mhurhangee/ep-ind-claims huggingface dataset:
A routing method performed by a receiver apparatus comprising a component implementing an IEEE802.2 LLC layer, the routing method comprising: routing a radio link control, RLC, protocol data unit, PDU, within the receiver apparatus to an RLC entity that is associated with a logical channel; wherein: identifying the logical channel from information contained in an IEEE 802.11 media access control, MAC, protocol data unit, PDU, wherein a payload of the IEEE 802.11 MAC PDU contains an IEEE 802.2 logical link control, LLC, PDU, and wherein identifying the logical channel comprises: a) at the component of the receiver apparatus that implements the IEEE 802.2 LLC layer: determining that the IEEE 802.2 LLC PDU contains an LLC sub-network access protocol, SNAP, PDU, wherein the SNAP PDU contains at least a Protocol Type field and a Protocol Data Field containing the RLC PDU; and identifying the logical channel from a value in the Protocol Type field of the LLC SNAP PDU; or b) at the component of the receiver apparatus that implements the IEEE 802.2 LLC layer, identifying the logical channel from LLC service access point, SAP, values in a LLC header contained in the IEEE 802.2 LLC PDU, wherein a payload of the IEEE 802.2 LLC PDU contains the RLC PDU. a) at the component of the receiver apparatus that implements the IEEE 802.2 LLC layer: determining that the IEEE 802.2 LLC PDU contains an LLC sub-network access protocol, SNAP, PDU, wherein the SNAP PDU contains at least a Protocol Type field and a Protocol Data Field containing the RLC PDU; and identifying the logical channel from a value in the Protocol Type field of the LLC SNAP PDU; or determining that the IEEE 802.2 LLC PDU contains an LLC sub-network access protocol, SNAP, PDU, wherein the SNAP PDU contains at least a Protocol Type field and a Protocol Data Field containing the RLC PDU; and identifying the logical channel from a value in the Protocol Type field of the LLC SNAP PDU; or b) at the component of the receiver apparatus that implements the IEEE 802.2 LLC layer, identifying the logical channel from LLC service access point, SAP, values in a LLC header contained in the IEEE 802.2 LLC PDU, wherein a payload of the IEEE 802.2 LLC PDU contains the RLC PDU.
Dispenser for a volatile corrosion inhibitor component for protecting corrosion-susceptible metal articles, the dispenser being formed of a laminate having a first textile layer and a second textile layer, there being disposed, between the first textile layer and the second textile layer, a layer of adhesive that comprises the corrosion inhibitor component, characterized - in that both textile layers consist of a spun-bonded nonwoven and over a part of their thickness are pervaded by the layer of adhesive, - in that adhesive-free and VCI-free fibre sections of the two nonwoven layers form outer faces of the laminate, and - in that the layer of adhesive comprises a multiplicity of gas bubbles having an extent of less than 10 μm. - in that both textile layers consist of a spun-bonded nonwoven and over a part of their thickness are pervaded by the layer of adhesive, - in that adhesive-free and VCI-free fibre sections of the two nonwoven layers form outer faces of the laminate, and - in that the layer of adhesive comprises a multiplicity of gas bubbles having an extent of less than 10 μm.
Test bench (2 1; 2 2; 2 3) for an axial turbine engine, preferably for a turbojet, including: - a chamber intended to accommodate the turbine engine; - a vertical inlet channel (8 1; 8 2; 8 3) connected to the chamber upstream of the turbine engine; and - a vertical outlet channel (10 1; 10 2; 10 3) connected to the chamber downstream of the turbine engine; - at least one wind power engine (18; 18') capable of converting the kinetic energy of a portion of the gas stream generated by the turbine engine into mechanical energy, and comprising at least one or more systems for converting mechanical energy into electrical energy; characterized in that the wind power engine (18; 18') or at least one of the wind power engines (18; 18') is located in the vertical inlet channel (8 1; 8 2; 8 3) and/or in the vertical outlet channel (10 1; 10 2; 10 3). - a chamber intended to accommodate the turbine engine; - a vertical inlet channel (8 1; 8 2; 8 3) connected to the chamber upstream of the turbine engine; and - a vertical outlet channel (10 1; 10 2; 10 3) connected to the chamber downstream of the turbine engine; - at least one wind power engine (18; 18') capable of converting the kinetic energy of a portion of the gas stream generated by the turbine engine into mechanical energy, and comprising at least one or more systems for converting mechanical energy into electrical energy;
A micro device transfer head array comprising: a base substrate; an insulating layer on the base substrate; a patterned device layer on the insulating layer, the patterned device layer comprising a trace interconnect (104, 106) integrally formed with an array of electrodes, wherein each electrode includes a mesa structure protruding above the trace interconnect; and a dielectric layer covering a top surface of each mesa structure. a base substrate; an insulating layer on the base substrate; a patterned device layer on the insulating layer, the patterned device layer comprising a trace interconnect (104, 106) integrally formed with an array of electrodes, wherein each electrode includes a mesa structure protruding above the trace interconnect; and a dielectric layer covering a top surface of each mesa structure.
