Abstract: A Register Transfer Level (RTL) representation is recovered from a netlist representing an integrated circuit (IC). The netlist is converted to a graph comprising nodes belonging to a set of node types and edges connecting the nodes. The set of node types includes an instance node type representing an electronic component and a wire node type representing signal transfer between components. The graph is converted to a standardized graph by replacing subgraphs of the graph with standardized subgraphs. An RTL representation of the standardized graph is generated by operations including building signal declarations in a hardware description language (HDL) from the wire nodes of the standardized graph and building signal assignments in the HDL from instance nodes of the standardized graph.

Abstract: A Register Transfer Level (RTL) representation is recovered from a netlist representing an integrated circuit (IC). The netlist is converted to a graph comprising nodes belonging to a set of node types and edges connecting the nodes. The set of node types includes an instance node type representing an electronic component and a wire node type representing signal transfer between components. The graph is converted to a standardized graph by replacing subgraphs of the graph with standardized subgraphs. An RTL representation of the standardized graph is generated by operations including building signal declarations in a hardware description language (HDL) from the wire nodes of the standardized graph and building signal assignments in the HDL from instance nodes of the standardized graph.

Abstract: A Register Transfer Level (RTL) representation is recovered from a netlist representing an integrated circuit (IC). The netlist is converted to a graph comprising nodes belonging to a set of node types and edges connecting the nodes. The set of node types includes an instance node type representing an electronic component and a wire node type representing signal transfer between components. The graph is converted to a standardized graph by replacing subgraphs of the graph with standardized subgraphs. An RTL representation of the standardized graph is generated by operations including building signal declarations in a hardware description language (HDL) from the wire nodes of the standardized graph and building signal assignments in the HDL from instance nodes of the standardized graph.

Abstract: A Register Transfer Level (RTL) representation is recovered from a netlist representing an integrated circuit (IC). The netlist is converted to a graph comprising nodes belonging to a set of node types and edges connecting the nodes. The set of node types includes an instance node type representing an electronic component and a wire node type representing signal transfer between components. The graph is converted to a standardized graph by replacing subgraphs of the graph with standardized subgraphs. An RTL representation of the standardized graph is generated by operations including building signal declarations in a hardware description language (HDL) from the wire nodes of the standardized graph and building signal assignments in the HDL from instance nodes of the standardized graph.

Abstract: A Register Transfer Level (RTL) representation is recovered from a netlist representing an integrated circuit (IC). The netlist is converted to a graph comprising nodes belonging to a set of node types and edges connecting the nodes. The set of node types includes an instance node type representing an electronic component and a wire node type representing signal transfer between components. The graph is converted to a standardized graph by replacing subgraphs of the graph with standardized subgraphs. An RTL representation of the standardized graph is generated by operations including building signal declarations in a hardware description language (HDL) from the wire nodes of the standardized graph and building signal assignments in the HDL from instance nodes of the standardized graph.

Abstract: A waterfowl decoy motion system comprising a multiplicity of movable decoys and several idler pulley assemblies that contain a pulley disposed upon a vertical shaft, and a retaining assembly disposed over the pulley and connected to the vertical shaft. The retaining assembly has a minimum cross sectional dimension greater than the diameter of the pulley.

Abstract: A waterfowl decoy motion system comprising a multiplicity of movable decoys and several idler pulley assemblies that contain a pulley disposed upon a vertical shaft, and a retaining assembly disposed over the pulley and connected to the vertical shaft. The retaining assembly has a minimum cross sectional dimension greater than the diameter of the pulley.

Abstract: A waterfowl decoy motion system comprised of a multiplicity of movable decoys, a first elastic drive belt, means for connecting said first elastic drive belt to said movable decoys, a a primary drive pulley, a secondary drive pulley, an electric motor connected to said secondary drive pulley, and a multiplicity of idler puller assemblies.

Abstract: A waterfowl decoy motion system comprised of a multiplicity of movable decoys, a first elastic drive belt, means for connecting said first elastic drive belt to said movable decoys, a primary drive pulley, a secondary drive pulley, an electric motor connected to said secondary drive pulley, and a multiplicity of idler puller assemblies.