carrying air, characterised in that the partition extends outward at least in sections from the outlet nozzle into the inlet nozzle of the collar. wherein the outer tub has a reservoir aperture, a collar,, which is arranged and embodied on the reservoir aperture to seal the reservoir aperture, wherein the collar has an inlet nozzle, and a tray housing, in which a dispensing tray is received for accommodating a laundry care substance, wherein the tray housing has an outlet nozzle, which is fluidically connected to the inlet nozzle of the collar, wherein the laundry care appliance has a partition, which is arranged and formed in the outlet nozzle, to subdivide an interior of the outlet nozzle into a fluid duct for carrying fluid and an air duct for carrying air, characterised in that the partition extends outward at least in sections from the outlet nozzle into the inlet nozzle of the collar.
A physical quantity detection device comprising one or more intake temperature detection elements (422, 453) and an electronic circuit board processing an electric signal, wherein the one or more intake temperature amount detection elements and at least three components are configured to be mounted on the same electronic circuit board, and the one or more intake temperature detection elements are arranged at an air flow upstream portion with respect to a component having a maximum heat generation amount among the at least three components, wherein, of the components mounted on the electronic circuit board, three components having the first to third highest heat generation amounts are arranged, from an air flow downstream portion, in a descending order of the heat generation amount; characterised in that an independent sub-passage for taking in air flow passing through a main passage is formed on a surface at one side of the electronic circuit board, where the intake temperature detection element is mounted; and at least a part of the component having the maximum heat generation amount is arranged on a surface on the other side of the electronic circuit board and is at a position on an opposite side of the sub-passage with the electronic circuit board interposed therebetween. wherein the one or more intake temperature amount detection elements and at least three components are configured to be mounted on the same electronic circuit board, and the one or more intake temperature detection elements are arranged at an air flow upstream portion with respect to a component having a maximum heat generation amount among the at least three components, wherein, of the components mounted on the electronic circuit board, three components having the first to third highest heat generation amounts are arranged, from an air flow downstream portion, in a descending order of the heat generation amount; characterised in that an independent sub-passage for taking in air flow passing through a main passage is formed on a surface at one side of the electronic circuit board, where the intake temperature detection element is mounted; and at least a part of the component having the maximum heat generation amount is arranged on a surface on the other side of the electronic circuit board and is at a position on an opposite side of the sub-passage with the electronic circuit board interposed therebetween.
A cleaning accessory for a vacuum cleaner, comprising: a housing having a first air inlet on an underside of the housing and an air outlet and a first airflow path between the first air inlet and the air outlet, the housing comprising a first side wall, a second side wall, a front wall, and a back wall; at least one cleaning brush having at least one flexible cleaning element projecting outwards from a side of the housing, the at least one cleaning brush comprising a first rotatable cleaning brush which comprises a rotatable body and the at least one flexible cleaning element mounted to the rotatable body; and at least one side air inlet on the side of the housing, and a second airflow path (p 1) between the at least one side air inlet and the air outlet; wherein the at least one flexible cleaning element is arranged to engage a surface to be cleaned adjacent to the at least one side air inlet; characterized in that the first side wall comprises both the first side air inlet and a projecting lip which projects outwardly from the first side wall into the path of dirt swept by the first cleaning brush to guide dirt into the first side air inlet. a housing having a first air inlet on an underside of the housing and an air outlet and a first airflow path between the first air inlet and the air outlet, the housing comprising a first side wall, a second side wall, a front wall, and a back wall; at least one cleaning brush having at least one flexible cleaning element projecting outwards from a side of the housing, the at least one cleaning brush comprising a first rotatable cleaning brush which comprises a rotatable body and the at least one flexible cleaning element mounted to the rotatable body; and at least one side air inlet on the side of the housing, and a second airflow path (p 1) between the at least one side air inlet and the air outlet; wherein the at least one flexible cleaning element is arranged to engage a surface to be cleaned adjacent to the at least one side air inlet; characterized in that the first side wall comprises both the first side air inlet and a projecting lip which projects outwardly from the first side wall into the path of dirt swept by the first cleaning brush to guide dirt into the first side air inlet.