Noise effects such as power supply and crosstalk can significantly affect the performance of deep submicron designs. These delay effects are highly input pattern dependent. Existing path selection and timing analysis techniques cannot capture the effects of noise on cell/interconnect delays. Therefore, the selected critical paths may not be the longest paths and predicted circuit performance might not reflect the worst-case circuit delay. In this paper, we propose a path selection technique that can consider power supply noise effects on the propagation delays. Next, for the selected critical paths, we propose a pattern generation technique for dynamic timing analysis such that the patterns produce the worst-case power supply noise effects ...
The sensitivity of very deep submicron designs to supply volt-age noise is increasing due to higher ...
This paper describes a novel technique to analyze the effects of supply voltage noise on circuit del...
As technology scales into the Deep Sub-Micron (DSM) regime, circuit designs have become more and mor...
[[abstract]]Noise effects such as power supply and crosstalk can significantly affect the performanc...
Noise effects such as power supply and crosstalk can significantly af-fect the performance of deep s...
[[abstract]]The performance of deep submicron designs can be affected by various parametric variatio...
Today's very deep sub-micron technologies enable highly complex chip designs that operate at very hi...
Today's very deep sub-micron technologies enable highly complex chip designs that operate at very hi...
In Deep Sub-Micron technologies post-layout timing analysis has become the most critical phase in th...
In Deep Sub-Micron technologies post-layout timing analysis has become the most critical phase in th...
The increased noise/interference effects, such as crosstalk, power supply noise, substrate noise and...
[[abstract]]Increased noise/interference effects, such as crosstalk, power supply noise, substrate n...
As technology scales into the Deep Sub-Micron (DSM) regime, circuit designs have become more and mor...
We address two problems of assessing the influence of power- supply variations on timing analysis. W...
As VLSI technology advances to gigascale integration, billions of transistors will be packed on a si...
The sensitivity of very deep submicron designs to supply volt-age noise is increasing due to higher ...
This paper describes a novel technique to analyze the effects of supply voltage noise on circuit del...
As technology scales into the Deep Sub-Micron (DSM) regime, circuit designs have become more and mor...
[[abstract]]Noise effects such as power supply and crosstalk can significantly affect the performanc...
Noise effects such as power supply and crosstalk can significantly af-fect the performance of deep s...
[[abstract]]The performance of deep submicron designs can be affected by various parametric variatio...
Today's very deep sub-micron technologies enable highly complex chip designs that operate at very hi...
Today's very deep sub-micron technologies enable highly complex chip designs that operate at very hi...
In Deep Sub-Micron technologies post-layout timing analysis has become the most critical phase in th...
In Deep Sub-Micron technologies post-layout timing analysis has become the most critical phase in th...
The increased noise/interference effects, such as crosstalk, power supply noise, substrate noise and...
[[abstract]]Increased noise/interference effects, such as crosstalk, power supply noise, substrate n...
As technology scales into the Deep Sub-Micron (DSM) regime, circuit designs have become more and mor...
We address two problems of assessing the influence of power- supply variations on timing analysis. W...
As VLSI technology advances to gigascale integration, billions of transistors will be packed on a si...
The sensitivity of very deep submicron designs to supply volt-age noise is increasing due to higher ...
This paper describes a novel technique to analyze the effects of supply voltage noise on circuit del...
As technology scales into the Deep Sub-Micron (DSM) regime, circuit designs have become more and mor...