mhurhangee/ep-ind-claims huggingface dataset:
A method comprising: selecting, by a first virtual routing node of a single-chassis network device having a plurality of forwarding components and a plurality of fabric links coupling respective pairs of the plurality of forwarding components at respective fabric interfaces of the plurality of forwarding components, a fabric interface of a forwarding component of the plurality of forwarding components, wherein the forwarding component having the fabric interface has an egress interface toward a network destination and is associated with the first virtual routing node, and wherein the fabric interface is an ingress interface of the forwarding component; advertising, by the first virtual routing node to a second virtual routing node of the single-chassis network device and using one of a first subset of the plurality of forwarding components, the fabric interface as a next hop for the network destination; in response to receiving the fabric interface advertisement, storing, by the second virtual routing node to a context data structure of the second virtual node, the fabric interface as a next hop for the network destination; selecting, by the second virtual routing node and based on the context data structure, the fabric interface from among a plurality of fabric interfaces as a next hop for the network destination; and forwarding, by the second virtual routing node and using one of a second subset of the plurality of forwarding components where the second subset is distinct from the first subset, network traffic destined for the network destination to the selected fabric interface. selecting, by a first virtual routing node of a single-chassis network device having a plurality of forwarding components and a plurality of fabric links coupling respective pairs of the plurality of forwarding components at respective fabric interfaces of the plurality of forwarding components, a fabric interface of a forwarding component of the plurality of forwarding components, wherein the forwarding component having the fabric interface has an egress interface toward a network destination and is associated with the first virtual routing node, and wherein the fabric interface is an ingress interface of the forwarding component; advertising, by the first virtual routing node to a second virtual routing node of the single-chassis network device and using one of a first subset of the plurality of forwarding components, the fabric interface as a next hop for the network destination; in response to receiving the fabric interface advertisement, storing, by the second virtual routing node to a context data structure of the second virtual node, the fabric interface as a next hop for the network destination; selecting, by the second virtual routing node and based on the context data structure, the fabric interface from among a plurality of fabric interfaces as a next hop for the network destination; and forwarding, by the second virtual routing node and using one of a second subset of the plurality of forwarding components where the second subset is distinct from the first subset, network traffic destined for the network destination to the selected fabric interface.
Vehicle seat comprising a backrest and a drive system for a tilt adjustment of a backrest which is foldable between a use position suitable for conveying a vehicle passenger and a non-use position which is pivoted forward with respect to the use position, wherein the backrest is held on a subframe of the vehicle seat by at least one fitting, wherein an output pinion which is able to be driven by a drive motor is provided on the backrest side and the output pinion cooperates with a toothed segment arranged fixedly in terms of rotation on the subframe and a pivoting movement of the backrest is able to be carried out by means of the drive motor while the fitting is unlocked, characterized in that the output pinion is able to be uncoupled from the drive motor by means of a clutch and in that a compensation spring acting between the backrest and the subframe is provided, by means of which compensation spring the backrest is pretensioned in the direction of the non-use position.
A dental investment that is a dental phosphate-bonded investment including boron nitride at 0.1% to 5% by weight, wherein an average particle diameter of the boron nitride is in a range of from 1 μ m to 20 μ m at an integrated value 50% in a particle size distribution obtained by a laser diffraction/scattering method.
