Abstract: An axle assembly for a working machine is provided. The axle assembly has an axle housing comprising a central portion housing a gear, wherein the gear is configured to rotate about an axis and is configured to be partially disposed in a lubricant reservoir, and at least one arm portion extending from the central portion, with the arm portion housing at least one driveshaft. The axle assembly further includes a conduit assembly configured to direct lubricant from the central portion to the arm portion, with the conduit assembly including a lubricant catcher having an inlet disposed in an interior volume of the central portion.

Abstract: An axle assembly for a working machine is provided. The axle assembly has an axle housing comprising a central portion housing a gear, wherein the gear is configured to rotate about an axis and is configured to be partially disposed in a lubricant reservoir, and at least one arm portion extending from the central portion, with the arm portion housing at least one driveshaft. The axle assembly further includes a conduit assembly configured to direct lubricant from the central portion to the arm portion, with the conduit assembly including a lubricant catcher having an inlet disposed in an interior volume of the central portion.

Abstract: A method includes identifying a first distributed conversion and control assembly (DCCA) in a central electronics complex (CEC) of a computer system, the CEC containing the first DCCA and a second DCCA, each of the first DCCA and the second DCCA having a flexible service processor (FSP); determining that the computer system satisfies preconditions for concurrent replacement of the first DCCA; disabling control software for a thermal and power management device (TPMD) of the first DCCA; fencing off the first DCCA; depowering the first DCCA; receiving a new media access control (MAC) address of a replacement DCCA; reconfiguring an operating system of the CEC to recognize the new MAC address of the replacement DCCA; powering on the replacement DCCA; removing the fencing off of the first DCCA; and resetting an FSP of the replacement DCCA.

Abstract: A method includes identifying a first distributed conversion and control assembly (DCCA) in a central electronics complex (CEC) of a computer system, the CEC containing the first DCCA and a second DCCA, each of the first DCCA and the second DCCA having a flexible service processor (FSP); determining that the computer system satisfies preconditions for concurrent replacement of the first DCCA; disabling control software for a thermal and power management device (TPMD) of the first DCCA; fencing off the first DCCA; depowering the first DCCA; receiving a new media access control (MAC) address of a replacement DCCA; reconfiguring an operating system of the CEC to recognize the new MAC address of the replacement DCCA; powering on the replacement DCCA; removing the fencing off of the first DCCA; and resetting an FSP of the replacement DCCA.

Abstract: In a parallel computing environment comprising a network of SMP nodes each having at least one processor, a parallel-aware co-scheduling method and system for improving the performance and scalability of a dedicated parallel job having synchronizing collective operations. The method and system uses a global co-scheduler and an operating system kernel dispatcher adapted to coordinate interfering system and daemon activities on a node and across nodes to promote intra-node and inter-node overlap of said interfering system and daemon activities as well as intra-node and inter-node overlap of said synchronizing collective operations. In this manner, the impact of random short-lived interruptions, such as timer-decrement processing and periodic daemon activity, on synchronizing collective operations is minimized on large processor-count SPMD bulk-synchronous programming styles.

Abstract: In a parallel computing environment comprising a network of SMP nodes each having at least one processor, a parallel-aware co-scheduling method and system for improving the performance and scalability of a dedicated parallel job having synchronizing collective operations. The method and system uses a global co-scheduler and an operating system kernel dispatcher adapted to coordinate interfering system and daemon activities on a node and across nodes to promote intra-node and inter-node overlap of said interfering system and daemon activities as well as intra-node and inter-node overlap of said synchronizing collective operations. In this manner, the impact of random short-lived interruptions, such as timer-decrement processing and periodic daemon activity, on synchronizing collective operations is minimized on large processor-count SPMD bulk-synchronous programming styles.