mhurhangee/ep-ind-claims huggingface dataset:
A high-frequency radiator, wherein the high-frequency radiator is a dual-polarized radiator, and the dual-polarized radiator comprises two plus and minus 45-degree single-polarized radiators (10, 20), and the high-frequency radiator further comprises a first dielectric plate and a second dielectric plate, wherein the single-polarized radiator comprises a radiation arm, a balun, a feeder circuit, a filter, and a ground plane, wherein the radiation arm and the balun are electrically connected; the feeder circuit and the balun are separately disposed on two opposing surfaces of the first dielectric plate that is placed vertically; the ground plane is disposed on a downward surface of the second dielectric plate that is placed horizontally; the first dielectric plate is vertically disposed on the second dielectric plate; and the filter comprises a capacitor branch and an inductor branch, wherein the inductor branch is disposed on a same surface of the first dielectric plate as the balun, two ends of the inductor branch are respectively electrically connected to the balun and the ground plane, and the capacitor branch is electrically connected to the balun and coupled to the ground plane; the feeder circuit is configured to feed the high-frequency radiator; and the filter is configured to weaken an impact of the high-frequency radiator on a low-frequency radiator, wherein a highest frequency of an operating frequency band of the low-frequency radiator is lower than a lowest frequency of an operating frequency band of the high-frequency radiator. the single-polarized radiator comprises a radiation arm, a balun, a feeder circuit, a filter, and a ground plane, wherein the radiation arm and the balun are electrically connected; the feeder circuit and the balun are separately disposed on two opposing surfaces of the first dielectric plate that is placed vertically; the ground plane is disposed on a downward surface of the second dielectric plate that is placed horizontally; the first dielectric plate is vertically disposed on the second dielectric plate; and the filter comprises a capacitor branch and an inductor branch, wherein the inductor branch is disposed on a same surface of the first dielectric plate as the balun, two ends of the inductor branch are respectively electrically connected to the balun and the ground plane, and the capacitor branch is electrically connected to the balun and coupled to the ground plane; the feeder circuit is configured to feed the high-frequency radiator; and the filter is configured to weaken an impact of the high-frequency radiator on a low-frequency radiator, wherein a highest frequency of an operating frequency band of the low-frequency radiator is lower than a lowest frequency of an operating frequency band of the high-frequency radiator.
Polyester or polyolefin compositions, characterized in that they have been doped with zinc salt/2-oxazoline complexes and thereby bioactively functionalized, the zinc is present in ionic form and the zinc ions are molecularly distributed in the polymer composition, wherein the content of the zinc ions is in the range from 20 ppm to 10 000 ppm, based on the total weight of the composition.
A vehicle comprising: - a centre track fixedly mounted to the vehicle for guiding a sliding door; - the centre track comprising a first zone, a second zone, and a third zone, each of the first, second and third zones (z1, z2, z3) being substantially straight; - the sliding door being movably mounted to the centre track such that the sliding door can move between an open position and a closed position; characterized in that - the vehicle further comprises a wedge shaped support part comprising a first zone having a constant thickness along the length of the first zone, and a second zone having a monotonically decreasing thickness along the length of the second zone; - the centre track further comprising a first bend between the first and the second zone (z1, z2) defining a first angle (α1), and a second bend between the second and third zone (z2, z3) defining a second angle (α2), the first angle (α1) being an angle in the range from 160° to 178°, the second angle (α2) being an angle in the range from 182° to 200°; - the support part being mounted between an outer rear surface of the vehicle and the centre track in such a way that the first zone of the centre track is mounted to the first zone of the support part, and the second zone of the centre track is mounted to the second zone of the support part, and the third zone of the centre track is directly mounted to the outer rear surface of the vehicle. - a centre track fixedly mounted to the vehicle for guiding a sliding door; - the centre track comprising a first zone, a second zone, and a third zone, each of the first, second and third zones (z1, z2, z3) being substantially straight; - the sliding door being movably mounted to the centre track such that the sliding door can move between an open position and a closed position; - the vehicle further comprises a wedge shaped support part comprising a first zone having a constant thickness along the length of the first zone, and a second zone having a monotonically decreasing thickness along the length of the second zone; - the centre track further comprising a first bend between the first and the second zone (z1, z2) defining a first angle (α1), and a second bend between the second and third zone (z2, z3) defining a second angle (α2), the first angle (α1) being an angle in the range from 160° to 178°, the second angle (α2) being an angle in the range from 182° to 200°; - the support part being mounted between an outer rear surface of the vehicle and the centre track in such a way that the first zone of the centre track is mounted to the first zone of the support part, and the second zone of the centre track is mounted to the second zone of the support part, and the third zone of the centre track is directly mounted to the outer rear surface of the vehicle.