A dry sheet for cleaning comprising multiple layers (2; 3), comprising: fiber layers each arranged in a front surface layer and a back surface layer; a spun bond nonwoven fabric layer provided in an intermediate layer between the fiber layers; and an interlaced part in which the fiber layers are interlaced with the nonwoven fabric layer, wherein the interlaced part is provided in the front surface layer and the back surface layer and includes slightly interlaced parts and highly interlaced parts, each of the highly interlaced parts being formed in a dent shape and being interlaced so as to have a higher fiber density than each of the slightly interlaced parts, wherein the highly interlaced parts in the front surface layer are formed corresponding to and at almost same spots as the highly interlaced parts in the back surface layer, characterized in that the front surface layer and the back surface layer each include polyethylene terephthalate fiber at a rate of 80% or more, wherein a fiber diameter of the polyethylene terephthalate fiber is 3.3 dtex or more, wherein the highly interlaced parts are formed in an area ratio of 20 to 90% with respect to an area of the front surface layer and the back surface layer in a plan view, and wherein the highly interlaced parts and the slightly interlaced parts each extend in a direction perpendicular to a wiping direction of the dry sheet for cleaning and are formed alternately and successively in the wiping direction. fiber layers each arranged in a front surface layer and a back surface layer; a spun bond nonwoven fabric layer provided in an intermediate layer between the fiber layers; and an interlaced part in which the fiber layers are interlaced with the nonwoven fabric layer, wherein the interlaced part is provided in the front surface layer and the back surface layer and includes slightly interlaced parts and highly interlaced parts, each of the highly interlaced parts being formed in a dent shape and being interlaced so as to have a higher fiber density than each of the slightly interlaced parts, wherein the highly interlaced parts in the front surface layer are formed corresponding to and at almost same spots as the highly interlaced parts in the back surface layer, characterized in that the front surface layer and the back surface layer each include polyethylene terephthalate fiber at a rate of 80% or more, wherein a fiber diameter of the polyethylene terephthalate fiber is 3.3 dtex or more, wherein the highly interlaced parts are formed in an area ratio of 20 to 90% with respect to an area of the front surface layer and the back surface layer in a plan view, and wherein the highly interlaced parts and the slightly interlaced parts each extend in a direction perpendicular to a wiping direction of the dry sheet for cleaning and are formed alternately and successively in the wiping direction.
A method, in first network node operable to initiate multicast or broadcast transmissions from a first base station in a wireless communications network, the method comprising: receiving a message from a second network node; determining a target geographical area associated with the message; responsive to the target geographical area comprising a first geographical area, determining that the message comprises information relevant to unmanned vehicles located in the first geographical area; responsive to determining that the message comprises information relevant to unmanned vehicles (20, 22) located within the first geographical area associated with the first base station, initiating, from the first base station, a multicast or broadcast transmission of a report to a plurality of unmanned vehicles located within the first geographical area over a set of frequency resources associated with a determined category of the report, wherein the report is based on the message and responsive to the target geographical area comprising a second geographical area transmitting the message to a third network node operable to initiate multicast or broadcast transmissions from a second base station in the wireless communications network, wherein the second base station is associated with the second geographical area. receiving a message from a second network node; determining a target geographical area associated with the message; responsive to the target geographical area comprising a first geographical area, determining that the message comprises information relevant to unmanned vehicles located in the first geographical area; responsive to determining that the message comprises information relevant to unmanned vehicles (20, 22) located within the first geographical area associated with the first base station, initiating, from the first base station, a multicast or broadcast transmission of a report to a plurality of unmanned vehicles located within the first geographical area over a set of frequency resources associated with a determined category of the report, wherein the report is based on the message and responsive to the target geographical area comprising a second geographical area transmitting the message to a third network node operable to initiate multicast or broadcast transmissions from a second base station in the wireless communications network, wherein the second base station is associated with the second geographical area.
A hockey-stick, comprising: a main body including a hockey-stick blade comprising a plurality of layers of structural material and defining an internal cavity; and a microlattice structure (136,138) positioned between at least two of the layers of structural material and within the internal cavity to form a core of the hockey-stick blade, wherein the microlattice structure is a three-dimensional lattice-based open-cellular polymer material that has been formed by directing collimated ultraviolet light beams (24,46) through apertures to polymerise a photomonomer material; wherein the hockey-stick blade comprises a heel region, a mid-region and a toe region, and wherein the microlattice structure has a higher density in the heel region than in the toe region, the microlattice structure has a higher density in the heel region than in the mid-region and the toe region, and/or the microlattice structure has a lower density in the toe region than in the mid-region and the heel region. a main body including a hockey-stick blade comprising a plurality of layers of structural material and defining an internal cavity; and a microlattice structure (136,138) positioned between at least two of the layers of structural material and within the internal cavity to form a core of the hockey-stick blade, wherein the microlattice structure is a three-dimensional lattice-based open-cellular polymer material that has been formed by directing collimated ultraviolet light beams (24,46) through apertures to polymerise a photomonomer material; wherein the hockey-stick blade comprises a heel region, a mid-region and a toe region, and wherein the microlattice structure has a higher density in the heel region than in the toe region, the microlattice structure has a higher density in the heel region than in the mid-region and the toe region, and/or the microlattice structure has a lower density in the toe region than in the mid-region and the heel region.
