Abstract In this paper we present a polynomial-time algorithm for retiming synchronous circuits with edge-triggered registers under setup and hold constraints. Given a circuit G and a target clock period c, our algorithm computes in O(V 3E) steps a retimed circuit that achieves c and is free of hold violations, where V is the circuit's gate count, and E is the number of wires in the circuit. This is the first polynomial-time algorithm ever reported for retiming with constraints on both long and short paths. The asymptotically efficient operation of our algorithm is based on a novel formulation of the timing constraints as an integer monotonic program with O(E 2) inequalities
In this report, we study more deeply the retiming techniques that are useful both for automatic para...
Retiming is a widely investigated technique for performance optimization. In general, it performs ex...
We investigate two strategies for reducing the clock period of a two-phase, levelclocked circuit: cl...
In this paper we present a polynomial-time algorithm for retiming synchronous circuits with edge-tri...
This paper describes a polynomial time algorithm for min-area retiming for edge-triggered circuits t...
This paper describes a polynomial time algorithm for min-area retiming for edge-triggered circuits t...
The retiming transformation can be used to optimize synchronous circuits for maximum speed of operat...
This paper describes a polynomial time algorithm for min-area re-timing for edge-triggered circuits ...
This paper investigates the application of simultaneous retiming and clock scheduling for optimizing...
In this paper, we study the problem of retiming of sequential circuits with both interconnect and ga...
Retiming is an efficient technique for redistributing reg-isters in synchronous circuits in order to...
Retiming is a widely investigated technique for performance optimization. It performs powerful modif...
Retiming is a powerful technique for optimizing sequential circuits. The transparent nature of level...
In this paper, we present a new linear-time retiming algorithm that produces near-optimal results. O...
Tim is a versatile and efficient tool for verifying and optimizing the timing of two-phase, level-cl...
In this report, we study more deeply the retiming techniques that are useful both for automatic para...
Retiming is a widely investigated technique for performance optimization. In general, it performs ex...
We investigate two strategies for reducing the clock period of a two-phase, levelclocked circuit: cl...
In this paper we present a polynomial-time algorithm for retiming synchronous circuits with edge-tri...
This paper describes a polynomial time algorithm for min-area retiming for edge-triggered circuits t...
This paper describes a polynomial time algorithm for min-area retiming for edge-triggered circuits t...
The retiming transformation can be used to optimize synchronous circuits for maximum speed of operat...
This paper describes a polynomial time algorithm for min-area re-timing for edge-triggered circuits ...
This paper investigates the application of simultaneous retiming and clock scheduling for optimizing...
In this paper, we study the problem of retiming of sequential circuits with both interconnect and ga...
Retiming is an efficient technique for redistributing reg-isters in synchronous circuits in order to...
Retiming is a widely investigated technique for performance optimization. It performs powerful modif...
Retiming is a powerful technique for optimizing sequential circuits. The transparent nature of level...
In this paper, we present a new linear-time retiming algorithm that produces near-optimal results. O...
Tim is a versatile and efficient tool for verifying and optimizing the timing of two-phase, level-cl...
In this report, we study more deeply the retiming techniques that are useful both for automatic para...
Retiming is a widely investigated technique for performance optimization. In general, it performs ex...
We investigate two strategies for reducing the clock period of a two-phase, levelclocked circuit: cl...