Working purely on lithographic nomenclature, Intel has three processes on 14nm: 14, 14+, and 14++. As shown to everyone at Intel's Technology Manufacturing Day a couple of months ago, these will be followed by a trio of 10nm processes: 10nm, 10nm+ (10+), and 10++. On the desktop, Core processors will go from 14 to 14+ to 14++, such that we move from Skylake to Kaby Lake to Coffee Lake. On the Laptop side, this goes from 14 to 14+ to 14++/10, such that we move from Skylake to Kaby Lake to Coffee Lake like the desktops, but also that at some time during the Coffee Lake generation, Cannon Lake will also be launched for laptops. The next node for both after this is 10+, which will be helmed by the Ice Lake architecture.
The real problem was Surface-specific custom drivers and settings that the Microsoft hardware team cooked up. The Skylake fiasco came to a head internally when Microsoft CEO Satya Nadella met with Lenovo last year and asked the firm, then the world's biggest maker of PCs, how it was dealing with the Skylake reliability issues. Lenovo was confused. No one was having any issues, he was told. I assume this led to some interesting conversations between the members of the Microsoft senior leadership team. But the net result was that Microsoft had to push out some existing designs quickly to get ahead of the reliability issues.
The Surface Book ultimately had a 17% return rate after its late-2015 launch, while the Surface Pro 4's return rate was 16%. So though Microsoft later pushed to improve subsequent releases, Panay's memo claims that "These improvements were unfortunately not reflected in the results of this [Consumer Reports] survey." The memo also reiterates high customer-satisfaction metrics, which Thurrott says "supports the contention that I made two days ago... Customers who spend more on premium products tend to be more satisfied even when they are unreliable because they need to justify their own decision-making process."
"He also suggests that what Consumer Reports calls a 'failure' is perhaps overly-broad and that some incidents -- like a frozen screen or unresponsive touch -- are not 'failures' but are rather just minor incidents that are easily rectified by the user."
So, assuming the August 15 SpaceX Falcon 9 rocket launch goes well, there will be a supercomputer headed into space -- using off-the-shelf hardware. Let's see if the idea pans out. "We may discover a set of parameters with which a supercomputer can successfully run for at least a year without errors," says Dr. Mark R. Fernandez, the mission's co-principal investigator for software and SGI's HPC technology officer. "Alternately, one or more components of the system will fail, in which case we will then do the typical failure analysis on Earth. That will let us learn what to change to make the systems more reliable in the future."
The article points out that the New Horizons spacecraft that just flew past Pluto has a 12MHz Mongoose-V CPU, based on the MIPS R3000 CPU. "You may remember its much faster ancestor: the chip that took you on adventures in the original Sony PlayStation, circa 1994."
Organizations such as Apache, Oracle, Cisco, Red Hat, Jenkins, VMWare, IBM, Intel, Adobe, HP, and SolarWinds , all issued security patches to fix their products. The Java deserialization flaw was so dangerous that Google engineers banded together in their free time to repair open-source Java libraries and limit the flaw's reach, patching over 2,600 projects. Now a similar issue was discovered in .NET. This research has been presented at the Black Hat and DEF CON security conferences. On page 5 [of this PDF], researchers included reviews for all the .NET and Java apps they analyzed, pointing out which ones are safe and how developers should use them to avoid deserialization attacks when working with JSON data.
Core i9-7980XE (18 cores, 36 threads): 2.6GHz; Boost, 4.2GHz to 4.4 GHz.
Core i9-7960X (16 cores, 32 threads): 2.8GHz; Boost, 4.2GHz to 4.4 GHz.
Core i9-7940X 14 cores, 28 threads: 3.1GHz; Boost: 4.3GHz to 4.4GHz.
Core i9-7920X (12 cores, 24 threads): 2.9-GHz; Boost: 4.3-GHz to 4.4GHz.
Note that the boost speeds refer to both Intel's Turbo Boost Technology 2.0 and 3.0. [...] Essentially, both Intel and AMD can claim the title of fastest processor. Threadripper's base clock speeds are faster, but Intel's boost speeds climb higher than Threadripper can. It's also important to note that while Threadripper consumes 180 watts, even the fastest Core i9 chips Intel has announced have a lower TDP of 165 watts.
Why this matters: The vast majority of new CPU sales are in new systems, and they likely won't be impacted by the incompatibility. However, there's also a very large and very vocal crowd of builders and upgraders who still swap out older, slower CPUs for newer, faster CPUs to maximize their investment. An upgrade-in-place doesn't sell an Intel chipset, but it at least keeps them on the Intel platform. If consumers are forced to dump an existing Z270 motherboard for a newer Z370 to get a six-core Coffee Lake CPU, Intel risks driving them into the arms of AMD and its Ryzen CPUs.