mhurhangee/ep-ind-claims huggingface dataset:
Connector for connecting an electronic device, especially an electronic tracking device, to a container having a rounded cross-section, the connector comprising: a support plate with a substantially planar connection surface being configured to support the electronic device when the electronic device is mounted to the connector, at least one engagement wall extending from a first end of the support plate and being configured to engage a rim portion of a collar of the container, wherein the engagement wall and the support plate enclose an obtuse angle, wherein two mounting holes (74, 78) are located in the support plate, each mounting hole (74, 78) configured to receive a fixation element (85, 87) which protrudes from the support plate in a direction opposite to the connection surface and opposite to the engagement wall such that a distal end of the fixation element (85, 87) may abut against a connection region of the container between an end plate of the container and the collar and wherein the engagement wall is convexly curved for having a two-dimensional contact with the collar, and wherein at least one lateral protection wall (70, 72) extends from a third end of the support plate in a direction opposite to the direction of extension of the engagement wall. a support plate with a substantially planar connection surface being configured to support the electronic device when the electronic device is mounted to the connector, at least one engagement wall extending from a first end of the support plate and being configured to engage a rim portion of a collar of the container, wherein the engagement wall and the support plate enclose an obtuse angle, wherein two mounting holes (74, 78) are located in the support plate, each mounting hole (74, 78) configured to receive a fixation element (85, 87) which protrudes from the support plate in a direction opposite to the connection surface and opposite to the engagement wall such that a distal end of the fixation element (85, 87) may abut against a connection region of the container between an end plate of the container and the collar and wherein the engagement wall is convexly curved for having a two-dimensional contact with the collar, and wherein at least one lateral protection wall (70, 72) extends from a third end of the support plate in a direction opposite to the direction of extension of the engagement wall.
A routing method in an intelligent routing network system, wherein the method comprises: receiving, by a network node, a service data packet; searching, by the network node, a forwarding table according to an aggregation identifier used as an index, to obtain next-hop information, wherein the aggregation identifier is used to identify service data flows of one type, wherein the service data flows have a same network requirement type and a same destination, and the forwarding table comprises the aggregation identifier and the next-hop information corresponding to the aggregation identifier; and forwarding, by the network node, the service data packet according to the obtained next-hop information; wherein the aggregation identifier comprises a destination identifier and a network requirement type identifier, the network requirement type identifier is used to identify a network requirement type of the service data packet, and the network requirement type comprises one of the following: a delay-sensitive type, a packet loss-sensitive type, a jitter-sensitive type, a bandwidth-sensitive type, a delay + bandwidth-sensitive type and a packet loss + delay-sensitive type. receiving, by a network node, a service data packet; searching, by the network node, a forwarding table according to an aggregation identifier used as an index, to obtain next-hop information, wherein the aggregation identifier is used to identify service data flows of one type, wherein the service data flows have a same network requirement type and a same destination, and the forwarding table comprises the aggregation identifier and the next-hop information corresponding to the aggregation identifier; and forwarding, by the network node, the service data packet according to the obtained next-hop information; wherein the aggregation identifier comprises a destination identifier and a network requirement type identifier, the network requirement type identifier is used to identify a network requirement type of the service data packet, and the network requirement type comprises one of the following: a delay-sensitive type, a packet loss-sensitive type, a jitter-sensitive type, a bandwidth-sensitive type, a delay + bandwidth-sensitive type and a packet loss + delay-sensitive type.
A handle comprising a first tube, on which a grip is arranged, and a second tube that is axially spaced apart from the first tube, and furthermore comprising an elastic body of an elastomer as a first material with a first flexural rigidity and at least one reinforcing element of a second material with a second flexural rigidity, wherein the first flexural rigidity is smaller than the second flexural rigidity, wherein the reinforcing element is entirely or partially accommodated in the elastic body, wherein the elastic body has two opposite fastening ends, by means of which it is respectively fastened on a tube (2, 2'), wherein the elastic body has between both fastening ends a flexurally active axial length under the influence of a force acting upon a fastening end in an arbitrary radial direction, wherein the flexurally active axial length is a part of or the entire axial length, which is located between the tubes (2, 2') and defines the axial distance of both tubes (2, 2') from one another, and wherein the flexural rigidity is the degree of the radial excursion, which occurs when an approximately radially directed force is exerted upon one of its fastening ends in relation to the opposite fastening end, upon which no force is exerted, characterized in that the flexural rigidity of the unit consisting of the elastic body and the reinforcing element can be adjusted by varying the flexurally active axial length either - by varying the fastening depth of the fastening ends in the tubes (2, 2') such that the axial distance between both tubes (2, 2') is reduced or - by means of a sleeve that can be reversibly locked and moved from one fastening end to the other fastening end. - by varying the fastening depth of the fastening ends in the tubes (2, 2') such that the axial distance between both tubes (2, 2') is reduced or - by means of a sleeve that can be reversibly locked and moved from one fastening end to the other fastening end.