A feedstock for selective laser sintering or melting comprising: metal particles; and a coating formed on a surface of the metal particles; wherein the coating comprises non-agglomerated carbon nanotubes; the coating is substantially free of any dispersing agent; the coating has a coating thickness; and wherein the coating thickness is in the range of 10 nanometers to 100 micrometers. metal particles; and a coating formed on a surface of the metal particles; wherein the coating comprises non-agglomerated carbon nanotubes; the coating is substantially free of any dispersing agent; the coating has a coating thickness; and wherein the coating thickness is in the range of 10 nanometers to 100 micrometers.
A textured nonwoven web having a plurality of fibers, a generally planar first region and a plurality of discrete integral second regions, the generally planar first region comprising a first and a second surface (34, 36), the plurality of discrete integral second regions comprising protrusions extending outward from the first surface of said nonwoven material and openings in the second surface of the nonwoven material, said protrusions being formed from said fibers, wherein the protrusions comprise a base proximate the first surface of said nonwoven material, an opposed distal end extending outward from the base, sidewalls between said base and said distal end of said protrusion, and a cap comprising at least a portion of the sidewalls and the distal end of the protrusions, wherein each of said sidewalls and distal ends have inner surfaces (56A, 54A) and opposed outer surfaces (56B, 54B), wherein multiple fibers extend from the base of the protrusions to the distal end of the protrusions, and contribute to form a portion of the sides and cap of a protrusion, and said fibers at least substantially surround the sides of the protrusions, wherein the inner surfaces of the sidewalls define a base opening at the base of the protrusion, and wherein a first composition is disposed on the textured nonwoven web in a portion of the plurality of discrete integral second regions, wherein the first composition is more hydrophilic than the plurality of fibers in the first region as measured by the SEM method for determining contact angle.
Exhaust gas after treatment system for a diesel cycle internal combustion engine, the after treatment system comprising: - an exhaust line to channel exhaust gas from said engine to an external environment; - a first particulate filter and a second particulate filter arranged in series along said exhaust line; wherein the first particulate filter has a filtration efficiency and/or a pore size chosen so as to trap and collect soot flowing out of the combustion engine and to let solid particles having size between 10 and 23 nm pass through the first particulate filter, and wherein the second particulate filter, within a period of usage of 100 hours, has a filtration efficiency that is higher than 99,5% to trap and collect solid particles having size between 10 and 23 nm, is arranged downstream of said first particulate filter, considering the exhaust gas direction in said exhaust line, and is configured to be replaced, or to be temporary removed from the exhaust line by maintenance personnel so as to discharge and dispose the collected solid particles. - an exhaust line to channel exhaust gas from said engine to an external environment; - a first particulate filter and a second particulate filter arranged in series along said exhaust line;
A work machine, comprising: a motor comprising a rotary shaft; a bearing rotatably supporting the rotary shaft; a motor housing part housing the motor; and a battery pack for supplying power to the motor; wherein the motor housing part is provided with a battery attachment/detachment part to which the battery pack is attached/detached, the battery attachment/detachment part comprises two rails (107, 207) engaged with the battery pack, the motor housing part is divisible into at least two segments (100, 200) in an axial direction of the rotary shaft, one of the two rails (107, 207) is provided in one of the two segments (100, 200), and the other one of the two rails (107, 207) is provided in the other of the two segments (100, 200), and the work machine is characterized in that at least one of the two segments (100, 200) is configured to form an indivisible integral structure and has a bearing holding part which supports the bearing, and the bearing holding part is configured to be indivisible. a motor comprising a rotary shaft; a bearing rotatably supporting the rotary shaft; a motor housing part housing the motor; and a battery pack for supplying power to the motor; wherein the motor housing part is provided with a battery attachment/detachment part to which the battery pack is attached/detached, the battery attachment/detachment part comprises two rails (107, 207) engaged with the battery pack, the motor housing part is divisible into at least two segments (100, 200) in an axial direction of the rotary shaft, one of the two rails (107, 207) is provided in one of the two segments (100, 200), and the other one of the two rails (107, 207) is provided in the other of the two segments (100, 200), and the work machine is characterized in that at least one of the two segments (100, 200) is configured to form an indivisible integral structure and has a bearing holding part which supports the bearing, and the bearing holding part is configured to be indivisible.
