mhurhangee/ep-ind-claims huggingface dataset:
A device for the separate recovery of biogas and rainwater for a structure for storing loaded liquid effluents such as liquid manure, said device comprising a first substantially horizontal membrane covering substantially all of the surface of said loaded liquid effluent, said device comprising a second substantially vertical membrane, which is disposed all around said first membrane and is formed of a lower part and an upper part disposed on either side of said first membrane, thus forming two storage spaces, said device also comprising means for discharging the biogas and the rainwater.
A method for making a connection assembly with torque limitation, wherein the connection assembly comprises at least one nut with an internal thread, a bolt with an external thread, and a body with a stop surface and an opening; wherein the bolt is arranged in the opening and, starting from the body, extends outwardly through the stop surface; wherein the nut extends between a first end and a second end along an axial direction and, starting from the first end, has a hollow cylindrical first portion with the internal thread, wherein at least one first stop element at least partially running circumferentially along a circumferential direction and extending in a radial direction is arranged on a cylindrical outer circumferential surface; wherein the method comprises at least the following steps: a) arranging the nut via the first end on the bolt and screwing it towards the stop surface onto the external thread with at most a first torque until the first stop element comes into contact with the stop surface, wherein, as a result of the contacting, a second torque required for further screwing is higher than the first torque, and wherein, when the nut is further screwed with at least the second torque and the second torque is higher than a limit torque defined by the first stop element b) breaking off the first stop element from the outer circumferential surface. a) arranging the nut via the first end on the bolt and screwing it towards the stop surface onto the external thread with at most a first torque until the first stop element comes into contact with the stop surface, wherein, as a result of the contacting, a second torque required for further screwing is higher than the first torque, and wherein, when the nut is further screwed with at least the second torque and the second torque is higher than a limit torque defined by the first stop element b) breaking off the first stop element from the outer circumferential surface.
A multiple disc brake device having a hydraulic cylinder housing, wherein the hydraulic cylinder housing has at least one integrated first hydraulic cylinder section, which is assigned to a first slave cylinder, having a multiple disc carrier for receiving a plurality of discs, wherein the multiple disc carrier is arranged coaxially to a main axis and wherein the multiple disc carrier is designed to be non-rotatable with the hydraulic cylinder housing, wherein the first hydraulic cylinder section and the multiple disc carrier are assigned to a first brake device of the multiple disc brake device, and wherein the multiple disc carrier is designed as a multiple sheet metal disc carrier, characterised in that the hydraulic cylinder housing is formed from an aluminium alloy and the multiple disc carrier has a base section, wherein the base section is aligned in a radial plane to the main axis and wherein the base section is connected to the hydraulic cylinder housing in a non-rotatable manner via screw connections, rivets or by welding. having a hydraulic cylinder housing, wherein the hydraulic cylinder housing has at least one integrated first hydraulic cylinder section, which is assigned to a first slave cylinder, having a multiple disc carrier for receiving a plurality of discs, wherein the multiple disc carrier is arranged coaxially to a main axis and wherein the multiple disc carrier is designed to be non-rotatable with the hydraulic cylinder housing, wherein the first hydraulic cylinder section and the multiple disc carrier are assigned to a first brake device of the multiple disc brake device, and wherein the multiple disc carrier is designed as a multiple sheet metal disc carrier, characterised in that the hydraulic cylinder housing is formed from an aluminium alloy and the multiple disc carrier has a base section, wherein the base section is aligned in a radial plane to the main axis and wherein the base section is connected to the hydraulic cylinder housing in a non-rotatable manner via screw connections, rivets or by welding.