A leveling valve for discharging and supplying air from and to a plurality of utilization elements (205a, b), in particular pneumatic suspension bellows, the leveling valve comprising: a valve arrangement for directing air between a source of pressurized air, an exhaust port and said utilization elements, a supply port in fluid communication with the valve arrangement and the source of pressurized air, and an exhaust port having an exhaust air channel (a) for discharging exhaust air, wherein the exhaust port comprises at least one air-permeable damping element (b), which is at least partly positioned within the exhaust air channel (a) characterized in that the damping element (b) has the shape of a ring. a valve arrangement for directing air between a source of pressurized air, an exhaust port and said utilization elements, a supply port in fluid communication with the valve arrangement and the source of pressurized air, and an exhaust port having an exhaust air channel (a) for discharging exhaust air, wherein the exhaust port comprises at least one air-permeable damping element (b), which is at least partly positioned within the exhaust air channel (a) characterized in that the damping element (b) has the shape of a ring.
An imaging system for imaging anisotropic particles comprising: a light source configured to produce illumination light along an illumination path toward a target, the illumination path including a circularly polarizing filter and the illumination light being polarized according to a first polarization configuration; a target reflecting the illumination light along a collection path toward an imaging sensor wherein the target includes a substrate having a first reflecting surface and a transparent layer on the first reflecting surface forming a second reflecting surface spaced apart from the first reflecting surface such that the light reflected along the collection path includes an interference signal; the target including at least one anisotropic particle attached to the second reflecting surface of the substrate; an analyzer positioned in the collection path configured to selectively transmit light polarized according to the first polarization configuration that interacted with the at least one anisotropic particle to optimize the reflected light intensity received by the imaging sensor. a light source configured to produce illumination light along an illumination path toward a target, the illumination path including a circularly polarizing filter and the illumination light being polarized according to a first polarization configuration; a target reflecting the illumination light along a collection path toward an imaging sensor wherein the target includes a substrate having a first reflecting surface and a transparent layer on the first reflecting surface forming a second reflecting surface spaced apart from the first reflecting surface such that the light reflected along the collection path includes an interference signal; the target including at least one anisotropic particle attached to the second reflecting surface of the substrate; an analyzer positioned in the collection path configured to selectively transmit light polarized according to the first polarization configuration that interacted with the at least one anisotropic particle to optimize the reflected light intensity received by the imaging sensor.
A process for additive manufacturing an object comprising: forming a first structural layer comprising a plurality of sublayers (108, 110, 112), the first structural layer comprising a first void that extends partially through the first structural layer; forming a second structural layer comprising one or more sublayers, the second structural layer comprising a second void that extends fully through the second structural layer to a border between the first structural layer and the second structural layer, wherein the first void and the second void align to form a cross-load void across the border between the first and second structural layers; filling the cross-load void with a reinforcing material to form a cross-load member before proceeding to form a third structural layer; and forming the third structural layer. forming a first structural layer comprising a plurality of sublayers (108, 110, 112), the first structural layer comprising a first void that extends partially through the first structural layer; forming a second structural layer comprising one or more sublayers, the second structural layer comprising a second void that extends fully through the second structural layer to a border between the first structural layer and the second structural layer, wherein the first void and the second void align to form a cross-load void across the border between the first and second structural layers; filling the cross-load void with a reinforcing material to form a cross-load member before proceeding to form a third structural layer; and forming the third structural layer.
A method for separating hydrogen sulfide and ammonia, which comprises: introducing a sour water mixture of the hydrogen sulfide and the ammonia into a hydrogen sulfide stripper; introducing a stripping gas into the hydrogen sulfide stripper, wherein the stripping gas consists of carbon dioxide and a gas selected from Hydrogen, Helium, Neon, Argon, Krypton, Radon, diatomic nitrogen, methane and ethane; and separating most of the hydrogen sulfide and the ammonia in the sour water mixture using the stripping gas in the hydrogen sulfide stripper, which forms a hydrogen sulfide stripper overheads stream and a hydrogen sulfide stripper bottoms stream. introducing a sour water mixture of the hydrogen sulfide and the ammonia into a hydrogen sulfide stripper; introducing a stripping gas into the hydrogen sulfide stripper, wherein the stripping gas consists of carbon dioxide and a gas selected from Hydrogen, Helium, Neon, Argon, Krypton, Radon, diatomic nitrogen, methane and ethane; and separating most of the hydrogen sulfide and the ammonia in the sour water mixture using the stripping gas in the hydrogen sulfide stripper, which forms a hydrogen sulfide stripper overheads stream and a hydrogen sulfide stripper bottoms stream.
