Current placement systems attempt to optimize several objectives, namely area, connection lenght, and timing performance. In this paper we present a timing-driven placer for standard-cell IC design. The placement algorithm follows the genetic paradigm. Besides optimizing for area and wire length, the placer minimizes the propogation delays on a predicted set of critical paths. The paths are enumerated using a new approach based on the notion of criticality. Experiments with test circuits demonstrate delay performance improvement by upto 20
In this paper we present a timing-driven placer for standard-cell IC design. The placement algorithm...
In this paper we present a timing-driven placer for standard-cell IC design. The placement algorithm...
In this paper we present a timing-driven placer for standard-cell IC design. The placement algorithm...
Current placement systems attempt to optimize several objectives, namely area, connection lenght, an...
Current placement systems attempt to optimize several objectives, namely area, connection lenght, an...
Current placement systems attempt to optimize several objectives, namely area, connection lenght, an...
Current placement systems attempt to optimize several objectives, namely area, connection length, an...
Current placement systems attempt to optimize several objectives, namely area, connection length, an...
Current placement systems attempt to optimize several objectives, namely area, connection length, an...
In this paper we present a timing -driven placer for standard-cell IC design. The placement algorith...
In this paper we present a timing -driven placer for standard-cell IC design. The placement algorith...
In this paper we present a timing -driven placer for standard-cell IC design. The placement algorith...
IN this paper we present a timing driven placer for standard cell IC design. The placement algorithm...
IN this paper we present a timing driven placer for standard cell IC design. The placement algorithm...
IN this paper we present a timing driven placer for standard cell IC design. The placement algorithm...
In this paper we present a timing-driven placer for standard-cell IC design. The placement algorithm...
In this paper we present a timing-driven placer for standard-cell IC design. The placement algorithm...
In this paper we present a timing-driven placer for standard-cell IC design. The placement algorithm...
Current placement systems attempt to optimize several objectives, namely area, connection lenght, an...
Current placement systems attempt to optimize several objectives, namely area, connection lenght, an...
Current placement systems attempt to optimize several objectives, namely area, connection lenght, an...
Current placement systems attempt to optimize several objectives, namely area, connection length, an...
Current placement systems attempt to optimize several objectives, namely area, connection length, an...
Current placement systems attempt to optimize several objectives, namely area, connection length, an...
In this paper we present a timing -driven placer for standard-cell IC design. The placement algorith...
In this paper we present a timing -driven placer for standard-cell IC design. The placement algorith...
In this paper we present a timing -driven placer for standard-cell IC design. The placement algorith...
IN this paper we present a timing driven placer for standard cell IC design. The placement algorithm...
IN this paper we present a timing driven placer for standard cell IC design. The placement algorithm...
IN this paper we present a timing driven placer for standard cell IC design. The placement algorithm...
In this paper we present a timing-driven placer for standard-cell IC design. The placement algorithm...
In this paper we present a timing-driven placer for standard-cell IC design. The placement algorithm...
In this paper we present a timing-driven placer for standard-cell IC design. The placement algorithm...