Abstract: In some implementations, a controller may receive a command to adjust a setting of the screed assembly. The controller may obtain temperature data from one or more sensor devices of the screed assembly. The controller may determine, based on the temperature data, a corresponding temperature of one or more components of the screed assembly. The controller may selectively cause the setting to be adjusted or preventing the setting from being adjusted based on the corresponding temperature of the one or more components, the setting being adjusted based on determining that the corresponding temperature satisfies a temperature threshold, or the setting being prevented from being adjusted based on determining that the corresponding temperature does not satisfy the temperature threshold.

Abstract: An information handling system includes a compute device, a side cover, and a bezel. The side cover is placed in physical communication with the compute device. The side cover includes a mounting latch that rotates between an open position and a closed position. When in the closed position, the mounting latch securely mounts the compute device on a component. When bezel is placed in physical communication with the side cover, the bezel locks the mounting latch in the closed position.

Abstract: An information handling system includes a compute device, a side cover, and a bezel. The side cover is placed in physical communication with the compute device. The side cover includes a mounting latch that rotates between an open position and a closed position. When in the closed position, the mounting latch securely mounts the compute device on a component. When bezel is placed in physical communication with the side cover, the bezel locks the mounting latch in the closed position.

Abstract: An acoustical baffle includes a baffle housing, a lens, an acoustic foam, and a retaining mesh. The baffle housing includes a front panel having a channel, and first and second side panels. The first side panel is placed in physical contact with a first panel of a server chassis, and the second side panel is placed in physical contact with a second panel of the server chassis. The lens is in physical contact with the baffle housing, and fits within the channel of the front panel. The acoustic foam is in physical contact with the baffle housing, and includes an acoustic surface to absorb noise generated by cooling fans within the server chassis. The retaining mesh is in physical contact with the acoustic foam, and holds the acoustic foam within the acoustical baffle.

Abstract: An acoustical baffle includes a baffle housing, a lens, an acoustic foam, and a retaining mesh. The baffle housing includes a front panel having a channel, and first and second side panels. The first side panel is placed in physical contact with a first panel of a server chassis, and the second side panel is placed in physical contact with a second panel of the server chassis. The lens is in physical contact with the baffle housing, and fits within the channel of the front panel. The acoustic foam is in physical contact with the baffle housing, and includes an acoustic surface to absorb noise generated by cooling fans within the server chassis. The retaining mesh is in physical contact with the acoustic foam, and holds the acoustic foam within the acoustical baffle.

Abstract: There is provided a system and method of disaster preparedness and restoration of service of damaged or destroyed telecommunication network elements. A computer-implemented method of disaster backup for network elements includes establishing connectivity to a plurality of network elements. A host computer may transmit one or more commands to the network elements for invoking a computer routine to create a plurality of computer readable service continuity data to a local memory of the network elements. An automated system of computer executable components for disaster recovery of network elements includes a computer executable controller component that is configured to select a plurality of network elements designated for disaster backup action. A computer executable engine component is configured to establish connectivity to the plurality of network elements and to transmit one or more commands to the network elements so as to replicate service continuity data for each of said network elements.

Abstract: There is provided a system and method of disaster restoration of service of damaged or destroyed telecommunication network elements. A controller component is configured to select a damaged or destroyed network element after a disaster event. An engine component is configured to establish connectivity to an alternative network element and to transmit the service continuity data associated with the damaged or destroyed network element from a computer readable storage. The engine component is configured to execute one or more computer commands to the alternative network element so as to operate it with the service continuity data of damaged or destroyed network element. A restoration service package is transmitted to a replacement network element and instructed to use that service package to re-acquire the original network element's identity and provisioning information in order to restore the traffic that originally existed on the damaged or destroyed network element.

Abstract: Method and apparatus for dispensing aggregates for lawn improvement. Aggregates are delivered to the site in a primary dispensing vehicle, which is configured to allow a smaller secondary dispensing vehicle to be loaded with the aggregate directly from the primary vehicle. The process includes aerating the soil, distributing a variety of soil amendments evenly over the area to be treated and then dragging a unique drag mat over the area to make a smooth contour and to even the distribution of the aggregate.

Abstract: Method and apparatus for dispensing aggregates for lawn improvement. Aggregates are delivered to the site in a primary dispensing vehicle, which is configured to allow a smaller secondary dispensing vehicle to be loaded with the aggregate directly from the primary vehicle. The process includes aerating the soil, distributing a variety of soil amendments evenly over the area to be treated and then dragging a unique drag mat over the area to make a smooth contour and to even the distribution of the aggregate.