mhurhangee/ep-ind-claims huggingface dataset:
A downlink assignment index, DAI, determining method, applied to a terminal, the method comprising: receiving signaling, wherein the signaling comprises first information; and identifying, a type of DAI in the signaling based on the first information, wherein the first information comprises feedback acknowledgement information, and the feedback acknowledgement information comprises type information of a hybrid automatic repeat request acknowledgement, HARQ-ACK, codebook corresponding to the signaling. receiving signaling, wherein the signaling comprises first information; and identifying, a type of DAI in the signaling based on the first information, wherein the first information comprises feedback acknowledgement information, and the feedback acknowledgement information comprises type information of a hybrid automatic repeat request acknowledgement, HARQ-ACK, codebook corresponding to the signaling.
A method of forming a use solution, the method comprising: mixing water with a concentrate aqueous composition to create the use solution, the concentrate aqueous composition comprising: at least one surfactant; and at least one anti-mist component selected from polyacrylamide having a molecular weight of 8,000,000 to 16,000,000, wherein the concentrate aqueous composition is mixed with sufficient water to form a use solution having between about 0.002% and about 0.006% by weight anti-mist component, wherein the concentrate aqueous composition further comprising at least one stability component selected from the group consisting of antioxidants and chelants.
Trailer coupling for a motor vehicle, in particular for a car, with a bearing module (11; 111) which has a bearing base (12; 112) mounted on a member (19; 119) to be fastened to a rear of the motor vehicle, and a bearing element (13; 113) movably mounted on the bearing base (12; 112) and on which is mounted a coupling support with a coupling element for coupling to a trailer or load carrier, wherein the bearing module (11; 111) supports the coupling support between an operating position, in which the coupling element protrudes beyond the rear of the motor vehicle for coupling-on a trailer or a load carrier, and an inoperative position in which the coupling element is shifted towards the rear of the motor vehicle, in particular located behind a bumper, wherein a drive is provided for actuation of a locking device of the coupling element at least in the operating position and/or for shifting the coupling element between the inoperative position and the operating position, wherein the bearing module (11; 111) forms a base module for a modular system and the bearing element (13; 113) has a coupling support mounting interface for the coupling support, which is designed for optional mounting of a coupling support of a first type or a coupling support of at least one second type which differs from the coupling support of the first type in respect of at least one property, in particular its geometry, and the bearing base (12; 112) has at least one drive mounting interface for optional mounting of a drive of a first type or a drive of at least one second type which differs from the drive of the first type in at least one property, characterised in that at least one mounting interface is in the form of a plug-in mounting interface, which facilitates plug-in mounting of the components to be fastened to one another and has a retaining clip for securing the plug connection.
An ink ribbon having a dimension in a thickness direction, comprising: a ribbon base layer; a first layer (163; 163; 163; 162''') disposed adjacent to one side of said ribbon base layer in said thickness direction, and including a solubility parameter value greater than or equal to 7 and less than or equal to 9, and configured to separate from said ribbon base layer when the first layer (163; 163; 163; 162''') melts by predetermined heat reception; and a second layer (161; 161; 162";161) disposed on the one side of said first layer (163; 163; 163; 162''') in said thickness direction, and including a solubility parameter value greater than or equal to 7 and less than or equal to 9, and configured to stick to a transfer target. a ribbon base layer; a first layer (163; 163; 163; 162''') disposed adjacent to one side of said ribbon base layer in said thickness direction, and including a solubility parameter value greater than or equal to 7 and less than or equal to 9, and configured to separate from said ribbon base layer when the first layer (163; 163; 163; 162''') melts by predetermined heat reception; and a second layer (161; 161; 162";161) disposed on the one side of said first layer (163; 163; 163; 162''') in said thickness direction, and including a solubility parameter value greater than or equal to 7 and less than or equal to 9, and configured to stick to a transfer target.
Device for manufacturing objects by a layered construction using a powdery, in particular metallic or/and ceramic material, comprising a process room housing with a process room and a carrier arrangement as a basis for the layered construction and for providing a construction zone in the process room, an irradiation device for irradiating the material powder on the last layer prepared on the carrier arrangement in a cross-sectional area of the object to be manufactured associated to that layer, by irradiation leading to melting or sintering of the material powder in this cross-sectional area by heating, a protection gas transport device (32, 34, 38, 40, 42, 50) for transporting a protection gas to the process room, a layer preparation device for preparing a layer of the powdery material which will subsequently be irradiated selectively in certain places by said irradiation device, the layer preparation device comprising a smoothing bar which can be moved to and fro across the last layer irradiated at a distance of the desired powder layer thickness for levelling a certain amount of material powder on the last layer irradiated, characterized by the smoothing bar being provided at a support which projects radially from a vertical pivoting axle and can be pivoted about the pivoting axis.
