mhurhangee/ep-ind-claims huggingface dataset:
Use of compositions comprising, for every A) 100 parts by mass of nylon-6, B) 30 to 160 parts by mass of HR glass fibres made of E glass and having an average diameter in the range of 10 +/- 0.5 μm and an average length in the range from 3 to 4.5 mm, where the length and diameter of the individual fibres are determined semi-automatically using scanning electron micrographs by means of a graphics tablet and computer-assisted data collection, and C) 0.03 to 0.2 part by mass of at least one metal compound of the metals Cu, Fe, Ce or Mn, for increasing the operational stability of vibration components, with the proviso that not more than 10 parts by mass of impact modifier, and/or not more than 10 parts by mass of flow improver, and/or not more than 10 parts by mass of flame retardancy additive, and/or not more than 0.5 part by mass of hydrolysed fatty acid as demoulding agent are present, and HR glass fibres to be used as component B) are injection-moulded with nylon-6,6 to give flat specimens according to DIN EN ISO 180 1-U of nominal size 80 mm • 10 mm • 4 mm and, after storage in an autoclave at 130°C/about 2 bar for 1000 h, in a 1:1 mixture of water and ethylene glycol, have an Izod impact resistance to be determined according to ISO180-1U at 23 +/- 2°C of at least 12 kJ/m 2. A) 100 parts by mass of nylon-6, B) 30 to 160 parts by mass of HR glass fibres made of E glass and having an average diameter in the range of 10 +/- 0.5 μm and an average length in the range from 3 to 4.5 mm, where the length and diameter of the individual fibres are determined semi-automatically using scanning electron micrographs by means of a graphics tablet and computer-assisted data collection, and C) 0.03 to 0.2 part by mass of at least one metal compound of the metals Cu, Fe, Ce or Mn,
A method comprising: determining, by a wireless device, that a physical uplink shared channel, PUSCH, duration of a configured uplink grant of a bundle of a configured uplink grant overlaps with a transmission of a message A, MsgA, payload of a two-step random-access procedure of a cell; and based on the determining, ignoring the configured uplink grant by not transmitting via a first PUSCH resource of the configured uplink grant. determining, by a wireless device, that a physical uplink shared channel, PUSCH, duration of a configured uplink grant of a bundle of a configured uplink grant overlaps with a transmission of a message A, MsgA, payload of a two-step random-access procedure of a cell; and based on the determining, ignoring the configured uplink grant by not transmitting via a first PUSCH resource of the configured uplink grant.
Heavy-duty lift truck which is designed as a mast-based apparatus having a mast, wherein a load picking-up means is disposed so that it can be raised and lowered on the mast and the heavy-duty lift truck is arranged at least for a maximum load capacity of 8t, wherein the heavy-duty lift truck comprises a power train with a travelling drive, wherein the travelling drive comprises an electric drive unit, characterised in that the electric drive unit comprises an assembly with a direct voltage supply bus, an inverter connected thereto, a braking resistor connected to the inverter and an electric motor which can be actuated via the inverter and the electric motor is drivingly connected to a driving axle of the heavy-duty lift truck.
Arrangement comprising a printed circuit board, a plug connector and at least one ferrite core which is associated with the said plug connector, wherein the plug connector has a plurality of line elements (20 a-d) with first contact devices (22 a-d) and second contact devices (24 a-d), these line elements (20 a-d) being arranged in relation to one another by means of an insulating shaped body, being electrically insulated from one another and partially surrounded by said insulating shaped body, wherein the insulating shaped body clears first sections (26 a-d) of the line elements (20 a-d) and, in this region of the plug connector, at least two adjacent first sections (26 a-d) of line elements (20 a-d) are surrounded by a ferrite core which bears at least partially directly against the first sections (26 a-d) of the line elements (20 a-d), and wherein the first contact devices (22 a-d) are electrically conductively connected to third contact devices (10 a-d) of the printed circuit board, and also the second contact devices (24 a-d) form a plug or a plug sleeve, characterized in that the insulating shaped body is designed with a cutout, wherein the cutout clears a region between the insulating shaped body and the printed circuit board adjacent to the first contact devices (22 a-d), wherein the ferrite core does not surround all of the line elements (20 a-d) and the insulating shaped body is designed with the cutout in such a way that the position of the ferrite core in relation to the first contact devices (22 a-d) can be freely determined during the construction of the arrangement.