A vehicle control apparatus, the vehicle control apparatus being configured to: output a signal regarding a target braking/driving force for guiding a vehicle in a target traveling direction to a braking/driving controller configured to control a braking/driving actuator of the vehicle, the signal regarding the target braking/driving force being acquired based on information regarding a running route of the vehicle that is input from an external world recognition sensor and a physical amount regarding a motion state of the vehicle that is input from a vehicle motion state detection sensor, the apparatus being characterized in that it is further configured to output a signal regarding a steering correction torque for correcting a steering torque according to a behavior of the vehicle to a steering force controller configured to control a steering actuator of the vehicle, the signal regarding the steering correction torque being acquired based on a vehicle-body slip angle of the vehicle and the target braking/driving force, the vehicle-body slip angle being acquired based on the physical amount regarding the motion state of the vehicle, and set a base-point steering angle that makes the steering torque zero to a steering angle at which a front-wheel slip angle acquired based on the vehicle-body slip angle is equivalent to zero, and output a signal regarding the base-point steering angle to the steering force controller as the signal regarding the steering correction torque. output a signal regarding a target braking/driving force for guiding a vehicle in a target traveling direction to a braking/driving controller configured to control a braking/driving actuator of the vehicle, the signal regarding the target braking/driving force being acquired based on information regarding a running route of the vehicle that is input from an external world recognition sensor and a physical amount regarding a motion state of the vehicle that is input from a vehicle motion state detection sensor, the apparatus being characterized in that it is further configured to output a signal regarding a steering correction torque for correcting a steering torque according to a behavior of the vehicle to a steering force controller configured to control a steering actuator of the vehicle, the signal regarding the steering correction torque being acquired based on a vehicle-body slip angle of the vehicle and the target braking/driving force, the vehicle-body slip angle being acquired based on the physical amount regarding the motion state of the vehicle, and set a base-point steering angle that makes the steering torque zero to a steering angle at which a front-wheel slip angle acquired based on the vehicle-body slip angle is equivalent to zero, and output a signal regarding the base-point steering angle to the steering force controller as the signal regarding the steering correction torque.
A wave capturing and attenuating structure comprising at least one pair of floating structures each coupled with each other such that the structure is arranged along a wave-encountering line for capturing water-surface waves, wherein the respective floating structures comprise: a body consisting of a floating floor and a side wall extended down from a perimeter of the floating floor; and a floating member connected to the floating floor of said body in order to support said body for submerging in the water, wherein said floating member comprises a wave baffle having at least one part of the baffle located above the water-surface level, wherein said wave baffle of said floating member comprises a surface formed as a vertical plane and inclined at an acute angle with respect to a line extended along the length of said body as viewed from above, wherein each pair of said floating structures is fixed together by a fixing means, such that they are spaced apart from each other, and a passageway is formed into the wave passage, and, therefore, each said floating structure is forced to face an incoming wave, whereby said structure further comprises: a float (50, 60, 70) attached to the rear with respect to said floating structure, and the float (50, 60, 70) is spaced apart from said passageway arranged between the pair of said floating structures for attenuating the wave departed from said passageway, wherein said float (50, 60, 70) comprises a floatable body (61, 71), characterised in that said float further comprises a support plate (68, 78) in the form of a flat plate and located below the water surface and underneath said body (61, 71) in order to assist in stabilization of said float (50, 60, 70). a body consisting of a floating floor and a side wall extended down from a perimeter of the floating floor; and a floating member connected to the floating floor of said body in order to support said body for submerging in the water, wherein said floating member comprises a wave baffle having at least one part of the baffle located above the water-surface level, wherein said wave baffle of said floating member comprises a surface formed as a vertical plane and inclined at an acute angle with respect to a line extended along the length of said body as viewed from above, wherein each pair of said floating structures is fixed together by a fixing means, such that they are spaced apart from each other, and a passageway is formed into the wave passage, and, therefore, each said floating structure is forced to face an incoming wave, whereby said structure further comprises: a float (50, 60, 70) attached to the rear with respect to said floating structure, and the float (50, 60, 70) is spaced apart from said passageway arranged between the pair of said floating structures for attenuating the wave departed from said passageway, wherein said float (50, 60, 70) comprises a floatable body (61, 71), characterised in that said float further comprises a support plate (68, 78) in the form of a flat plate and located below the water surface and underneath said body (61, 71) in order to assist in stabilization of said float (50, 60, 70).