Industrial vision device comprising - a camera, - a device for processing images recorded by the camera, and - a lighting device for industrial vision, comprising: - a plurality of light sources for lighting a zone of interest, - an optical sensor for picking up the light emitted by the plurality of light sources and reflected by at least two distinct parts (110 1 - 110 5) of the zone of interest), - a module for comparing the light intensity of the light reflected by the at least two distinct parts (110 1 - 110 5) of the zone of interest, and picked up by the optical sensor, and - a module for modifying the configuration of the light sources as a function of the comparison of the light intensities reflected by the at least two distinct parts (110 1 - 110 5) and picked up by the optical sensor, so that the difference between the compared light intensities is less than 20%, preferably less than 10%, more preferably less than 5%. - a camera, - a device for processing images recorded by the camera, and - a lighting device for industrial vision, comprising: - a plurality of light sources for lighting a zone of interest, - an optical sensor for picking up the light emitted by the plurality of light sources and reflected by at least two distinct parts (110 1 - 110 5) of the zone of interest), - a module for comparing the light intensity of the light reflected by the at least two distinct parts (110 1 - 110 5) of the zone of interest, and picked up by the optical sensor, and - a module for modifying the configuration of the light sources as a function of the comparison of the light intensities reflected by the at least two distinct parts (110 1 - 110 5) and picked up by the optical sensor, so that the difference between the compared light intensities is less than 20%, preferably less than 10%, more preferably less than 5%. - a plurality of light sources for lighting a zone of interest, - an optical sensor for picking up the light emitted by the plurality of light sources and reflected by at least two distinct parts (110 1 - 110 5) of the zone of interest), - a module for comparing the light intensity of the light reflected by the at least two distinct parts (110 1 - 110 5) of the zone of interest, and picked up by the optical sensor, and - a module for modifying the configuration of the light sources as a function of the comparison of the light intensities reflected by the at least two distinct parts (110 1 - 110 5) and picked up by the optical sensor, so that the difference between the compared light intensities is less than 20%, preferably less than 10%, more preferably less than 5%.
A power transmission device comprising: a first drive shaft; a second drive shaft; a differential mechanism connected to the first drive shaft and the second drive shaft; a case that houses the differential mechanism; a pinion shaft supported by the case; a pinion gear that uses the pinion shaft as the shaft center; and a bearing that is positioned between the pinion shaft and the pinion gear, the first drive shaft is positioned such that it overlaps with the revolution orbit of the pinion gear, when viewed in a radial direction, and the pinion shaft is positioned such that it overlaps with the first drive shaft, when viewed in the radial direction, characterized in that the case has an oil hole that is open facing the outside of the case, the bearing is lubricated via the oil hole, the oil hole is positioned such that it overlaps with the second drive shaft, when viewed in the radial direction, and the pinion shaft is positioned such that it overlaps with the second drive shaft, when viewed in the radial direction. a first drive shaft; a second drive shaft; a differential mechanism connected to the first drive shaft and the second drive shaft; a case that houses the differential mechanism; a pinion shaft supported by the case; a pinion gear that uses the pinion shaft as the shaft center; and a bearing that is positioned between the pinion shaft and the pinion gear, the first drive shaft is positioned such that it overlaps with the revolution orbit of the pinion gear, when viewed in a radial direction, and the pinion shaft is positioned such that it overlaps with the first drive shaft, when viewed in the radial direction, characterized in that the case has an oil hole that is open facing the outside of the case, the bearing is lubricated via the oil hole, the oil hole is positioned such that it overlaps with the second drive shaft, when viewed in the radial direction, and the pinion shaft is positioned such that it overlaps with the second drive shaft, when viewed in the radial direction.
A method of printing a color surface of an object by printing dots of curable ink in several superposed layers, the method comprising the steps of: a) defining a micro-texture (28, 30), the micro-texture being a repetitive pattern of elevated parts; b) establishing a gloss function that indicates a gloss value of a surface having said micro-texture, as a function of a height difference between a maximum height of the elevated parts and a minimum height of the depressed parts of the micro-texture; c) assigning a target gloss value (Gt) to at least a part of a surface area (22, 24) of the object; d) determining, on the basis of the gloss function, a required local height difference corresponding to the target gloss value (Gt); and e) forming, on said part of the surface area (22, 24) of the object, the micro-texture (28, 30) with a height profile scaled to the required local height difference, characterized in that the elevated parts take the form of pillars that have a uniform height and a uniform cross-sectional shape over their entire height, and the depressed parts take the form of gaps between the pillars. a) defining a micro-texture (28, 30), the micro-texture being a repetitive pattern of elevated parts; b) establishing a gloss function that indicates a gloss value of a surface having said micro-texture, as a function of a height difference between a maximum height of the elevated parts and a minimum height of the depressed parts of the micro-texture; c) assigning a target gloss value (Gt) to at least a part of a surface area (22, 24) of the object; d) determining, on the basis of the gloss function, a required local height difference corresponding to the target gloss value (Gt); and e) forming, on said part of the surface area (22, 24) of the object, the micro-texture (28, 30) with a height profile scaled to the required local height difference, characterized in that the elevated parts take the form of pillars that have a uniform height and a uniform cross-sectional shape over their entire height, and the depressed parts take the form of gaps between the pillars.