A process for the preparation of a polyolefin polymer by continuously polymerizing one or more olefin monomers in suspension at temperatures of from 40°C to 120°C and pressures of from 0.1 to 10 MPa in the presence of a polymerization catalyst in at least one polymerization reactor, comprising a) withdrawing a suspension of solid polyolefin particles in a suspension medium from the polymerization reactor, wherein the suspension has a temperature of from 65°C to 120°C; b) feeding the suspension withdrawn from the polymerization reactor to a moderating vessel; c) keeping the suspension in the moderating vessel at a temperature of from 60°C to 85°C for a time sufficiently long that the mean residence time of the suspension in the moderating vessel is at least 5 min; d) withdrawing suspension from the moderating vessel; e) cooling the suspension withdrawn from the moderating vessel to a temperature of from 20°C to 55°C; and f) mechanically separating the solid polyolefin particles from the liquid suspension medium, wherein the suspension in the moderating vessel is cooled by returning a part of the suspension cooled in step e) to the moderating vessel. a) withdrawing a suspension of solid polyolefin particles in a suspension medium from the polymerization reactor, wherein the suspension has a temperature of from 65°C to 120°C; b) feeding the suspension withdrawn from the polymerization reactor to a moderating vessel; c) keeping the suspension in the moderating vessel at a temperature of from 60°C to 85°C for a time sufficiently long that the mean residence time of the suspension in the moderating vessel is at least 5 min; d) withdrawing suspension from the moderating vessel; e) cooling the suspension withdrawn from the moderating vessel to a temperature of from 20°C to 55°C; and f) mechanically separating the solid polyolefin particles from the liquid suspension medium,
Rotor for a pump, having a shaft, a ring (100; 200) arranged on the shaft, and a hub, wherein the ring has at least one first axial end face (111; 211) and at least one second axial end face (122; 222) spaced apart therefrom in the circumferential direction, onto which the hub is respectively cast, wherein these two end faces moulded into the hub are arranged in mutually opposite axial depressions, characterized in that the at least one first end face is arranged axially deeper in the depth direction of the axial depression in which it is arranged than the at least one second end face.
A portable shelter assembly including: a support; and an expandable shelter for being supported by the support and expanding to shelter at least one person, the shelter including ribs extending from the support, each rib including: one or more proximal elements (504a, 504b) pivotally mounted to the support, and a distal element extending from the proximal elements (504a, 504b) and configured to move outwardly to expand the shelter when the proximal elements (504a, 504b) pivot in a first direction; characterized in that the ribs are extendable independently, one at a time. a support; and an expandable shelter for being supported by the support and expanding to shelter at least one person, the shelter including ribs extending from the support, each rib including: one or more proximal elements (504a, 504b) pivotally mounted to the support, and a distal element extending from the proximal elements (504a, 504b) and configured to move outwardly to expand the shelter when the proximal elements (504a, 504b) pivot in a first direction; one or more proximal elements (504a, 504b) pivotally mounted to the support, and a distal element extending from the proximal elements (504a, 504b) and configured to move outwardly to expand the shelter when the proximal elements (504a, 504b) pivot in a first direction; characterized in that the ribs are extendable independently, one at a time.
A positive electrode for a lithium secondary battery, comprising: a first positive electrode active material including a lithium cobalt-based oxide; and a second positive electrode active material including a lithium composite transition metal oxide containing at least two selected from the group consisting of nickel (Ni), cobalt (Co), and manganese (Mn), wherein the second positive electrode active material has a single crystal size of 180 to 800 nm, and wherein, when the state of charge of the first positive electrode active material in which the voltage of the lithium secondary battery reaches a constant voltage at 1 C-rate is referred to as SOC 1, and the state of charge of the second positive electrode active material in which the voltage of the battery reaches a constant voltage at 1 C-rate is referred to as SOC 2, the SOC 1 and the SOC 2 satisfy the relationship represented by Equation 1 below: SOC 1 < SOC 2 < 1.1 × SOC 1 a first positive electrode active material including a lithium cobalt-based oxide; and a second positive electrode active material including a lithium composite transition metal oxide containing at least two selected from the group consisting of nickel (Ni), cobalt (Co), and manganese (Mn), wherein the second positive electrode active material has a single crystal size of 180 to 800 nm, and wherein, when the state of charge of the first positive electrode active material in which the voltage of the lithium secondary battery reaches a constant voltage at 1 C-rate is referred to as SOC 1, and the state of charge of the second positive electrode active material in which the voltage of the battery reaches a constant voltage at 1 C-rate is referred to as SOC 2, the SOC 1 and the SOC 2 satisfy the relationship represented by Equation 1 below: SOC 1 < SOC 2 < 1.1 × SOC 1
