Abstract: A reconfigurable input/output controller (IOC) allows an adaptive computing engine (ACE) to communicate with external devices. The external devices can comprise a separate system on chip (SOC) or can be other devices or resources such as audio/visual output devices, memory, network or other communications, etc. The IOC allows different modes of transfer and performs necessary translation of input and output commands. In one embodiment, the IOC adheres to standard messaging and communication protocol used by other nodes in the ACE. This approach allows a uniform approach to the ACE design and provides advantages in scalability and adaptability of the ACE system. One feature of the invention provides a physical link adapter for accommodating different external communication types such as, RS231, optical, Firewire, universal synchronous bus (USB), etc.

Abstract: A memory controller to provide memory access services in an adaptive computing engine is provided. The controller comprises: a network interface configured to receive a memory request from a programmable network; and a memory interface configured to access a memory to fulfill the memory request from the programmable network, wherein the memory interface receives and provides data for the memory request to the network interface, the network interface configured to send data to and receive data from the programmable network.

Abstract: Antenna mounts to enable a conventional antenna to be securely attached to a motor vehicle, such as a standard pick-up truck, and electrically connected to a radio that is carried by the truck. To increase the strength of the antenna mounts and thereby reduce the possibility that the antenna will snap off when subjected to high winds and other loads, the mounts are located through an existing hole that is established in a wall which surrounds the bed of many pick-up trucks. In one case, where the antenna mount is substantially recessed within a cavity below the existing hole in the wall, a fastener secures the antenna mount to the bottom of the cavity. In another case, where the antenna mount is partially recessed within the cavity, a pair of L-shaped clips are attached between opposite sides of the antenna mount and the top of the wall.

Abstract: A signal distribution architecture for clock and reset signal distribution in a programmable array is disclosed. The architecture includes separate networks for distributing clock and reset signals to logic cells of the array. Each network includes a plurality of column multiplexers for selecting a column clock or reset signal from a plurality of system clock or reset signals. Within each column of logic cells are positioned sector multiplexers for selecting a sector clock or reset signal from a plurality of column clock or reset signals. The clock and reset signals are applied to the combinatorial and sequential logic circuits of each logic cell associated with a given sector multiplexer. A clock gate circuit is controlled cooperatively with an output multiplexer in each logic cell. The networks are designed with features to minimize signal skew including signal source buffering, multiplexer signal buffering and output driver sizing as a function of signal propagation distance.

Abstract: A signal distribution architecture for clock and reset signal distribution in a programmable array is disclosed. The architecture includes separate networks for distributing clock and reset signals to logic cells of the array. Each network includes a plurality of column multiplexers for selecting a column clock or reset signal from a plurality of system clock or reset signals. Within each column of logic cells are positioned sector multiplexers for selecting a sector clock or reset signal from a plurality of column clock or reset signals. The clock and reset signals are applied to the combinatorial and sequential logic circuits of each logic cell associated with a given sector multiplexer. A clock gate circuit is controlled cooperatively with an output multiplexer in each logic cell. The networks are designed with features to minimize signal skew including signal source buffering, multiplexer signal buffering and output driver sizing as a function of signal propagation distance.

Abstract: A signal distribution architecture for clock and reset signal distribution in a programmable array is disclosed. The architecture includes separate networks for distributing clock and reset signals to logic cells of the array. Each network includes a plurality of column multiplexers for selecting a column clock or reset signal from a plurality of system clock or reset signals. Within each column of logic cells are positioned sector multiplexers for selecting a sector clock or reset signal from a plurality of column clock or reset signals. The clock and reset signals are applied to the combinatorial and sequential logic circuits of each logic cell associated with a given sector multiplexer. A clock gate circuit is controlled cooperatively with an output multiplexer in each logic cell. The networks are designed with features to minimize signal skew including signal source buffering, multiplexer signal buffering, and output driver sizing as a function of signal propagation distance.