mhurhangee/ep-ind-claims huggingface dataset:
A method for configuring a logical network in a hosting system comprising a plurality of nodes, the method comprising: receiving a first configuration for a first middlebox of a logical network and a second configuration for a second middlebox of the logical network, the logical network comprising the first and second middleboxes (1180,1185) and a set of logical forwarding elements that logically connect a plurality of virtual machines hosted on a subset of the plurality of nodes; identifying the subset of the plurality of the nodes as nodes for implementing the first middlebox; distributing the first configuration to the identified nodes, the first configuration for implementation by middlebox elements operating on the identified nodes, the middlebox elements operating alongside managed switching elements that also operate on the identified nodes to implement the logical forwarding elements in a distributed manner, wherein each of the identified nodes receives the first configuration for the first middlebox; and wherein the first middlebox is implemented in a distributed manner across the middlebox elements operating on the identified nodes; and distributing the second configuration for implementation on a single physical machine. receiving a first configuration for a first middlebox of a logical network and a second configuration for a second middlebox of the logical network, the logical network comprising the first and second middleboxes (1180,1185) and a set of logical forwarding elements that logically connect a plurality of virtual machines hosted on a subset of the plurality of nodes; identifying the subset of the plurality of the nodes as nodes for implementing the first middlebox; distributing the first configuration to the identified nodes, the first configuration for implementation by middlebox elements operating on the identified nodes, the middlebox elements operating alongside managed switching elements that also operate on the identified nodes to implement the logical forwarding elements in a distributed manner, wherein each of the identified nodes receives the first configuration for the first middlebox; and wherein the first middlebox is implemented in a distributed manner across the middlebox elements operating on the identified nodes; and distributing the second configuration for implementation on a single physical machine.
A method comprising: (a) initiating a cooling cycle of a vapor cycle refrigeration system of an aircraft; (b) sensing a pressure of refrigerant at an inlet of a compressor of the vapor cycle refrigeration system during operation of the cooling cycle; (c) initiating a defrost cycle of the vapor cycle refrigeration system in response to the sensed pressure being less than a threshold pressure; (d) terminating the defrost cycle upon expiration of a defrost cycle time that is based upon a time duration of the cooling cycle; and (e) repeating steps (a) - (d). (a) initiating a cooling cycle of a vapor cycle refrigeration system of an aircraft; (b) sensing a pressure of refrigerant at an inlet of a compressor of the vapor cycle refrigeration system during operation of the cooling cycle; (c) initiating a defrost cycle of the vapor cycle refrigeration system in response to the sensed pressure being less than a threshold pressure; (d) terminating the defrost cycle upon expiration of a defrost cycle time that is based upon a time duration of the cooling cycle; and (e) repeating steps (a) - (d).
Motor vehicle lighting device comprising a housing with a light outlet opening closed by a transparent cover plate and a light module arranged in the housing for generating a light distribution and for emitting the light distribution along a beam path through the cover plate, wherein the cover plate is heatable, wherein the cover plate has an electrically conductive layer with nanotubes of at least one electrically conductive material in the beam path and an electrical voltage is applied at least temporarily to the layer, so that an electrical current flows through the layer, as a result of which the layer heats up uniformly and the heat of the layer heats the cover plate, wherein the electrically conductive layer is applied to a transparent carrier film, which in turn is applied planarly to at least a part of an inner side or an outer side of the cover plate, characterised in that the application of the carrier film with the electrically conductive layer applied thereto comprises a planar adhesion of the carrier film to the inner side or the outer side of the cover plate. wherein the cover plate has an electrically conductive layer with nanotubes of at least one electrically conductive material in the beam path and an electrical voltage is applied at least temporarily to the layer, so that an electrical current flows through the layer, as a result of which the layer heats up uniformly and the heat of the layer heats the cover plate, wherein the electrically conductive layer is applied to a transparent carrier film, which in turn is applied planarly to at least a part of an inner side or an outer side of the cover plate, characterised in that the application of the carrier film with the electrically conductive layer applied thereto comprises a planar adhesion of the carrier film to the inner side or the outer side of the cover plate.