A method for communication, the method comprising the steps of: allocating resource based on a resource block group determined dependent on a system bandwidth; and applying a same precoder to all physical resource block within a precoding subset dependent on the system bandwidth, characterized by, wherein a number of physical resource block within the precoding subset and a number of resource block within the resource block group for resource allocation are 1, if the system bandwidth is within 10 physical resource blocks (Table 3), the number of physical resource block within the precoding subset and the number of resource block within the resource block group for resource allocation are 2 if the system bandwidth is between 11 and 26 physical resource blocks (Table 3), the number of physical resource block within the precoding subset and the number of resource block within the resource block group for resource allocation are 3 if the system bandwidth is between 27 and 63 physical resource blocks (Table 3), the number of physical resource block within the precoding subset is 2 and the number of resource block within the resource block group for resource allocation are 4 if the system bandwidth is between 64 and 110 physical resource blocks (Table 3). allocating resource based on a resource block group determined dependent on a system bandwidth; and applying a same precoder to all physical resource block within a precoding subset dependent on the system bandwidth, characterized by, wherein a number of physical resource block within the precoding subset and a number of resource block within the resource block group for resource allocation are 1, if the system bandwidth is within 10 physical resource blocks (Table 3), the number of physical resource block within the precoding subset and the number of resource block within the resource block group for resource allocation are 2 if the system bandwidth is between 11 and 26 physical resource blocks (Table 3), the number of physical resource block within the precoding subset and the number of resource block within the resource block group for resource allocation are 3 if the system bandwidth is between 27 and 63 physical resource blocks (Table 3), the number of physical resource block within the precoding subset is 2 and the number of resource block within the resource block group for resource allocation are 4 if the system bandwidth is between 64 and 110 physical resource blocks (Table 3).
A control device for controlling a controlled device capable of reproducing contents, the control device comprising: a status detecting unit configured to acquire status information from the controlled device, wherein the status information represents contents switching or sound/subtitle switching of the controlled device; an output switching unit configured to determine whether or not the controlled device is in a sound switchable status based on the status information by determining whether or not the controlled device is reproducing multiplex-sound contents, or by determining whether or not the controlled device has started reproducing two or more contents in a multi-screen mode, wherein the output switching unit is further configured to determine, when the controlled device is in the sound switchable status, whether or not the controlled device performs sound switching based on the status information and to switch an output sound of the control device to a predetermined sound and an output subtitle of the control device to a predetermined subtitle when the output switching unit has determined that the controlled device has transitioned to the sound switchable status or that the controlled device performs sound switching. a status detecting unit configured to acquire status information from the controlled device, wherein the status information represents contents switching or sound/subtitle switching of the controlled device; an output switching unit configured to determine whether or not the controlled device is in a sound switchable status based on the status information by determining whether or not the controlled device is reproducing multiplex-sound contents, or by determining whether or not the controlled device has started reproducing two or more contents in a multi-screen mode, by determining whether or not the controlled device is reproducing multiplex-sound contents, or by determining whether or not the controlled device has started reproducing two or more contents in a multi-screen mode, wherein the output switching unit is further configured to determine, when the controlled device is in the sound switchable status, whether or not the controlled device performs sound switching based on the status information and to switch an output sound of the control device to a predetermined sound and an output subtitle of the control device to a predetermined subtitle when the output switching unit has determined that the controlled device has transitioned to the sound switchable status or that the controlled device performs sound switching.
Center plate for a rotor in a pulp or fiber refiner, said center plate having a surface provided with at least one feeding wing for directing lignocellulose-containing material flowing onto said surface towards a periphery of the center plate, where said at least one feeding wing is an elongated protrusion extending between a first end and a second end, said second end being arranged further away from a center of the center plate than said first end, and said second end being displaced relative to said first end, in a direction opposite to a direction of rotation of the rotor and center plate, characterized in that said at least one feeding wing is provided with at least one opening allowing steam to flow through said at least one opening in a direction having a component directed opposite to the direction of rotation, when the center plate is rotating in the direction of rotation.