Method of producing molten iron in a blast furnace to which iron ore, metallurgical coke and fluxes are charged at its upper part and molten iron and slag are tapped from its lower part, said blast furnace having a plurality of tuyeres in its lower part for introducing an oxygen-containing gas for generating heat and reducing gases by combustion of the coke within said furnace characterized by: feeding oxygen instead of air through the tuyeres of said blast furnace; withdrawing a top gas stream from said blast furnace comprising CO, CO 2 and H 2; cleaning the top gas stream of dust and adjusting the volume ratio of H 2 /CO in the top gas to the range between 1.5 to 4 by reaction with water; cooling the resulting top gas stream to remove water therefrom; removing CO 2 from a portion of said cooled top gas stream forming a CO 2 - lean reducing gas stream, heating said reducing gas stream to a temperature above 850°C, and feeding said hot gas stream to said blast furnace at a point above said tuyeres contributing to the reduction of said iron ore to metallic iron. feeding oxygen instead of air through the tuyeres of said blast furnace; withdrawing a top gas stream from said blast furnace comprising CO, CO 2 and H 2; cleaning the top gas stream of dust and adjusting the volume ratio of H 2 /CO in the top gas to the range between 1.5 to 4 by reaction with water; cooling the resulting top gas stream to remove water therefrom; removing CO 2 from a portion of said cooled top gas stream forming a CO 2 - lean reducing gas stream, heating said reducing gas stream to a temperature above 850°C, and feeding said hot gas stream to said blast furnace at a point above said tuyeres contributing to the reduction of said iron ore to metallic iron.
A method of imparting electrical conductivity on an interlayer material, the method comprising: forming the interlayer material from at least one layer of a fabric of thermoplastic fibers; treating a surface of the interlayer material using an atmospheric-pressure plasma such that the surface of the interlayer undergoes a surface activation; and depositing a layer of conductive material on the surface of the interlayer material such that the layer of conductive material increases a conductivity of the interlayer material, the layer of conductive material comprising multiple different metal layers. forming the interlayer material from at least one layer of a fabric of thermoplastic fibers; treating a surface of the interlayer material using an atmospheric-pressure plasma such that the surface of the interlayer undergoes a surface activation; and depositing a layer of conductive material on the surface of the interlayer material such that the layer of conductive material increases a conductivity of the interlayer material, the layer of conductive material comprising multiple different metal layers.
Diode laser having a laser diode arrangement (2, 2a, 102, 102a) and having a laser optic for reshaping at least one laser beam bundle consisting of a plurality of laser beams (5, 107) respectively generated by emitters (4.1), wherein the laser diode arrangement (2, 2a, 102, 102a) has at least one laser bar extending in a slow axis (X axis) with emitters (4.1) offset with respect to one another and spaced apart from one another in said slow axis (X axis), having at least one plate fan (8, 111, 111a - 111e) arranged in the beam path of the laser beam bundle, having at least one fast-axis collimator (6, 106) provided in the beam path between the emitters (4.1) and the plate fan (8, 111, 111a - 111e), the fast-axis collimator (6, 106) being configured to collimate the laser beams (5, 107) in a fast axis (Y axis) oriented so as to be perpendicular to the slow axis (X axis) in order to shape an essentially narrow-band beam bundle from the laser beams (5, 107), wherein the plate fan (8, 111, 111a - 111e) immediately following the at least one fast-axis collimator (6, 106) is provided to shape the essentially narrow-band beam bundle further, the plate fan (8, 111, 111a - 111e) consisting of a plurality of plates (12, 112) made of a light-conducting material and turned with respect to one another about a common fan axis, which are offset in a direction perpendicular to their surface sides and arranged with their surface sides in planes, which respectively include a beam direction (Z axis) of the laser beams as well as the fast axis (Y axis) of the laser beams, wherein the plates (12, 112) respectively form a first flat plate-edge side (13, 113) for a beam entrance and, opposite thereto, a second flat plate-edge side (14, 14') for a beam exit, wherein the plates (12, 112) of the plate fan (8, 111, 111a - 111 e) are arranged such that a separate plate (12, 112) is respectively associated with the emitters (4.1) of one and the same laser bar or an emitter group of at most five emitters (4.1) of one and the same laser bar, wherein the laser beam of each emitter (4.1) collimated in the fast-axis collimator (6, 106) impinges the first flat plate-edge side (13, 113) facing this emitter (4.1) in the area of the fan axis, wherein the plate thickness of the plates (12, 112) is chosen so that the laser beams (5, 107) of each emitter (4.1) or of each emitter group pass through the plate (12, 112) associated with this emitter (4.1) or this emitter group without any reflection on the plate surface sides (12, 112), and wherein, for this purpose, the plates (12, 112) of the plate fan (8, 111, 111a - 111e) have a plate thickness that is at least the same as, but preferably greater than, a divergence that the laser beam (5, 107) emitted by the at least one of the respective emitters (4.1) or by the respective emitter group and passing through the corresponding plate (12, 112) comprises at the second plate-edge side (14, 114) in the slow axis (X axis).