A method for manufacturing a fluid-filled chamber, the method comprising: obtaining a spacer textile material having a first layer, a second layer, and a plurality of connecting members extending between and joining the first layer and the second layer, the connecting members forming a plurality of rows separated by spaces, and the spacer textile material including a stabilization structure that aligns the first layer with the second layer; removing a tensile member from an area of the spacer textile material locating the tensile member between a first polymer element and a second polymer element; and bonding (a) the first layer to the first polymer element, (b) the second layer to the second polymer element, and (c) the first polymer element and the second polymer element together around a periphery of the tensile member, characterised by removing a tensile member from an area of the spacer textile material where the stabilization structure is absent. obtaining a spacer textile material having a first layer, a second layer, and a plurality of connecting members extending between and joining the first layer and the second layer, the connecting members forming a plurality of rows separated by spaces, and the spacer textile material including a stabilization structure that aligns the first layer with the second layer; removing a tensile member from an area of the spacer textile material locating the tensile member between a first polymer element and a second polymer element; and bonding (a) the first layer to the first polymer element, (b) the second layer to the second polymer element, and (c) the first polymer element and the second polymer element together around a periphery of the tensile member, characterised by removing a tensile member from an area of the spacer textile material where the stabilization structure is absent.
A method for processing data, the method comprising: receiving an indication that all threads of a warp in a graphics processing unit are to execute a same branch in a first set of instructions; storing one or more predicate bits in a memory as a single set of predicate bits, wherein the single set of predicate bits applies to all of the threads in the warp; and executing a portion of the first set of instructions in accordance with the single set of predicate bits. receiving an indication that all threads of a warp in a graphics processing unit are to execute a same branch in a first set of instructions; storing one or more predicate bits in a memory as a single set of predicate bits, wherein the single set of predicate bits applies to all of the threads in the warp; and executing a portion of the first set of instructions in accordance with the single set of predicate bits.
A transparent composition comprising polycarbonate and a mixture of flame retardants, wherein the flame retardants are: (i) aryl phosphate ester of hydroquinone of Formula I: wherein R 1, R 2, R 3 and R 4 each independently is aryl or alkyl-substituted aryl, optionally interrupted with heteroatoms, and n has an average value of from 1.0 to 2.0; and (ii) tris(2,4,6-tribromophenoxy)-s-triazine of Formula II: (i) aryl phosphate ester of hydroquinone of Formula I: wherein R 1, R 2, R 3 and R 4 each independently is aryl or alkyl-substituted aryl, optionally interrupted with heteroatoms, and n has an average value of from 1.0 to 2.0; and (ii) tris(2,4,6-tribromophenoxy)-s-triazine of Formula II:
A surroundings monitoring system for a working machine, comprising: a monocular camera (6a, 6b, 6c, 6d) incorporated in the working machine and configured to pick up a image (20a, 20b, 20c, 20d) of the surroundings of the working machine; characterized in that the surroundings monitoring system further comprises a characteristic pattern extraction unit configured to extract corner points (51a-51h, 51A-51N) in the image based on a characteristic amount of the image (20a, 20b, 20c, 20d); a shadow profile extraction unit configured to decide, when an area of a dark region in the image (20a, 20b, 20c, 20d) is equal to or greater than a predetermined value and when the dark region contacts with the working machine in the image, that the dark region is a region regarded as a shadow of the working machine in the image, to extract a profile (53aa, 53bb, 53dd) of the region regarded as a shadow of the working machine based on the characteristic amount of the image (20a, 20b, 20c, 20d); and an object detection unit configured to detect an obstacle existing around the working machine based on remaining corner points(51N, 51M, 51L, 51K, 51J, 511) excluding corner points (51e, 51P, 51A, 51B, 51C, 51D, 51E, 51F, 51G, 51H) positioned on the profile extracted by the shadow profile extraction unit from the corner points(51a-51h, 51A-51N) extracted by the characteristic pattern extraction unit; and a notification unit configured to issue a notification that the obstacle is detected by the object detection unit. a monocular camera (6a, 6b, 6c, 6d) incorporated in the working machine and configured to pick up a image (20a, 20b, 20c, 20d) of the surroundings of the working machine; characterized in that the surroundings monitoring system further comprises a characteristic pattern extraction unit configured to extract corner points (51a-51h, 51A-51N) in the image based on a characteristic amount of the image (20a, 20b, 20c, 20d); a shadow profile extraction unit configured to decide, when an area of a dark region in the image (20a, 20b, 20c, 20d) is equal to or greater than a predetermined value and when the dark region contacts with the working machine in the image, that the dark region is a region regarded as a shadow of the working machine in the image, to extract a profile (53aa, 53bb, 53dd) of the region regarded as a shadow of the working machine based on the characteristic amount of the image (20a, 20b, 20c, 20d); and an object detection unit configured to detect an obstacle existing around the working machine based on remaining corner points(51N, 51M, 51L, 51K, 51J, 511) excluding corner points (51e, 51P, 51A, 51B, 51C, 51D, 51E, 51F, 51G, 51H) positioned on the profile extracted by the shadow profile extraction unit from the corner points(51a-51h, 51A-51N) extracted by the characteristic pattern extraction unit; and a notification unit configured to issue a notification that the obstacle is detected by the object detection unit.