An apparatus comprising: (a) a handle assembly; (b) a guide tube extending distally from the handle assembly, wherein at least a distal portion of the guide tube is malleable; and (c) a dilation catheter slidably positioned in the guide tube, wherein the dilation catheter includes: (i) a distal end, (ii) a dilator, and (iii) a position sensor, wherein the position sensor is configured to generate a signal indicating a position of the position sensor in three-dimensional space, wherein the dilation catheter is configured to translate relative to the guide tube, wherein the guide tube defines an inner diameter, wherein the dilation catheter defines an outer diameter, wherein the guide tube and the dilation catheter cooperate to define a gap between the inner diameter of the guide tube and the outer diameter of the dilation catheter, wherein the gap is sized to provide communication of one or more of: (i) suction through the gap, or (ii) irrigation fluid through the gap. (a) a handle assembly; (b) a guide tube extending distally from the handle assembly, wherein at least a distal portion of the guide tube is malleable; and (c) a dilation catheter slidably positioned in the guide tube, wherein the dilation catheter includes: (i) a distal end, (ii) a dilator, and (iii) a position sensor, wherein the position sensor is configured to generate a signal indicating a position of the position sensor in three-dimensional space, wherein the dilation catheter is configured to translate relative to the guide tube, wherein the guide tube defines an inner diameter, wherein the dilation catheter defines an outer diameter, wherein the guide tube and the dilation catheter cooperate to define a gap between the inner diameter of the guide tube and the outer diameter of the dilation catheter, wherein the gap is sized to provide communication of one or more of: (i) suction through the gap, or (ii) irrigation fluid through the gap. (i) a distal end, (ii) a dilator, and (iii) a position sensor, wherein the position sensor is configured to generate a signal indicating a position of the position sensor in three-dimensional space, wherein the dilation catheter is configured to translate relative to the guide tube, wherein the guide tube defines an inner diameter, wherein the dilation catheter defines an outer diameter, wherein the guide tube and the dilation catheter cooperate to define a gap between the inner diameter of the guide tube and the outer diameter of the dilation catheter, wherein the gap is sized to provide communication of one or more of: (i) suction through the gap, or (ii) irrigation fluid through the gap. (i) suction through the gap, or (ii) irrigation fluid through the gap.
Continuous transporting belt (1, 9, 11, 13) having a multilayered structure, with at least a first layer (6, 10) that forms a running side, and with at least a second layer that forms in particular a load-bearing side, wherein at least one of the layers (5, 6, 10) is connected by means of an adhesion layer to at least one layer that forms a tension member, wherein the adhesion layer contains a composition with a first portion of an adhesive and with a second portion of a lubricant, characterized in that a physical connection is formed between the layer that forms the tension member and the adhesion layer, said connection forming a barrier layer that is impermeable for the second portion of the lubricant, wherein the chemical bonding between the adhesion layer and the layer (6, 10) that forms the running side is permeable, at least to a restricted extent, for the portions of the lubricant, and in that the portion of the lubricant can penetrate through the layer (6, 10) that forms the running side, and therefore a portion of the lubricant collects on an outer side of the first layer (6, 10) that is facing away from the layer that forms the tension member.
An epoxy curing agent comprising at least one polyurea oligomer wherein the oligomer comprises an adduct of at least one isocyanate and at least one diamine, wherein the diamine comprises at least one member selected from the group consisting of polytetramethyleneoxide-di-p-aminobenzoate, polytetraethyleneoxide-di-p-aminobenzoate, polytetrapropyleneoxide-di-p-aminobenzoate, and polytetrahexyleneoxide-di-p-aminobenzoate.
Coolant supply system for an electric machine, in which electric machine a free electric machine space is provided between the rotor/stator assembly and an electric machine housing wall in the axial direction and has coolant introduced into it, wherein the electric machine has a rotor shaft bearing assembly in which the rotor shaft is rotationally mounted in a hub portion of the electric machine housing wall by means of a rotary bearing, wherein the bearing opening is sealed off with respect to the housing exterior by way of a sealing element, specifically so as to form a free space between the rotary bearing and the sealing element, wherein the electric machine housing wall has a coolant connection (61, 63), by means of which coolant can be guided from the electric machine space into the free space, and wherein the electric machine housing wall has a catching contour at which coolant present in the electric machine space collects and can be guided to the free space via the inlet, characterized in that, for providing the inner corner region, the catching contour has an axial web which protrudes from the inner side of the electric machine housing wall in the direction of the electric machine space in the axial direction and extends at least partially in the circumferential direction, and in that at least one catching rib is raised radially outwards from the axial web. wherein the electric machine housing wall has a coolant connection (61, 63), by means of which coolant can be guided from the electric machine space into the free space, and wherein the electric machine housing wall has a catching contour at which coolant present in the electric machine space collects and can be guided to the free space via the inlet, characterized in that, for providing the inner corner region, the catching contour has an axial web which protrudes from the inner side of the electric machine housing wall in the direction of the electric machine space in the axial direction and extends at least partially in the circumferential direction, and in that at least one catching rib is raised radially outwards from the axial web.