A base band unit, BBU, in a wireless cellular heterogeneous network, the BBU being provided in a transmission node cluster, TNC, of transmission nodes, TNs, of neighbouring cells of the wireless cellular heterogeneous network, wherein the BBU comprises generic hierarchical precoding codebooks, CBs, each CB comprising cluster precoding matrices, CPMs, and each CPM is provided for a possible combination of active TNs within the TNC; wherein each CPM provided for a possible combination of active TNs within the TNC is constructed on the basis of precoding matrices, PMs, associated with the active TNs; wherein the CPMs having the same rank form a generic hierarchical precoding CB for the respective TNC; wherein the CPM of the TNC is a N x M matrix comprising the PMs of all active TNs of the TNC, wherein N is the number of TNs in the TNC and M is the number of supported global spatial layers in the TNC, with M ≤ N; wherein a rank R of the CPM of the TNC corresponds to the number of spatial layers that are active in the TNC, with R ≤ M ≤ N; wherein a number Z of all CPMs having the same rank and forming a generic hierarchical precoding CB for the respective TNC is given by: Z = N A = N ! N − A ! A !, wherein N is the number of all TNs in the TNC and A is the number of the active TNs in the TNC, wherein A is equal to R.
Vehicle with a load-carrying structure that is limited by end walls and side walls (2, 3) and is open at the top and a cover system to cover the load-carrying structure when in closed position, and uncover it when in open position, with the cover system comprising at least one roof segment (8, 9) that can be swivelled between closed position and open position using at least one swivel mechanism; the swivel mechanism - has at least one drive shaft, - the roof segment (8, 9) is rigidly attached to the drive shaft and - the drive shaft is coupled with a drive to turn the drive shaft, characterised in that - the drive shaft is rotatably secured to at least two swivel levers, with the swivel lever being able to be swivelled on a swivel axis, thus moving the drive shaft between its position on the upper longitudinal edge of one of the two side walls and a position that is laterally spaced from the side wall, and - the swivel axis is aligned with the upper longitudinal edge of one of the two side walls. - has at least one drive shaft, - the roof segment (8, 9) is rigidly attached to the drive shaft and - the drive shaft is coupled with a drive to turn the drive shaft, - the drive shaft is rotatably secured to at least two swivel levers, with the swivel lever being able to be swivelled on a swivel axis, thus moving the drive shaft between its position on the upper longitudinal edge of one of the two side walls and a position that is laterally spaced from the side wall, and - the swivel axis is aligned with the upper longitudinal edge of one of the two side walls.
A method, comprising generating suction within a suction device (1200, 2100, 2400, 2500, 4100, 4200, 4300, 4400, 4500); adjusting the suction so that a suction capacity of a liquid is adjusted while a suction capacity of a gas remains essentially constant characterized in that the method includes preventing backflow of the gas, a liquid, or the combination thereof by employing a backflow prevention valve, the backflow prevention valve including a sliding body including apertures and a diaphragm, wherein the suction device (1200, 2100, 2400, 2500, 4100, 4200, 4300, 4400, 4500) includes a suction assembly (2112, 2412) and the backflow prevention valve is configured to move within the suction assembly (2112, 2412) when the sliding body is acted upon by pressure transferred from a pressure source via the diaphragm to the sliding body, wherein the diaphragm is configured to block a flow in one direction through the apertures, while allowing a flow in the opposite direction through the apertures.
A high fatigue strength aluminum alloy comprising, in wt.%: Cu between 3.0 - 3.5%; Fe between 0 - 1.3%; Mg between 0.24 - 0.35%; Mn between 0 - 0.8%; Si between 6.5 - 12.0%; Sr between 0 - 0.025%; Ti between 0.05 - 0.2%; V between 0.20 - 0.35%; Zn between 0 - 3.0%; Zr between 0.2 - 0.4%; maximum 0.5% other elements; and balance Al, wherein the alloy defines a microstructure having a matrix with the Zr and the V in solid solution after solidification, with solid solution Zr of at least 0.16% after heat treatment and solid solution V of at least 0.20% after heat treatment, and the Cu and the Mg dissolved into the matrix during the heat treatment and subsequently precipitated during the heat treatment. Cu between 3.0 - 3.5%; Fe between 0 - 1.3%; Mg between 0.24 - 0.35%; Mn between 0 - 0.8%; Si between 6.5 - 12.0%; Sr between 0 - 0.025%; Ti between 0.05 - 0.2%; V between 0.20 - 0.35%; Zn between 0 - 3.0%; Zr between 0.2 - 0.4%; maximum 0.5% other elements; and balance Al,