Do you have any source to back this claim? I know that node sizes are mostly meaningless at this point, but still this is invalidating 3 generations of node jumps on the TSMC/AMD side vs none on the intel side, surely it can't be that meaningless of a number?
Intel 14: 37.5
Intel 10: 100.8
TSMC 16/14/12: 28.88
TSMC 10: 52.51
TSMC 7: 96.5 to 113.9, depending on iteration.
TSMC 5: 173Its only Intel 10nm that is equivalent and we don’t have desktop CPUs on that process yet (if we will at all).
this has actually created an odd marketing dilemma for intel. despite having less IPC and worse power efficiency, intel's 14nm parts are actually faster than the new 10nm parts because the new process can't achieve such high clock speeds.
This is also a problem when moving designs to a new generation FPGA. You may find your current level of pipelining is no longer optimal and you should do more each cycle.
People seem to have this weird idea that IPC is unrelated to how things are manufactured.
[1] https://fuse.wikichip.org/news/2408/tsmc-7nm-hd-and-hp-cells...
Intel missing the boat on smartphone CPUs was a massive mistake, and ARMs are coming for their servers and laptops.
In the lab, yes, but aren't these the chips the Intel is failing to ship at scale, leading to desperate measures like rebadging old QA rejects as F-series CPUs?
Also, transistor density is a better measure than 5nm/7nm/10nm. That feature detail in nanometers is more or less pure marketing term and doesn't compare accurately. Intels transistor density is still better than the latest Ryzen but it looks like they will be matched or surpassed by the next gen AMD.