A cap seal (10, 20) mounted to an unsealing part of a container and to a neck thereof extending from the unsealing part, comprising: a cylindrical member (11, 21) covering a side face of the container; and a top face including an IC tag and connected to a first end that is one of two axial ends of the cylindrical member to close the cylindrical member at the first end, wherein the cylindrical member includes a metal portion (12, 22) disposed on the side face of the container, and at least one insulating portion (13, S) extending from the first end, the cylindrical member forming a closed annular shape in a circumferential direction of the cylindrical member, characterised in that the metal portion (12, 22) and the insulating portion (13, S) are joined to each other so that conduction in the circumferential direction of the cylindrical member (11, 21) is interrupted by the insulating portion (13, S). a cylindrical member (11, 21) covering a side face of the container; and a top face including an IC tag and connected to a first end that is one of two axial ends of the cylindrical member to close the cylindrical member at the first end, wherein the cylindrical member includes a metal portion (12, 22) disposed on the side face of the container, and at least one insulating portion (13, S) extending from the first end, the cylindrical member forming a closed annular shape in a circumferential direction of the cylindrical member, characterised in that the metal portion (12, 22) and the insulating portion (13, S) are joined to each other so that conduction in the circumferential direction of the cylindrical member (11, 21) is interrupted by the insulating portion (13, S).
A process for handling products, the products being rolls of paper or the like and especially rolls of paper for sanitary and/or household use, said products being obtained from at least one respective log by a plurality of transversal cuts, the process being characterized in that the products obtained from one respective log (13, 113) are divided into a plurality of batches (13a, 13b; 113a, 113b, 113d) of products (11a, 11b; 111a, 111b, 111d), each product batch (13a, 13b; 113a, 113b, 113d) containing more than one of said products (11a, 11b; 111a, 111b, 111d), in that it comprises a step, performed on the conveying means, of separating the batches (13a, 13b; 113a, 113b, 113d) of products (11a, 11b; 111a, 111b, 111d) cut from the single log (13, 113); and in that the products in each batch form respective trains of products transported collectively along the conveying line or means close to each other.
A collision mitigation apparatus comprising: an object detecting section (S100, S105, S110, S115, S120, S315; 21, 22, 200, 205, 210, 215, L1, L2) for detecting a collision object (410; 430) present in front of an own vehicle (400; 420) on which the collision mitigation apparatus is mounted; a drive assisting section (S335; 10, 30) that performs drive assist for avoiding a collision between the collision object (410; 430) detected by the object detecting section (S100, S105, S110, S115, S120, S315; 21, 22, 200, 205, 210, 215, L1, L2) and the own vehicle (400; 420), or mitigates damage to the own vehicle (400; 420) due to the collision; an operation state detecting section (S305; 10, 23) for detecting an operation state of the own vehicle (400; 420); a timing setting section (S325; 10) for setting start timing to start the drive assist by the drive assisting section (S335; 10, 30) in accordance with the operation state detected by the operation state detecting section (S305; 10, 23); and characterized in that the timing setting section sets the start timing late when the operation state detecting section (S305; 10, 23) detects that the own vehicle (400; 420) is in a not-straight running state where the own vehicle (400; 420) is operated so as not to run straight compared to when the operation state detecting section (S305; 10, 23) detects that the own vehicle (400; 420) is in a straight running state where the own vehicle (400; 420) is operated so as to run straight. an object detecting section (S100, S105, S110, S115, S120, S315; 21, 22, 200, 205, 210, 215, L1, L2) for detecting a collision object (410; 430) present in front of an own vehicle (400; 420) on which the collision mitigation apparatus is mounted; a drive assisting section (S335; 10, 30) that performs drive assist for avoiding a collision between the collision object (410; 430) detected by the object detecting section (S100, S105, S110, S115, S120, S315; 21, 22, 200, 205, 210, 215, L1, L2) and the own vehicle (400; 420), or mitigates damage to the own vehicle (400; 420) due to the collision; an operation state detecting section (S305; 10, 23) for detecting an operation state of the own vehicle (400; 420); a timing setting section (S325; 10) for setting start timing to start the drive assist by the drive assisting section (S335; 10, 30) in accordance with the operation state detected by the operation state detecting section (S305; 10, 23); and characterized in that the timing setting section sets the start timing late when the operation state detecting section (S305; 10, 23) detects that the own vehicle (400; 420) is in a not-straight running state where the own vehicle (400; 420) is operated so as not to run straight compared to when the operation state detecting section (S305; 10, 23) detects that the own vehicle (400; 420) is in a straight running state where the own vehicle (400; 420) is operated so as to run straight.