A pipe-laying vessel having a bow, a stern and a weather deck therebetween, with a moonpool passing through the weather deck, the vessel comprising an S-lay pipe deployment facility (44,62,70) located below the weather deck, having a main firing line extending along a centerline of the vessel and a pipe assembly factory for assembling single lengths of pipe to form pipe assemblies and introduce them into the firing line for deployment from the stern of the vessel, the vessel further comprising a J-lay pipe deployment facility for deploying pipe through the moonpool, the J-lay pipe deployment facility comprising a tower located above the moon pool and pipe handling equipment for delivering pipe assemblies from the firing line to the tower, wherein the moonpoor is located to one side of the firing line.
A two-dimensional code, comprising cells representing binary-coded data that are arranged as a pattern in the form of a two-dimensional matrix, wherein the two-dimensional code comprises three or more different position detection patterns (12A-12D, 52A-52D) that can be individually detected from an image, characterized in that at least two of the position detection patterns (12A-12D, 52A-52D) are in the form of a closed frame and have different line width ratios when one of the position detection patterns is 90° rotated and in that the at least two of the position detection patterns (12A-12D, 52A-52D) have accorded external shapes. the two-dimensional code comprises three or more different position detection patterns (12A-12D, 52A-52D) that can be individually detected from an image, characterized in that at least two of the position detection patterns (12A-12D, 52A-52D) are in the form of a closed frame and have different line width ratios when one of the position detection patterns is 90° rotated and in that the at least two of the position detection patterns (12A-12D, 52A-52D) have accorded external shapes.
A method performed at a first sensor at a router or switch in a network, comprising: intercepting one or more domain name system, DNS, records at the first sensor, the DNS records having been sent from a DNS server to a DNS client device (116, 118) through the router or switch in response to a request from the DNS client device; parsing the one or more intercepted DNS records to determine first DNS information including a first domain name and one or more first internet protocol, IP, addresses corresponding to the first domain name; sending the one or more DNS records to the DNS client device; determining a first number of unique subnets based on the one or more first IP addresses associated with the first domain name identified in the DNS information; and sending, to one or more other sensors (128, 130), a first alert that includes the first DNS information when the first number of unique subnets exceeds a first threshold; wherein the method is performed by one or more processors. intercepting one or more domain name system, DNS, records at the first sensor, the DNS records having been sent from a DNS server to a DNS client device (116, 118) through the router or switch in response to a request from the DNS client device; parsing the one or more intercepted DNS records to determine first DNS information including a first domain name and one or more first internet protocol, IP, addresses corresponding to the first domain name; sending the one or more DNS records to the DNS client device; determining a first number of unique subnets based on the one or more first IP addresses associated with the first domain name identified in the DNS information; and sending, to one or more other sensors (128, 130), a first alert that includes the first DNS information when the first number of unique subnets exceeds a first threshold; wherein the method is performed by one or more processors.
A vehicle inspection system, comprising a portal frame for forming an inspection passage, the portal frame comprising: a cabin for installing a ray source; and two vertical support arms respectively telescopically arranged at both sides of the cabin to support the cabin; wherein the vertical support arm comprises a first segment and a second segment arranged in a vertical direction, the cabin being arranged on the second segment, and the second segment being movable relative to the first segment, the first segment is sleeved on the outer side of the second segment; the vehicle inspection system being characterized by a vertical detecting arm disposed on a lateral side of the vertical support arm along the travelling direction of the vehicle, and a detector mounted on the vertical detecting arm, said detector being for receiving rays from the ray source to inspect the interior of the vehicle. a cabin for installing a ray source; and two vertical support arms respectively telescopically arranged at both sides of the cabin to support the cabin; wherein the vertical support arm comprises a first segment and a second segment arranged in a vertical direction, the cabin being arranged on the second segment, and the second segment being movable relative to the first segment, the first segment is sleeved on the outer side of the second segment; the vehicle inspection system being characterized by a vertical detecting arm disposed on a lateral side of the vertical support arm along the travelling direction of the vehicle, and a detector mounted on the vertical detecting arm, said detector being for receiving rays from the ray source to inspect the interior of the vehicle.