Household dishwasher with a washing container, a guide device and a receptacle (12 to 14) for items to be washed, it being possible for said receptacle (12 to 14) to be moved into and out of the washing container of the household dishwasher with the aid of the guide device, the guide device having a running rail, wherein the guide device has first rollers (16, 17), which are fastened rotatably to the washing container and which are preferably arranged within the running rail, and second rollers (36 to 38), which are fastened rotatably to the receptacle (12 to 14) for items to be washed, wherein the first rollers (16, 17) and second rollers (36 to 38) roll in or on the running rail respectively, when the receptacle (12 to 14) for items to be washed is moved out of the washing container and when the receptacle (12 to 14) for items to be washed is moved into the washing container, and wherein the guide device has a locking element, which is designed to fix the receptacle (12 to 14) for items to be washed to the running rail when said receptacle (12 to 14) is moved out of the washing container, characterised in that the fixing lasts until the running rail is in a state in which it is moved completely out of the washing container, that the locking element has a stop segment, against which one of the first rollers comes to a stop to release the receptacle (12 to 14) for items to be washed and the locking element is designed to release the receptacle (12 to 14) for items to be washed when the running rail is in the state in which it is moved completely out of the washing container, in order to bring the receptacle (12 to 14) for items to be washed itself into a state in which it is moved completely out of the washing container.
An apparatus for producing a workpiece made of glass, comprising at least - a device for heating the glass until it softens; - an inner forming tool for shaping the inner circumferential surfaces of the workpiece; - at least one outer forming tool for shaping the outer circumferential surfaces of the workpiece, comprising a forming roller with a forming surface, an accommodation device for the forming roller; and - a device for applying a lubricating oil to the forming surface of the forming roller, having an outlet opening for dispensing the lubricating oil; wherein the forming roller is mounted for free rotation in the accommodation device and can be fixed during the forming process by a lockable locking means, wherein the locking of the forming roller is effected by a releasable connection so that the forming roller can be released between the individual forming processes and can be rotated about an angle α in the locking means. - a device for heating the glass until it softens; - an inner forming tool for shaping the inner circumferential surfaces of the workpiece; - at least one outer forming tool for shaping the outer circumferential surfaces of the workpiece, comprising a forming roller with a forming surface, an accommodation device for the forming roller; and - a device for applying a lubricating oil to the forming surface of the forming roller, having an outlet opening for dispensing the lubricating oil;
Circuit arrangement for actuating an electrical load, having an AC input; a rectifier connected to said AC input; an inverter having a plurality of switching elements and connected to said rectifier; an AC output of the inverter, to which AC output at least one electrical load can be connected; a control apparatus for actuating the plurality of switching elements of the inverter; an inrush current limiter arranged between the AC input and the rectifier; and a switching device connected in parallel with the inrush current limiter, which switching device is switched on by the control apparatus after a switch-on or start-up operation in order to bypass the inrush current limiter, characterized in that the inrush current limiter has at least one PTC thermistor; and and further characterized by a means, which is configured so that, in the case of a failure of the control apparatus, it switches off the switching device depending on a signal received by the control apparatus.