A mixing system for mixing soil with an additive in a batch mode, the mixing system comprising: - a moveable mixing device for mixing the soil with an additive, and means for moving said mixing device; - a cargo body positioning area for receiving a cargo body containing a load of soil; - the cargo body positioning area and the means for moving the mixing device being configured in position such that the mixing device can be positioned at least partly in the soil through an open side of the cargo body in said cargo body for mixing the soil with the additive; - the mixing system furthermore comprising an information obtaining means for, when the cargo body containing the load of soil is positioned in the cargo body positioning area, automated obtaining information regarding at least one characteristic of the load of the cargo body and information regarding the cargo body so as to allow the mixing system to mix the soil with the additive, taking into account said information regarding at least one characteristic of the load of the cargo body, characterized in that the information obtaining means is adapted for obtaining information about the inner dimensions of the cargo body and in that the mixing system comprises a control unit for controlling the means for moving the mixing device such that it is moved substantially through the entire space defined by the cargo body. - a moveable mixing device for mixing the soil with an additive, and means for moving said mixing device; - a cargo body positioning area for receiving a cargo body containing a load of soil; - the cargo body positioning area and the means for moving the mixing device being configured in position such that the mixing device can be positioned at least partly in the soil through an open side of the cargo body in said cargo body for mixing the soil with the additive; - the mixing system furthermore comprising an information obtaining means for, when the cargo body containing the load of soil is positioned in the cargo body positioning area, automated obtaining information regarding at least one characteristic of the load of the cargo body and information regarding the cargo body so as to allow the mixing system to mix the soil with the additive, taking into account said information regarding at least one characteristic of the load of the cargo body, characterized in that the information obtaining means is adapted for obtaining information about the inner dimensions of the cargo body and in that the mixing system comprises a control unit for controlling the means for moving the mixing device such that it is moved substantially through the entire space defined by the cargo body.
A method of manufacturing an ornament comprising: providing a pair of continuous regions facing one another in a flexible sheet; forming a plurality of slits between the pair of continuous regions to form a plurality of ornament strips, wherein the plurality of ornament strips are separated from each other while both ends of the plurality of ornament strips are integrally formed with the pair of continuous regions; and reversing the plurality of ornament strips with respect to the pair of continuous regions to place the pair of continuous regions into the inside of the plurality of ornament strips so that one surface of each of the pair of continuous regions faces one surface of each of the plurality of ornament strips and the plurality of ornament strips radiate outward to form into an arc; characterized in that each of the pair of continuous regions is coupled to be formed into a ring, wherein the rings are formed such that each ring has a central axis extending in the same direction, wherein the continuous regions of the pair of continuous regions are spaced from one another in the direction in which the central axis extends. providing a pair of continuous regions facing one another in a flexible sheet; forming a plurality of slits between the pair of continuous regions to form a plurality of ornament strips, wherein the plurality of ornament strips are separated from each other while both ends of the plurality of ornament strips are integrally formed with the pair of continuous regions; and reversing the plurality of ornament strips with respect to the pair of continuous regions to place the pair of continuous regions into the inside of the plurality of ornament strips so that one surface of each of the pair of continuous regions faces one surface of each of the plurality of ornament strips and the plurality of ornament strips radiate outward to form into an arc; characterized in that each of the pair of continuous regions is coupled to be formed into a ring, wherein the rings are formed such that each ring has a central axis extending in the same direction, wherein the continuous regions of the pair of continuous regions are spaced from one another in the direction in which the central axis extends.
A composition for formation of an extrusion-resistant sealing member, comprising: an aromatic polymer; and a crosslinking compound, wherein the crosslinking compound has a structure according to formula below: wherein A is an arene moiety having a molecular weight of less than 10,000 g/mol, R 1 is selected from a group consisting of hydroxide (-OH), amine (-NH 2), halide, ether, ester, or amide, and x = 2.0 to 6.0. an aromatic polymer; and a crosslinking compound, wherein the crosslinking compound has a structure according to formula below: wherein A is an arene moiety having a molecular weight of less than 10,000 g/mol, R 1 is selected from a group consisting of hydroxide (-OH), amine (-NH 2), halide, ether, ester, or amide, and x = 2.0 to 6.0.
A method, performed by a network node of a wireless network, for scheduling user equipment, UEs, served by the network node, the method comprising: transmitting, to a UE, a configuration including one or more time-domain resource allocations, TDRAs, wherein: the one or more TDRAs each include a first scheduling offset and a second scheduling offset between a scheduling message and a signal or channel scheduled via the scheduling message, and a second minimum value of the second scheduling offsets is greater than a first minimum value of the first scheduling offsets; and subsequently transmitting to the UE: an indication of whether the UE should use the first scheduling offsets or the second scheduling offsets, and a first scheduling message that schedules a first signal or channel for the UE according to the indication. the one or more TDRAs each include a first scheduling offset and a second scheduling offset between a scheduling message and a signal or channel scheduled via the scheduling message, and a second minimum value of the second scheduling offsets is greater than a first minimum value of the first scheduling offsets; and an indication of whether the UE should use the first scheduling offsets or the second scheduling offsets, and a first scheduling message that schedules a first signal or channel for the UE according to the indication.