Abstract: A rotary encoder includes a stator and a shaft having a bearing configuration arranged in a housing. The shaft is rotatable relative to the housing via the bearing arrangement, and a rotor is attached to the shaft. A strain sensor arrangement, attached to the housing, is adapted to determine a malfunction of the bearing configuration. The housing has a flexible structure that facilitates transmitting forces associated with the bearing configuration to the strain sensor arrangement. The strain sensor arrangement is adapted to detect tension and/or compression associated with the housing, and a malfunction of the bearing configuration is determined based on the detected tension and/or compression.

Abstract: A method in a system is provided for handling failures in a process control system including a plurality of compute nodes. The process control system includes at least two instances of virtualized distributed control nodes, VDCNs, deployed in a respective compute node of a cluster of at least two compute nodes, wherein a first VDCN is a primary VDCN controlling an automated process and at least a second VDCN is a backup VDCN. The method includes detecting that the number of instances of the VDCNs is less than a set number and assigning the role of primary VDCN to the second VDCN. A device, computer program, computer program product and system are also disclosed.

Abstract: Communications network optical apparatus (100) comprising an optical module (120) and a controller (140). The optical module (120) comprises optical modulators (122), internal lasers (124) to generate internal optical signals, an input port (126) to receive an external optical signal from an external laser, optical routing devices (128) to route internal optical signals from internal lasers to optical modulators and to route an external optical signal from the input port to at least one of the optical modulators, and a temperature sensor (130) to sense a temperature of the internal lasers and to generate a temperature reporting signal.

Abstract: To perform wireless communication scheduling, a network node (700) calculates a corresponding layer limit for each of a plurality of scheduling intervals of a cell (20) served to a plurality of user equipment via multi-user multiple-input multiple-output (MU-MIMO). The network node (700) schedules time-frequency resource utilization such that, for each of the scheduling intervals, no time-frequency resource is scheduled for use by more of the UEs (200) than the layer limit corresponding to the scheduling interval.

Abstract: The embodiments herein relate to a method performed by a network node, for scheduling of a UE in UL. The network node is configured to schedule the UE using Frequency Selective Scheduling or resource fair scheduling. The network node estimates a PRBs for individual UEs, which are scheduled in the same cell and TTI. The network node determines whether the estimated number of PRBs fulfil one or more predetermined conditions. The network node determines to schedule the UEs using FSS when at least one of the one or more conditions are fulfilled, and determining to schedule the UEs using resource fair scheduling when none of the one or more predetermined conditions are fulfilled.

Abstract: A method for manufacturing a roll mantle or roll body for a roll line of a continuous casting apparatus that has a shaft includes casting a metal to form the roll mantle or roll body such that the roll mantle or roll body includes at least one internal channel. The roll mantle or roll body has a first end region, a second end region and a central region between the first end region and the second end region, the central region extending along at least 50% of a length of the roll mantle or roll body, and the internal channel may be formed in the central region. The internal channel may also include a pattern or projection.

Abstract: An apparatus for dispensing a solid oral dosage form is provided that includes one or more channels, each configured to store a plurality of units of the solid oral dosage form and having an outlet for dispensing the units therefrom. The apparatus further includes a rotatable shaft and a nut located on the shaft and configured to translate upon rotation of the shaft. The apparatus further includes one or more tines configured to translate with the nut. Each of the tine extends into a respective channel and is configured to push the units of the solid oral dosage form along the length of the respective channel to the outlet. Rotation of the shaft about its axis causes the units of the solid oral dosage form to be dispensed from the outlets of the channel(s) due to the translation of the one or more tines within the respective channel.

Abstract: A method, system and apparatus are disclosed. In one or more embodiments, a network node is provided. The network node includes processing circuitry configured to: determine an indication of a rate of change of radio resource control, RRC, connected wireless devices; and determine whether to modify a physical uplink control channel, PUCCH, physical resource block, PRB, allocation based at least on the rate of change of RRC connected wireless devices.

Abstract: To perform wireless communication scheduling, a network node (700) calculates a corresponding layer limit for each of a plurality of scheduling intervals of a cell (20) served to a plurality of user equipment via multi-user multiple-input multiple-output (MU-MIMO). The network node (700) schedules time-frequency resource utilization such that, for each of the scheduling intervals, no time-frequency resource is scheduled for use by more of the UEs (200) than the layer limit corresponding to the scheduling interval.

Abstract: A conductor joint (1) is provided for connecting two conductors along a longitudinal direction. The conductor joint comprises a first segment having a first segment end (202) adapted connecting to an end portion of a first conductor and a second segment (300) comprising a second segment end (302) relative to the longitudinal direction adapted for receiving a second conductor end of a second conductor. The second segment further has an opposite second segment end (304) fixed, or forming an integral part with, an opposite first segment end (204) of the first segment (200), a tubular sleeve (310) and a core rod (320) wherein ends (310a, 320a) of the tubular sleeve (310) and the core rod (320) are arranged with a radial offset forming a sleeve opening for receiving at the end portion of the second conductor end of the second conductor.

