Abstract: A processing device can identify gates of an integrated circuit design having a slack value less than a predefined slack threshold. The processing device can further, for each of the identified gates, determine (i) a number of nodes of the integrated circuit design that experience a timing slack improvement if the gate is swapped with an alternative implementation having a reduced delay or (ii) a sum of timing slack improvements experienced by nodes of the integrated circuit design if the gate is swapped with the alternative implementation having a reduced delay. The processing device can still further swap the gate with the alternative implementation having the reduced delay if the determined number or sum is greater than a corresponding predetermined threshold.

Abstract: A method for selecting gate sizes for a logic network of an integrated circuit, wherein the logic network is defined by a plurality of logic paths that includes nodes, gates and interconnect, includes assigning, at one or more computers, gate sizes to gates adjacent to timing path end nodes of the logic network, determining an n-tuple of performance/loading parameters for each of the assigned gate sizes based on gate and interconnect delay models, and determining whether two or more logic paths share a descendent gate. Two or more logic paths that share a descendent gate are coupled.

Abstract: For each of a plurality of interconnected gates forming one or more non-critical timing paths through a logic block, a gate size may be selected based on (i) a gate delay, (ii) a change in gate delay and gate power associated with downsizing the gate to a next available gate size, and (iii) signal arrival times at one or more inputs and outputs of the gate to minimize power consumed by the logic block while maintaining a specified cycle time.

Abstract: A system for selecting gates for an integrated circuit design may include at least one processing device configured to identify gates of the integrated circuit design having a slack value less than a predefined slack threshold. The at least one processing device may be further configured to, for each of the identified gates, determine (i) a number of nodes of the integrated circuit design that experience a timing slack improvement if the gate is swapped with an alternative implementation having a reduced delay or (ii) a sum of timing slack improvements experienced by nodes of the integrated circuit design if the gate is swapped with the alternative implementation having a reduced delay. The at least one processing device may still be further configured to swap the gate with the alternative implementation having the reduced delay if the determined number or sum is greater than a corresponding predetermined threshold.

Abstract: A method for selecting gate sizes for a logic network of an integrated circuit, wherein the logic network is defined by a plurality of logic paths that includes nodes, gates and interconnect, includes assigning, at one or more computers, gate sizes to gates adjacent to timing path end nodes of the logic network, determining an n-tuple of performance/loading parameters for each of the assigned gate sizes based on gate and interconnect delay models, and determining whether two or more logic paths share a descendant gate. Two or more logic paths that share a descendent gate are coupled.

Abstract: For each of a plurality of interconnected gates forming one or more non-critical timing paths through a logic block, a gate size may be selected based on (i) a gate delay, (ii) a change in gate delay and gate power associated with downsizing the gate to a next available gate size, and (iii) signal arrival times at one or more inputs and outputs of the gate to minimize power consumed by the logic block while maintaining a specified cycle time.

Abstract: A method for inserting repeaters into an integrated circuit synthesis is provided. The method initiates with identifying possible repeater insertion locations along a signal routing pathway within an integrated circuit design. The possible repeater insertion locations are organized in a tree enabling bottom-up traversal. A set of solutions for each of the insertion locations is generated while traversing the tree in a first direction and the set of solutions is organized in a first and a second set, the first set ordered by a late mode capacitive load and the second set order by an early mode capacitive load. A computer readable medium including program instructions representing the method operations and a system are also included.

Abstract: A method of inserting repeaters into a network to improve timing characteristics of the network. Extraction and timing tools provide an RC network description and a slack report describing electrical and timing characteristics of a network. The timing characteristics include required arrival times of a signal generated at a source to each of the sinks of the network. A maximum slew rate is also defined at each of the sinks. Initial candidate locations for insertion of repeaters is determined. For a given set of legal repeater sizes, one or more sets of midvalue repeater sizes are determined which are used in successive approximation to identify actual repeater sizes to be considered at each of the candidate locations. At each candidate location, capacitance, required arrival time, and slew rate value (c, q, s) are determined in a bottom-up procedure.