A computer-implemented image processing method comprising a determination of an image processing function (41, 42, 43) of each image (11, 12, 13) of an image sequence by means of the following steps: (i) determining a sequence of estimates (32, 33) of the processing functions (42, 43) of at least some of the images (12, 13); (ii) determining the processing function (41, 42, 43) of each image (11, 12, 13) recursively over the sequence of images, on the basis of the sequence of estimates (32, 33), so that the determination of a processing function (42, 43) of an image to be processed (12, 13) which is at least second in the image sequence is carried out on the basis: - of the sequence of estimates (32, 33), and - of a processing function (41, 42) of an image (11, 12) preceding the image to be processed (12, 13) in the image sequence; wherein the image processing function (41, 42, 43) defines an image segmentation. (i) determining a sequence of estimates (32, 33) of the processing functions (42, 43) of at least some of the images (12, 13); (ii) determining the processing function (41, 42, 43) of each image (11, 12, 13) recursively over the sequence of images, on the basis of the sequence of estimates (32, 33), so that the determination of a processing function (42, 43) of an image to be processed (12, 13) which is at least second in the image sequence is carried out on the basis: - of the sequence of estimates (32, 33), and - of a processing function (41, 42) of an image (11, 12) preceding the image to be processed (12, 13) in the image sequence; - of the sequence of estimates (32, 33), and - of a processing function (41, 42) of an image (11, 12) preceding the image to be processed (12, 13) in the image sequence;
A heat-insulating body, comprising - an insulating body wall (1, 2), and - an intermediate space enclosed by at least a part of the insulating body wall (1, 2), wherein the intermediate space is sealed in a gas-tight and/or liquid-tight manner towards a region (A, R) outside of the insulating body wall (1, 2), wherein the insulating body is arranged in a rigid fashion in the finished state, characterized in that - the insulating body wall (1, 2) contains a gas-tight and/or liquid-tight polymer-containing fibre composite structure, or consists thereof, wherein fibres are understood by a polymer-containing fibre composite structure which are present in a polymer matrix and/or contain the same. - an insulating body wall (1, 2), and - an intermediate space enclosed by at least a part of the insulating body wall (1, 2), wherein the intermediate space is sealed in a gas-tight and/or liquid-tight manner towards a region (A, R) outside of the insulating body wall (1, 2), wherein the insulating body is arranged in a rigid fashion in the finished state, characterized in that - the insulating body wall (1, 2) contains a gas-tight and/or liquid-tight polymer-containing fibre composite structure, or consists thereof, wherein fibres are understood by a polymer-containing fibre composite structure which are present in a polymer matrix and/or contain the same.
An arch former for a masonry arch comprising: a planar elongate base, having two longitudinally extending grooves (12a, 12b) spaced apart, and at least one aperture arranged at each end (2a, 2b); two side panels (4a, 4b), wherein each side panel comprises a straight bottom edge (8a, 8b) and a curved top edge (10a, 10b); and a top section, formed as an elongate panel arranged to extend over the curved top edges (10a, 10b) of the side panels (4a, 4b) and comprising a locking means disposed at each end (6a, 6b) arranged to cooperate with the at least one aperture arranged at each end (2a, 2b) of the base, and two longitudinally extending grooves (18a, 18b) spaced apart; wherein each groove (12a, 12b) of the base is configured to receive at least a portion of the bottom edge (8a, 8b) of one of the side panels (4a, 4b), and wherein each groove (18a, 18b) of the top section is arranged to receive at least a portion of the top edge (10a, 10b) of one of the side panels (4a, 4b). a planar elongate base, having two longitudinally extending grooves (12a, 12b) spaced apart, and at least one aperture arranged at each end (2a, 2b); two side panels (4a, 4b), wherein each side panel comprises a straight bottom edge (8a, 8b) and a curved top edge (10a, 10b); and a top section, formed as an elongate panel arranged to extend over the curved top edges (10a, 10b) of the side panels (4a, 4b) and comprising a locking means disposed at each end (6a, 6b) arranged to cooperate with the at least one aperture arranged at each end (2a, 2b) of the base, and two longitudinally extending grooves (18a, 18b) spaced apart; wherein each groove (12a, 12b) of the base is configured to receive at least a portion of the bottom edge (8a, 8b) of one of the side panels (4a, 4b), and wherein each groove (18a, 18b) of the top section is arranged to receive at least a portion of the top edge (10a, 10b) of one of the side panels (4a, 4b).
A wound treatment device comprising: a plasma chamber having one or more electrodes, a gas supply inlet, and a plasma chamber outlet exposed to ambient pressure, an ignition system operatively connected to said one or more electrodes for providing a non-thermal equilibrium plasma within the plasma chamber, said plasma streaming from the plasma chamber outlet in operation of the wound treatment device; and a nebuliser arranged to introduce a bioresorbable material comprising a biopolymer as an aerosol into the plasma, for producing, in operation of the wound treatment device, a coating comprising the bioresorbable material on a surface; characterized in that said surface is a wound surface over which the wound treatment device is passed; and wherein said ignition system is arranged to provide power to said plasma at a frequency above 100 kHz. a plasma chamber having one or more electrodes, a gas supply inlet, and a plasma chamber outlet exposed to ambient pressure, an ignition system operatively connected to said one or more electrodes for providing a non-thermal equilibrium plasma within the plasma chamber, said plasma streaming from the plasma chamber outlet in operation of the wound treatment device; and a nebuliser arranged to introduce a bioresorbable material comprising a biopolymer as an aerosol into the plasma, for producing, in operation of the wound treatment device, a coating comprising the bioresorbable material on a surface; characterized in that said surface is a wound surface over which the wound treatment device is passed; and wherein said ignition system is arranged to provide power to said plasma at a frequency above 100 kHz.