A method of manufacturing an image sensor, comprising the successive steps of: a) forming a structure comprising a semiconductor layer having a front side and a back side, and a capacitive insulation wall extending vertically from the front side to the back side of the semiconductor layer, the capacitive insulation wall including first and second insulating walls separated by a region made of a conductor or semiconductor material; b) etching, from the back side of said structure, part of the thickness of the semiconductor layer and of the region made of a conductor or semiconductor material selectively over the insulating walls (105a, 105b) so that, at the end of the etching, each of the first and second insulating walls has a protruding portion of the back side of the semiconductor layer and from the back side of the region made of a conductor or semiconductor material; c) depositing a dielectric passivation layer on the back side of the structure; and d) locally removing the dielectric passivation layer opposite the back side of the protruding portions of the first and second insulating walls. a) forming a structure comprising a semiconductor layer having a front side and a back side, and a capacitive insulation wall extending vertically from the front side to the back side of the semiconductor layer, the capacitive insulation wall including first and second insulating walls separated by a region made of a conductor or semiconductor material; b) etching, from the back side of said structure, part of the thickness of the semiconductor layer and of the region made of a conductor or semiconductor material selectively over the insulating walls (105a, 105b) so that, at the end of the etching, each of the first and second insulating walls has a protruding portion of the back side of the semiconductor layer and from the back side of the region made of a conductor or semiconductor material; c) depositing a dielectric passivation layer on the back side of the structure; and d) locally removing the dielectric passivation layer opposite the back side of the protruding portions of the first and second insulating walls.
A method for performing handover of User Equipment, UE, in wireless communication network comprising normal cells and fast cells, fast cells being configured for user equipments with a moving speed exceeding a threshold, a service connection being made via the UE, the UE being connected to a normal cell, the method comprising: a) when the measured moving speed of the UE exceeds a threshold, performing a handover from the normal cell to a first fast cell with a radio bearer set up in the first fast cell; b) when the UE is leaving the first fast cell for a current fast cell, adjacent to the first fast cell, setting up the same radio bearer at the current fast cell as the radio bearer set up at the first fast cell; c) Releasing the radio bearer at the first fast cell after the UE leaves the first fast cell; and d) Re-registering into an adjacent normal cell when the service connection is terminated, or handover to the adjacent normal cell from the current fast cell when the measured moving speed of the UE is below the threshold characterized in that fast cells are cells configured for UEs with the moving speed exceeding a threshold and the method further comprises: setting up a subsequent fast cell and a radio bearer therein same as the current fast cell when the UE is moving on from the current fast cell to the subsequent fast cell and the measured moving speed of the UE exceeds the threshold; and releasing the radio bearer of the UE in the current fast cell after the UE leaves the current fast cell, and releasing the current fast cell if all the radio bearers are released in the current fast cell. a) when the measured moving speed of the UE exceeds a threshold, performing a handover from the normal cell to a first fast cell with a radio bearer set up in the first fast cell; b) when the UE is leaving the first fast cell for a current fast cell, adjacent to the first fast cell, setting up the same radio bearer at the current fast cell as the radio bearer set up at the first fast cell; c) Releasing the radio bearer at the first fast cell after the UE leaves the first fast cell; and d) Re-registering into an adjacent normal cell when the service connection is terminated, or handover to the adjacent normal cell from the current fast cell when the measured moving speed of the UE is below the threshold setting up a subsequent fast cell and a radio bearer therein same as the current fast cell when the UE is moving on from the current fast cell to the subsequent fast cell and the measured moving speed of the UE exceeds the threshold; and releasing the radio bearer of the UE in the current fast cell after the UE leaves the current fast cell, and releasing the current fast cell if all the radio bearers are released in the current fast cell.