Abstract: A method for manufacturing a roll mantle or roll body for a roll line of a continuous casting apparatus that has a shaft includes casting a metal to form the roll mantle or roll body such that the roll mantle or roll body includes at least one internal channel. The roll mantle or roll body has a first end region, a second end region and a central region between the first end region and the second end region, the central region extending along at least 50% of a length of the roll mantle or roll body, and the internal channel may be formed in the central region. The internal channel may also include a pattern or projection.

Abstract: Embodiments herein relate to a method performed by a network node (110), for handling baseband resources in a wireless communications network (100). The network node (110) estimates an uplink resource need f( . . . ) and a downlink resource need g( . . . ) for a future Transmission Time Interval i based on resource metrics from one or more previous Transmission Time Intervals. The network node (110) determines a resource division between uplink and downlink based on the estimated uplink and downlink resource needs. The network node (110) further schedules the uplink and downlink resources based on the determined resource division.

Abstract: The embodiments herein relate to a method performed by a network node, for scheduling of a UE in UL. The network node is configured to schedule the UE using Frequency Selective Scheduling or resource fair scheduling. The network node estimates a PRBs for individual UEs, which are scheduled in the same cell and TTI. The network node determines whether the estimated number of PRBs fulfil one or more predetermined conditions. The network node determines to schedule the UEs using FSS when at least one of the one or more conditions are fulfilled, and determining to schedule the UEs using resource fair scheduling when none of the one or more predetermined conditions are fulfilled.

Abstract: A roll line unit for a continuous casting apparatus includes a roll mantle having two ends and a non-rotatable shaft including a coolant line. The roll mantle is rotatably mounted on the non-rotatable shaft by means of a first bearing located in a first end region of the roll mantle and a second bearing located in a second end region of the roll mantle. The roll mantle includes at least one coolant channel having at least one fluid inlet that is arranged to be in fluid communication with the coolant line. The roll line unit includes two outer seals located on an axially outward side of each of the first and second bearings, whereby the outer seals and the first and second bearings are located axially inwards of the ends of the roll mantle.

Abstract: A roll mantle or roll body configured to be mounted on a shaft of a roll line of a continuous casting apparatus, the roll mantle or roll body being formed by casting and having at least one internal channel. The roll mantle or roll body has a first end region, a second end region and a central region in between the first end region, and the second end region extends along at least 50% of the length of the roll mantle or roll body. The at least one internal channel may be located in the central region and may include a feature such as a pattern or projection.

Abstract: A roll line unit for a continuous casting apparatus includes a roll mantle or roll body surface rotatable relative to a support housing by means of bearing(s). The support housing has a seal(s) located axially outward relative to the at least one bearing and/or seal(s) located axially inward relative to the at least one bearing, and a lubrication system having lubricant reservoir(s) containing lubricant. The support housing has one or more cavities containing lubricant located adjacent to the seal disposed axially outward of the bearing(s) and/or the seal located axially inward of the bearing(s). The lubricant reservoir(s) is/are in fluid communication with the at least one cavity. An actuator within the lubricant reservoir(s) is arranged to move when the volume of lubricant increases in the cavity and/or the reservoir, and/or to push lubricant from the lubricant reservoir into the cavity when the amount of lubricant in the cavity decreases.

Abstract: A cable assembly (100) is provided having a first cable (20) having a first conductor (22), a second cable (40) having a second conductor (42) and an electrically conducting joining element (60). The joining element (60) comprises a first threaded end section (61) and a second threaded end section (62) opposite of the first end section (61. The first threaded end section (61) is connected to the first conductor (22). The second threaded end section (62) is connected to the second conductor (42). The present invention also relates to a method for joining a first cable (20) having a first conductor (22) and a second cable (40) having a second conductor (42).

Abstract: A conductor joint (1) is provided for connecting two conductors along a longitudinal direction. The conductor joint comprises a first segment having a first segment end (202) adapted connecting to an end portion of a first conductor and a second segment (300) comprising a second segment end (302) relative to the longitudinal direction adapted for receiving a second conductor end of a second conductor. The second segment further has an opposite second segment end (304) fixed, or forming an integral part with, an opposite first segment end (204) of the first segment (200), a tubular sleeve (310) and a core rod (320) wherein ends (310a, 320a) of the tubular sleeve (310) and the core rod (320) are arranged with a radial offset forming a sleeve opening for receiving at the end portion of the second conductor end of the second conductor.