An inverter intended to be electrically connected to a DC voltage source to supply an electric charge with three-phase current, this inverter including: - a switching cell that in turn includes, for each phase of the current (C462, C464, C466), a switching mode power supply circuit formed by two sets (E1, E2) of controlled switches (4622, 4624), each set of controlled switches supplying a separate terminal (4626, 4628, 4646, 4648, 4666, 4668) of the switching cell, while this switching cell includes a sealed housing containing the switching mode power supply circuits; - a capacitive filter; characterized in that: - the housing is provided, on two opposite surfaces (461A, 461B), with heat exchange means (46A, 46B, 4625) with a heat transfer fluid; - a distributor is mounted, upstream from the housing, in a heat transfer fluid circulation circuit (82, 84, 46A, 46B), to steer the heat transfer fluid (F1-F5) toward the two opposite surfaces of the housing; - the capacitive filter is cooled using at least one heat pipe (92, 94, 96, 98); - part (92b, 94b, 96b, 98b) of this heat pipe, where the condensation of a fluid contained in the heat pipe occurs, is in thermal contact with the distributor. - a switching cell that in turn includes, for each phase of the current (C462, C464, C466), a switching mode power supply circuit formed by two sets (E1, E2) of controlled switches (4622, 4624), each set of controlled switches supplying a separate terminal (4626, 4628, 4646, 4648, 4666, 4668) of the switching cell, while this switching cell includes a sealed housing containing the switching mode power supply circuits; - a capacitive filter; - the housing is provided, on two opposite surfaces (461A, 461B), with heat exchange means (46A, 46B, 4625) with a heat transfer fluid; - a distributor is mounted, upstream from the housing, in a heat transfer fluid circulation circuit (82, 84, 46A, 46B), to steer the heat transfer fluid (F1-F5) toward the two opposite surfaces of the housing; - the capacitive filter is cooled using at least one heat pipe (92, 94, 96, 98); - part (92b, 94b, 96b, 98b) of this heat pipe, where the condensation of a fluid contained in the heat pipe occurs, is in thermal contact with the distributor.
Porous layered anode system for electrochemical applications, comprising at least two layers, the first layer containing zirconium dioxide as carrier layer and the second layer containing doped cerium oxide as the functional layer intended for contact with an electrolyte, characterized in that - the porous layered anode system has a total porosity of at least 30% by volume, and in that - both first and second layers additionally contain nickel oxide in a proportion of 20 - 80 % by weight, or nickel. - the porous layered anode system has a total porosity of at least 30% by volume, and in that - both first and second layers additionally contain nickel oxide in a proportion of 20 - 80 % by weight, or nickel.
Device for rotating a rotor shaft being connected or coupled to a rotor of the wind turbine, having - a gear disk, which is connectable with the rotor shaft, - a holding element, which is attachable to a component of the wind turbine except to the gear disk and the rotor shaft, - a tool with a rotationally drivable drive shaft and a housing, wherein the tool can be firmly connected to the holding element, and - a pinion for mounting to the drive shaft of the tool, wherein the pinion meshes the gear disk when being in a state of being mounted to the drive shaft of the tool and the housing of the tool is attached to the holding element, - wherein the gear disk is configured as brake disc of a disk-holding-break of the wind turbine, and - wherein the tool is a hand driven tool or a motorized tool. - a gear disk, which is connectable with the rotor shaft, - a holding element, which is attachable to a component of the wind turbine except to the gear disk and the rotor shaft, - a tool with a rotationally drivable drive shaft and a housing, wherein the tool can be firmly connected to the holding element, and - a pinion for mounting to the drive shaft of the tool, wherein the pinion meshes the gear disk when being in a state of being mounted to the drive shaft of the tool and the housing of the tool is attached to the holding element, - wherein the gear disk is configured as brake disc of a disk-holding-break of the wind turbine, and - wherein the tool is a hand driven tool or a motorized tool.
A mold molding method for molding a mold by hardening molding sand using a caking additive, the method comprising: disposing hollow spheres each having no clearance therein among molding sand that are mixed with the caking additive; and molding the mold, wherein the hollow spheres are formed by working two metal plates (1a, 1b) into semispherical shapes and connecting the semispherical-shaped metal plates to each other by welding their respective whole peripheries. disposing hollow spheres each having no clearance therein among molding sand that are mixed with the caking additive; and molding the mold, wherein the hollow spheres are formed by working two metal plates (1a, 1b) into semispherical shapes and connecting the semispherical-shaped metal plates to each other by welding their respective whole peripheries.