Add to ORKGhave led to a disruptive new regime for dig-ital chip designers, where Moore’s law con-tinues but CMOS scaling provides increasingly diminished fruits. As in prior years, the computational capabilities of chips are still increasing by 2.8 per process generation. However, a utilization wall1 lim-its us to only 1.4 of this benefit—causing large underclocked swaths of silicon area— hence the term dark silicon.2,3 Fortunately, simple scaling theory makes the utilization wall easy to derive, helping us to think intuitively about the problem. Tran-sistor density continues to improve by 2 every two years, and native transistor speed
tion lets us pack more cores on the same die, thermal and power delivery constraints have precluded ...
As chip designers face the prospect of increasingly dark silicon, there is increased interest in inc...
Silicon CMOS scaling continues to defy all previous doom and gloom scenarios and is poised to extend...
The emergence of dark silicon - a fundamental design constraint absent in the past generations - bri...
The emergence of dark silicon - a fundamental design constraint absent in past generations - brings ...
This book presents the state-of-the art of one of the main concerns with microprocessors today, a ph...
The advent of Dark Silicon as result of the limit on Dennard scaling forced modern processor designs...
For decades computer architects have taken advantage of Moore's law to get bigger, faster, and more ...
Application datasets grow faster than Moore’s Law [7,8], both in personal and desktop computing, as ...
Semiconductor industry is hitting the utilization wall and puts focus on parallel and heterogeneous ...
As chip designers face the prospect of increasingly dark silicon, there is increased interest in inc...
Ideal CMOS device scaling relies on scaling voltages down with lithographic dimensions at every tec...
As transistor scaling continues to push us into new design spaces, where power density is increasing...
The end of Dennard scaling has led to a large amount of inactive or significantly underclocked trans...
Besides stringent power and thermal constraints, a dark silicon chip is also subjected to various re...
tion lets us pack more cores on the same die, thermal and power delivery constraints have precluded ...
As chip designers face the prospect of increasingly dark silicon, there is increased interest in inc...
Silicon CMOS scaling continues to defy all previous doom and gloom scenarios and is poised to extend...
The emergence of dark silicon - a fundamental design constraint absent in the past generations - bri...
The emergence of dark silicon - a fundamental design constraint absent in past generations - brings ...
This book presents the state-of-the art of one of the main concerns with microprocessors today, a ph...
The advent of Dark Silicon as result of the limit on Dennard scaling forced modern processor designs...
For decades computer architects have taken advantage of Moore's law to get bigger, faster, and more ...
Application datasets grow faster than Moore’s Law [7,8], both in personal and desktop computing, as ...
Semiconductor industry is hitting the utilization wall and puts focus on parallel and heterogeneous ...
As chip designers face the prospect of increasingly dark silicon, there is increased interest in inc...
Ideal CMOS device scaling relies on scaling voltages down with lithographic dimensions at every tec...
As transistor scaling continues to push us into new design spaces, where power density is increasing...
The end of Dennard scaling has led to a large amount of inactive or significantly underclocked trans...
Besides stringent power and thermal constraints, a dark silicon chip is also subjected to various re...
tion lets us pack more cores on the same die, thermal and power delivery constraints have precluded ...
As chip designers face the prospect of increasingly dark silicon, there is increased interest in inc...
Silicon CMOS scaling continues to defy all previous doom and gloom scenarios and is poised to extend...