An energy management method for a device including a rechargeable-battery, wherein the energy management method comprises: obtaining, by the device including a rechargeable-battery, information that is related to energy availability, wherein the information that is related to energy availability comprises information that indicates whether the device including a rechargeable-battery is rechargeable, position information of a charging resource, information about a scenario in which the device including a rechargeable-battery is located, or a detection characteristic signal sent by the charging resource, and the position information of the charging resource comprises a distance between the device including a rechargeable-battery and the charging resource; analyzing, by the device including a rechargeable-battery according to the information that is related to energy availability, the energy availability of the device including a rechargeable-battery, and determining, according to an analysis result, an energy availability level of the device including a rechargeable-battery, wherein the energy availability is used to measure a probability that the device including a rechargeable-battery obtains a charging opportunity, and the energy availability level comprises a first preset level and a second preset level; and characterized by generating, by the device including a rechargeable-battery, an energy management policy according to the energy availability level, wherein the energy management policy comprises a first preset policy corresponding to the first preset level and a second preset policy corresponding to the second preset level. obtaining, by the device including a rechargeable-battery, information that is related to energy availability, wherein the information that is related to energy availability comprises information that indicates whether the device including a rechargeable-battery is rechargeable, position information of a charging resource, information about a scenario in which the device including a rechargeable-battery is located, or a detection characteristic signal sent by the charging resource, and the position information of the charging resource comprises a distance between the device including a rechargeable-battery and the charging resource; analyzing, by the device including a rechargeable-battery according to the information that is related to energy availability, the energy availability of the device including a rechargeable-battery, and determining, according to an analysis result, an energy availability level of the device including a rechargeable-battery, wherein the energy availability is used to measure a probability that the device including a rechargeable-battery obtains a charging opportunity, and the energy availability level comprises a first preset level and a second preset level; and characterized by generating, by the device including a rechargeable-battery, an energy management policy according to the energy availability level, wherein the energy management policy comprises a first preset policy corresponding to the first preset level and a second preset policy corresponding to the second preset level.
Lifting transportation device combination, the purpose of which is handling of load that is carried out with load platforms, such as RoRo, terminal, industrial cassettes and/or the like, and, which comprises a lifting transportation carriage and a pulling device that has at least power transmission means for power transmission of a drive function of the lifting transportation device combination and for a lifting function of the lifting transportation carriage in order to lift up and lower down the load on the load platform (K, Y), wherein the lifting transportation carriage comprises a drawbar provided with coupling means in order to couple the same rotatably, such as on ball joint, crosslink principle or correspondingly, and in a lockable manner with a fifth wheel of the pulling device, wherein the drawbar is arranged at a front end of the lifting transportation carriage in an essentially vertical plane turnable (w) manner by a joint arrangement, whereby the power transmission of the lifting function in order to alter height of the support surface of the lifting transportation carriage is arranged by an actuator arrangement driven by auxiliary power, such as being mechanically, electrically, pressure medium operated and/or like, wherein the actuator arrangement altering the height of the support surface of the lifting transportation carriage is arranged when the support surface of the lifting transportation carriage is being lowered to push the lifting transportation carriage backwards (t) from the pulling device when viewed in longitudinal direction (s) of the lifting transportation device combination, and wherein the drawbar comprises essentially at a center part thereof a joint part to be coupled at an articulation point with a joint of the joint arrangement, a first coupling arm that is directed downward from the joint part and that is to be coupled jointedly with first actuator means (X; X1) of the actuator arrangement altering height of the support surface at the front end of the lifting transportation carriage by turning (w) the drawbar with respect to the articulation point, the first articulation means (X; X1) being articulated below the support surface (Rk) of the lifting transportation carriage's frame (1; P) and arranged to operate in longitudinal direction (s) of the lifting transportation device combination, and a second coupling arm that is directed forward from the articulation point and that is provided with the coupling means, characterized in that, the actuator arrangement comprises second actuator means for altering height of the support surface of back end of the lifting transportation carriage by changing a distance between the support surface and a frame thereof and/or by altering height of the frame by a wheel arrangement at the back end of the lifting transportation carriage.