A particulate water absorbing agent having a polyacrylic acid (salt)-based water-absorbing resin as a main component, being surface-crosslinked and satisfying physical properties to below, wherein the polyacrylic acid (salt) is a polymer that contains, as a main component, repeating units constituted by an acrylic acid, a salt thereof, or a combination thereof, and wherein the particulate water absorbing agent is obtained by a method of carrying out thin-layer polymerization involving use of an aqueous monomer solution containing a monomer at a concentration of not less than 35% by weight (Method 1) or a method of carrying out foaming polymerization under a pressure of not more than 95 kPa (Method 2): a proportion of particles with a particle diameter of not less than 150 μm and less than 850 μm is not less than 90% by weight; an elastic modulus index of particles with a particle diameter of not less than 500 μm and less than 600 μm is not less than 5500, wherein the elastic modulus index is determined in accordance with the Examples section of the description; and a recovery rate defined as Rec.CRC/CRC is 1.05 to 1.20, wherein Rec.CRC and CRC are determined in accordance with the Examples section of the description. a proportion of particles with a particle diameter of not less than 150 μm and less than 850 μm is not less than 90% by weight; an elastic modulus index of particles with a particle diameter of not less than 500 μm and less than 600 μm is not less than 5500, wherein the elastic modulus index is determined in accordance with the Examples section of the description; and a recovery rate defined as Rec.CRC/CRC is 1.05 to 1.20, wherein Rec.CRC and CRC are determined in accordance with the Examples section of the description.
A handover processing method, comprising: receiving, by a target base station, a handover request message sent by a first source base station, wherein the handover request message is used for making a request for a handover of a user equipment from the first source base station and a second source base station to the target base station; and sending, by the target base station, a handover request acknowledge message to the first source base station, wherein the handover request acknowledge message is used for indicating that the target base station accepts the handover of the user equipment from the first source base station and the second source base station to the target base station, receiving, by the target base station, the data and/or signaling of the user equipment corresponding to the second source base station, sent by the first source base station. receiving, by a target base station, a handover request message sent by a first source base station, wherein the handover request message is used for making a request for a handover of a user equipment from the first source base station and a second source base station to the target base station; and sending, by the target base station, a handover request acknowledge message to the first source base station, wherein the handover request acknowledge message is used for indicating that the target base station accepts the handover of the user equipment from the first source base station and the second source base station to the target base station, receiving, by the target base station, the data and/or signaling of the user equipment corresponding to the second source base station, sent by the first source base station.
A communication apparatus for receiving system information in a wireless communication system supporting coverage enhancement comprising: a receiver which is configured to receive the system information; and a control processor which is configured to perform cell selection or reselection based on the system information; characterized in that the receiver is configured to: receive the system information including information elements common for different coverage enhancement levels and one or more information elements specific for the different coverage enhancement levels. a receiver which is configured to receive the system information; and a control processor which is configured to perform cell selection or reselection based on the system information; characterized in that the receiver is configured to: receive the system information including information elements common for different coverage enhancement levels and one or more information elements specific for the different coverage enhancement levels.
A nozzle for a foreign matter removing apparatus at a track branch mounted at a track branch of rails so as to remove foreign matters having dropped between rails by injecting compressed air, the nozzle for a foreign matter removing apparatus at a track branch comprising: an injection housing of a conical trapezoid; one or multiple slits formed in a side surface of the injection housing so as to inject the compressed air; characterised in that the nozzle further comprises a guide unit for guiding the compressed air to the one or multiple slits, the guide unit being disposed between a compressed air introduction port of the injection housing and a position before the one or multiple slits, wherein: the guide unit has conical shape. an injection housing of a conical trapezoid; one or multiple slits formed in a side surface of the injection housing so as to inject the compressed air; characterised in that the nozzle further comprises a guide unit for guiding the compressed air to the one or multiple slits, the guide unit being disposed between a compressed air introduction port of the injection housing and a position before the one or multiple slits, wherein: the guide unit has conical shape.
Snowsports assembly, characterized in that it comprises: - a sliding board comprising a sliding base; - an ascent device removably secured to the sliding board, comprising: • a forward-biased strip having an elongate strip provided with a first face that can be pressed against the base of the board and a second forward-biased face that is designed to come into contact with the snow; • a toe piece connected to the forward-biased strip; - a boot guided, by the toe piece, so as to be able to pivot about an axis transverse to the sliding board. - a sliding board comprising a sliding base; - an ascent device removably secured to the sliding board, comprising: • a forward-biased strip having an elongate strip provided with a first face that can be pressed against the base of the board and a second forward-biased face that is designed to come into contact with the snow; • a toe piece connected to the forward-biased strip; • a forward-biased strip having an elongate strip provided with a first face that can be pressed against the base of the board and a second forward-biased face that is designed to come into contact with the snow; • a toe piece connected to the forward-biased strip; - a boot guided, by the toe piece, so as to be able to pivot about an axis transverse to the sliding board.
