Some CUDA dev misspoke when discussing HBM, saying it was integrated in the GPU die. Not worth mentioning really.I admittedly only skimmed the deck, but I am unclear on the specific claim. Which slide is being discussed?
Some CUDA dev misspoke when discussing HBM, saying it was integrated in the GPU die. Not worth mentioning really.I admittedly only skimmed the deck, but I am unclear on the specific claim. Which slide is being discussed?
No, it's not mandatory for the much smaller mobile GPUs where efficiency is rated higher than raw performance. That's why I'm suspecting, that the claimed efficiency numbers for Pascal are actually from an mobile GPU, not the high end one.Density improvement is pretty much mandatory, right?
And you can have either 65% higher speed at the same power, or 70% less power at the same speed?
Has anything been actually released yet on 16FF+? At least Apples chip is AFAIK 16FF, not 16FF+Does 16FF even exist anymore?
Huawei/HiSilicon Kirin 950 is on 16FF+Has anything been actually released yet on 16FF+? At least Apples chip is AFAIK 16FF, not 16FF+
Has anything been actually released yet on 16FF+? At least Apples chip is AFAIK 16FF, not 16FF+
Based on what? Tape-out was on 16FF. So unless they are developing a second revision right away, on different node, discarding the previous tape-out, I think it's unlikely that the first models are already going to be 16FF+. Neither for Polaris nor Pascal.Anyway I think but am not sure that both NV's upcoming SoC and GPU chips are on 16FF+.
Source for tape-out being 16FF?Based on what? Tape-out was on 16FF. So unless they are developing a second revision right away, on different node, discarding the previous tape-out, I think it's unlikely that the first models are already going to be 16FF+. Neither for Polaris nor Pascal.
Unless of course the delays from both vendors originate from the mutual decision to perform a second tape-out on 16FF+, in order not to risk being vastly undercut in terms of efficiency, respectively topped out in terms of performance by the competitor.
Mixed things up for AMD, my fault. Even though there is most likely an equivalent of the improvements made on 16FF+ for GF 14nm.Source for tape-out being 16FF?
So are Xilinx's new MPSoC's ( Taped out back in July) so at least TSMC can boast a win over Intel+Altera on the 14/16nm FGPA front.Huawei/HiSilicon Kirin 950 is on 16FF+
It's called 14LPP, versus the 14LPE used by first chips like A9Mixed things up for AMD, my fault. Even though there is most likely an equivalent of the improvements made on 16FF+ for GF 14nm.
Mixed things up for AMD, my fault. Even though there is most likely an equivalent of the improvements made on 16FF+ for GF 14nm.
Why 16FF? The time frame. 16FF+ wasn't even announced back then, TSMC just started marketing 16FF with siginficantly worse characteristics.
As mentioned earlier, the Kirin 950 is HiSilicon's first TSMC 16FF+ manufactured mobile SoC. This also makes the Chinese vendor second in line after Apple's to release mobile silicon based on the new manufacturing node.
In fact, HiSilicon explains that along with Apple they've been the two main lead partners of the Taiwanese semiconductor giant, and both parties have been working closely together to try to improve the design and to tune the process. In fact, the company revealed that first mass production (also commonly named as risk production) started as early as last January. Over the following months both companies cooperated to sort out bugs and imperfections in the design (chip revisions) to go up from 20% yield in the earliest runs to up to 80% yields and qualified mass production this last August.