Abstract: Methods and systems for processing signals and data are disclosed. An example method can comprise receiving a first portion of a first signal. An example method can comprise processing the first portion of the first signal based on a module. The module can comprise instructions for physical layer processing. An example method can comprise receiving an update for the module. The update can be configured to modify the instructions for physical layer processing. The module can be reconfigured based on the update. An example method can comprise processing at least one of a second portion of the first signal and a second signal based on the module reconfigured based on the update.

Abstract: Methods and systems for processing signals and data are disclosed. An example method can comprise receiving a first portion of a first signal. An example method can comprise processing the first portion of the first signal based on a module. The module can comprise instructions for physical layer processing. An example method can comprise receiving an update for the module. The update can be configured to modify the instructions for physical layer processing. The module can be reconfigured based on the update. An example method can comprise processing at least one of a second portion of the first signal and a second signal based on the module reconfigured based on the update.

Abstract: The present disclosure relates generally to an improvement in computer processing to achieve a new outcome in real time with lower processing requirements and more particularly to a system and method for optimal resource allocation implemented in real time with lower processing requirements to increase responsiveness. When an electronically formatted resource response is received by a central server processing subsystem, the electronically formatted resource response is analysed first for a unique offer identifier at entry to the central server processing subsystem to identify the offer and then for an accept or decline marker.

Abstract: The present disclosure relates generally to an improvement in computer processing to achieve a new outcome in real time with lower processing requirements and more particularly to a system and method for optimal resource allocation implemented in real time with lower processing requirements to increase responsiveness. When an electronically formatted resource response is received by a central server processing subsystem, the electronically formatted resource response is analysed first for a unique offer identifier at entry to the central server processing subsystem to identify the offer and then for an accept or decline marker.

Abstract: A remote operator interface (ROI) module is disclosed that provides remote access and control of a piece of industrial equipment. The ROI module includes a communications port for receiving wireless control commands from a computing device. A microprocessor or microcontroller process the control commands for communication to the piece of industrial equipment. In some embodiments, a computer program product is provided that provides an interface displayed on the computing device. Aspects of the computer program product may also be resident on the microprocessor or microcontroller for processing commands for compatibility with different types of industrial equipment.

Abstract: Methods and systems for processing signals and data are disclosed. An example method can comprise receiving a first portion of a first signal. An example method can comprise processing the first portion of the first signal based on a module. The module can comprise instructions for physical layer processing. An example method can comprise receiving an update for the module. The update can be configured to modify the instructions for physical layer processing. The module can be reconfigured based on the update. An example method can comprise processing at least one of a second portion of the first signal and a second signal based on the module reconfigured based on the update.

Abstract: A load cell for monitoring the axial load on a linear actuator. In one embodiment, the load cell is part of a bearing assembly positioned between a rotation bearing and a bearing housing.

Abstract: A friction stir weld apparatus having a linear drive actuator and a separate friction stir weld device. The linear actuator and the friction stir weld device are driven by concentric motors. In the preferred embodiment, the thrust member of the actuator is connected to the friction stir weld device within or adjacent to the friction stir weld device motor to advance and retract the friction stir weld deice along a linear axis concentric with the actuator and friction stir weld device motors.

Abstract: An apparatus for removing dust and fumes from a flow of air, particularly a flow of air exhausted from an industrial work area. There is a large, cylindrical filter element mounted within a cylindrical collector barrel so as to define an annular flow space between the two. A vane assembly is mounted at the top of the collector barrel for directing the incoming flow of air along a generally cyclonic path through the flow space, so that sparks and heavy particulates are forced outwardly away from the surface of the filter element, thereby increasing filter life and reducing the chance of fire. The filter element and collector barrel are mounted atop a cabinet which encloses a blower and a silencer section. The silencer section includes one ore more chambers having interior walls for redirecting the flow of air exiting the blower, and the walls are lined with an acoustic insulation material for absorbing sound energy as the flow of air is redirected, thus reducing noise emissions from the assembly.