A data buffer memory for storing data in a data communications network, characterized in a data section comprising a number of memory pages; and a package descriptor section comprising a number of package descriptors; wherein at least one queue of packets is configured to be stored in the data section as an ordered set of packages, and wherein a package is an ordered set of packets; and wherein each package descriptor of a package includes a field pointing to a next package unless the package is a last package in the at least one queue, a linked list of package descriptors is stored in the data buffer memory, each package has a minimum size that is greater than a minimum packet size to increase latency of reading the linked list elements, the data buffer memory is a dynamic random access memory, and a minimum time between two consecutive accesses to arbitrary addresses in the dynamic random access memory is less than a maximum time permitted between two minimum-size packets transmitted at a predetermined line-rate.
A method performed by a User Equipment, UE, for handling authorization in relation to a mobility procedure in a wireless communications network, the method comprising: obtaining at least one security token, receiving from a network node in the wireless communications network, a mobility command for the mobility procedure, which mobility command comprises a security token, and which mobility command relates to a protocol layer below a Radio Resource Control, RRC, protocol, deciding whether or not the mobility command is authorized, based on comparing the security token in the mobility command with the at least one obtained security token. obtaining at least one security token, receiving from a network node in the wireless communications network, a mobility command for the mobility procedure, which mobility command comprises a security token, and which mobility command relates to a protocol layer below a Radio Resource Control, RRC, protocol, deciding whether or not the mobility command is authorized, based on comparing the security token in the mobility command with the at least one obtained security token.
A terminal, comprising: a reception unit configured to receive configuration information with respect to a number of available random access preamble indexes, the configuration information including a number of random access preamble indexes that are available for both one synchronization signal block and a resource for transmitting one random access preamble; a control unit configured to select, based on the configuration information, a resource for transmitting a random access preamble associated with one synchronization signal block including a primary synchronization signal, a secondary synchronization signal and a physical broadcast channel, the one synchronization signal block being selected from a synchronization block set including one or more synchronization signal blocks, and to determine a range of available random access preamble indexes in the selected resource; and a transmission unit configured to transmit the random access preamble within the determined range, wherein after the selected synchronization signal block is associated with the selected resource a plurality of times within a period, when there is an unused resource within the period, the transmission unit is configured not to transmit the random access preamble in the unused resource. a reception unit configured to receive configuration information with respect to a number of available random access preamble indexes, the configuration information including a number of random access preamble indexes that are available for both one synchronization signal block and a resource for transmitting one random access preamble; a control unit configured to select, based on the configuration information, a resource for transmitting a random access preamble associated with one synchronization signal block including a primary synchronization signal, a secondary synchronization signal and a physical broadcast channel, the one synchronization signal block being selected from a synchronization block set including one or more synchronization signal blocks, and to determine a range of available random access preamble indexes in the selected resource; and a transmission unit configured to transmit the random access preamble within the determined range, wherein after the selected synchronization signal block is associated with the selected resource a plurality of times within a period, when there is an unused resource within the period, the transmission unit is configured not to transmit the random access preamble in the unused resource.
A method for 3-dimensional point cloud reconstruction, comprising: obtaining image data in a current view angle; generating voxels of a target object in the current view angle according to the image data, the voxels of the target object including a first voxel, and the first voxel containing depth information; if a value of the depth information of the first voxel is not within a preset range, the preset range being based on a surface of the target object, discarding the first voxel; if the value of the depth information of the first voxel is within the preset range, fusing the first voxel with stored voxels; and the method being characterized in that generating the voxels of the target object in the current view angle according to the image data includes: determining, according to the image data, whether the target object is a moving object; and if the target object is a moving object, generating the voxels of the target object such that a value of depth information of each voxel in the target object is not within the preset range. obtaining image data in a current view angle; generating voxels of a target object in the current view angle according to the image data, the voxels of the target object including a first voxel, and the first voxel containing depth information; if a value of the depth information of the first voxel is not within a preset range, the preset range being based on a surface of the target object, discarding the first voxel; if the value of the depth information of the first voxel is within the preset range, fusing the first voxel with stored voxels; and the method being characterized in that generating the voxels of the target object in the current view angle according to the image data includes: determining, according to the image data, whether the target object is a moving object; and if the target object is a moving object, generating the voxels of the target object such that a value of depth information of each voxel in the target object is not within the preset range. determining, according to the image data, whether the target object is a moving object; and if the target object is a moving object, generating the voxels of the target object such that a value of depth information of each voxel in the target object is not within the preset range.