A method implemented within a system comprising circuitry and program code to perform the operations of: obtaining a first plurality of N streams of information from a first network, transforming the first plurality of N streams of information into a second plurality of M streams of bits, each of the second plurality of M streams of bits being a combination of some or all of the first plurality of N streams of information, sending the second plurality of M streams of bits to M distributed transceiver stations over a second network, the transceiver stations simultaneously sending the second plurality of M streams of bits over wireless links to at least one client device in a way that at least one client device receives at least one of the original first plurality of N streams of information, employing transmit power balancing to enhance channel spatial diversity, wherein a maximum auto-correlation coefficient of a spatial covariance matrix is used as an indication of transmit power imbalance (4003, 4005) and, wherein thresholds of auto-correlation are defined to select between power balanced and imbalanced systems and those thresholds are obtained based on certain performance criterion (4006, 4011) and, wherein the auto-correlation is mapped into a transmit gain value and the system uses that value to adaptively adjust the radio frequency power of the transceiver stations. obtaining a first plurality of N streams of information from a first network, transforming the first plurality of N streams of information into a second plurality of M streams of bits, each of the second plurality of M streams of bits being a combination of some or all of the first plurality of N streams of information, sending the second plurality of M streams of bits to M distributed transceiver stations over a second network, the transceiver stations simultaneously sending the second plurality of M streams of bits over wireless links to at least one client device in a way that at least one client device receives at least one of the original first plurality of N streams of information, employing transmit power balancing to enhance channel spatial diversity, wherein a maximum auto-correlation coefficient of a spatial covariance matrix is used as an indication of transmit power imbalance (4003, 4005) and, wherein thresholds of auto-correlation are defined to select between power balanced and imbalanced systems and those thresholds are obtained based on certain performance criterion (4006, 4011) and, wherein the auto-correlation is mapped into a transmit gain value and the system uses that value to adaptively adjust the radio frequency power of the transceiver stations.
A shield clip for use in controlling electromagnetic interference in an optical transceiver module, the optical transceiver module including a shell that houses first and second optical subassemblies (10, 20) and an enclosure that cooperates with the shell in defining a covering for the optical transceiver module, the shield clip characterized in that the shield clip is an insertable shield clip comprising: a body composed of conductive material and including: first and second vertical side members, each side member including a first plurality of spring fingers that are configured to be compressed between the shell and the enclosure when the insertable shield clip is positioned within the optical transceiver module, and wherein the first and second vertical side members are configured to be positioned between the shell and the enclosure of the optical transceiver module proximate a point at which the shell and the enclosure overlap one another; first and second shield members that are each configured to receive a corresponding nosepiece of one of the first and second optical subassemblies (10, 20), the first and second shield members being positioned proximate a flange of the corresponding nosepiece so as to intercept electromagnetic interference produced by the optical transceiver module; and a bottom member including a second plurality of spring fingers configured to be compressed between the shell and the enclosure when the insertable shield clip is positioned within the optical transceiver module, the bottom member interconnecting the first and second vertical side members and the first and second shield members. first and second vertical side members, each side member including a first plurality of spring fingers that are configured to be compressed between the shell and the enclosure when the insertable shield clip is positioned within the optical transceiver module, and wherein the first and second vertical side members are configured to be positioned between the shell and the enclosure of the optical transceiver module proximate a point at which the shell and the enclosure overlap one another; first and second shield members that are each configured to receive a corresponding nosepiece of one of the first and second optical subassemblies (10, 20), the first and second shield members being positioned proximate a flange of the corresponding nosepiece so as to intercept electromagnetic interference produced by the optical transceiver module; and a bottom member including a second plurality of spring fingers configured to be compressed between the shell and the enclosure when the insertable shield clip is positioned within the optical transceiver module, the bottom member interconnecting the first and second vertical side members and the first and second shield members.