Method for guiding an individual in an environment comprising at least one actuator able to be controlled remotely and designed to output acoustic or visual information, and a set of individual-presence sensors able to transmit data remotely, the sensors being able to detect the presence of an individual without the individual performing a deliberate action to signal their presence, the method being implemented by a computer and comprising: - based on a current point from among a starting point and a position of the individual in the environment as estimated based on the sensors, and on a destination point of the individual in the environment, and on a digital model of the environment comprising the location of each actuator, determining a path within the environment connecting the current point and the destination point, - based on the determined path, determining a set of actuators located on the path, comprising implementing the following for each actuator in the environment: ∘ identifying the point (P c) of the path closest to the actuator, ∘ implementing, in the model of the environment, ray tracing between the actuator and the closest point of the path, and ∘ adding the actuator to the set if no obstacle is present between the actuator and the closest point of the path, and - outputting a command to activate at least one actuator of the set so as to guide the individual along the path. - based on a current point from among a starting point and a position of the individual in the environment as estimated based on the sensors, and on a destination point of the individual in the environment, and on a digital model of the environment comprising the location of each actuator, determining a path within the environment connecting the current point and the destination point, - based on the determined path, determining a set of actuators located on the path, comprising implementing the following for each actuator in the environment: ∘ identifying the point (P c) of the path closest to the actuator, ∘ implementing, in the model of the environment, ray tracing between the actuator and the closest point of the path, and ∘ adding the actuator to the set if no obstacle is present between the actuator and the closest point of the path, and ∘ identifying the point (P c) of the path closest to the actuator, ∘ implementing, in the model of the environment, ray tracing between the actuator and the closest point of the path, and ∘ adding the actuator to the set if no obstacle is present between the actuator and the closest point of the path, and - outputting a command to activate at least one actuator of the set so as to guide the individual along the path.
An isolator system, comprising: a workspace isolated from an exterior space by a partition; and a glove provided to the partition so that an external surface thereof is exposed to the workspace and an internal surface thereof communicates with the exterior space, wherein the glove includes, at a tip-end part thereof, an operating part provided inside the glove, and a hand part provided so as to be exposed to the workspace, wherein the hand part comprises pawl parts for gripping a workpiece, and wherein the operating part is configured so as to operate the pawl parts when a grip part of an arm of a robot grips the operating part. a workspace isolated from an exterior space by a partition; and a glove provided to the partition so that an external surface thereof is exposed to the workspace and an internal surface thereof communicates with the exterior space, wherein the glove includes, at a tip-end part thereof, an operating part provided inside the glove, and a hand part provided so as to be exposed to the workspace, wherein the hand part comprises pawl parts for gripping a workpiece, and wherein the operating part is configured so as to operate the pawl parts when a grip part of an arm of a robot grips the operating part.
A device having two superconducting cables (2, 3), which are connected with each other electrically conductively at a connecting point, wherein each cable (2, 3) is arranged in a tubular cable cryostat (10, 11), which is used for conducting a coolant, and has an electrical conductor (6, 7) and an electrical shield conductor (8, 9), wherein the connecting point of both cables (2, 3) is surrounded by a socket cryostat, which connects the cable cryostats (10, 11) of both cables (2, 3) with each other, characterized in - that in each case a connecting element is applied to the ends of the electrical conductors (6, 7) connected with each other in the connecting point, wherein the two connecting elements are connected with each other electrically conductively at the connecting point, - that the connecting point is surrounded by a one-piece electrical shield body designed as a tube, which connects the electrical shield conductors (8, 9) of the cables (2, 3) with each other and into which the ends of the electrical conductors (6, 7) are introduced for the connection, and - that the electrical shield body is surrounded by the pre-fabricated socket cryostat, which has a thermal insulation. - that in each case a connecting element is applied to the ends of the electrical conductors (6, 7) connected with each other in the connecting point, wherein the two connecting elements are connected with each other electrically conductively at the connecting point, - that the connecting point is surrounded by a one-piece electrical shield body designed as a tube, which connects the electrical shield conductors (8, 9) of the cables (2, 3) with each other and into which the ends of the electrical conductors (6, 7) are introduced for the connection, and - that the electrical shield body is surrounded by the pre-fabricated socket cryostat, which has a thermal insulation.