A drug delivery device for selecting and dispensing a number of user variable doses of a medicament comprising a housing (10, 20) defining a longitudinal axis, a dose selector for selecting a dose by rotation relative to the housing (10, 20), a dosing element (40, 130), and a releasable clutch (45, 143) for rotationally coupling the dosing element (40, 130) to the dose selector during dose selecting and for rotationally decoupling the dosing element (40, 130) from the dose selector during dose dispensing, characterized in that the clutch (45, 143) comprises at least one male spline, at least one corresponding female spline and at least one curved or inclined surface which is orientated with respect to the longitudinal axis such that re-engagement of the clutch (45, 143) guides the at least one male spline into a predefined rotational orientation with respect to the at least one female spline.
A device (20; 120; 220) for buffering a flow of articles comprising: an infeed conveyor (22; 122; 222); an outfeed conveyor (24; 124; 224); and at least two accumulation conveyors (26, 28, 30, 32, 34; 126, 128, 130, 132, 134; 226, 228, 230, 232, 234) defining a path extending between the infeed conveyor and the outfeed conveyor, wherein: each accumulation conveyor includes an entrance portion (36; 136; 236) adjacent the infeed conveyor for receiving articles from the infeed conveyor and an exit portion (38; 138; 238) adjacent the outfeed conveyor for delivering articles to the outfeed conveyor; each accumulation conveyor has a first lateral side and a second lateral side; and each accumulation conveyor is configured to slide articles both onto and off thereon along one of the first lateral side and the second lateral side, characterised in that; each accumulation conveyor includes a movable diverter mechanism located along the infeed conveyer (22; 122; 222) adjacent the respective entrance portion (36; 136; 326), each movable diverter mechanism is configured for selectively diverting articles from the infeed conveyor (22; 122; 222) to each respective accumulation conveyer. an infeed conveyor (22; 122; 222); an outfeed conveyor (24; 124; 224); and at least two accumulation conveyors (26, 28, 30, 32, 34; 126, 128, 130, 132, 134; 226, 228, 230, 232, 234) defining a path extending between the infeed conveyor and the outfeed conveyor, wherein: each accumulation conveyor includes an entrance portion (36; 136; 236) adjacent the infeed conveyor for receiving articles from the infeed conveyor and an exit portion (38; 138; 238) adjacent the outfeed conveyor for delivering articles to the outfeed conveyor; each accumulation conveyor has a first lateral side and a second lateral side; and each accumulation conveyor is configured to slide articles both onto and off thereon along one of the first lateral side and the second lateral side, characterised in that; each accumulation conveyor includes an entrance portion (36; 136; 236) adjacent the infeed conveyor for receiving articles from the infeed conveyor and an exit portion (38; 138; 238) adjacent the outfeed conveyor for delivering articles to the outfeed conveyor; each accumulation conveyor has a first lateral side and a second lateral side; and each accumulation conveyor is configured to slide articles both onto and off thereon along one of the first lateral side and the second lateral side, characterised in that; each accumulation conveyor includes a movable diverter mechanism located along the infeed conveyer (22; 122; 222) adjacent the respective entrance portion (36; 136; 326), each movable diverter mechanism is configured for selectively diverting articles from the infeed conveyor (22; 122; 222) to each respective accumulation conveyer.
A cooling arrangement for cooling an electronic device in the passenger compartment of a motor vehicle, comprising an impeller based electric fan for cooling the electronic device, and an electronic fan controller to control said electric fan, wherein said fan controller has access to noise information correlating with the noise level in the surrounding of the electric fan, wherein said fan controller is adapted to control said electric fan on the basis of said noise information, characterised in that said fan controller has further access to passenger presence information indicating the presence or absence of at least one passenger in the passenger compartment, wherein said fan controller is further adapted to control said electric fan on the basis of said passenger presence information, wherein said fan controller is adapted to take into account, in said control of said electric fan, the parameter: - one or more vehicle doors open or closed, wherein fan control by said fan controller takes into account whether the door of the vehicle is or has been opened since an unlock of the vehicle to determine a human inside the vehicle. - one or more vehicle doors open or closed,