From WikiChip
Editing intel/microarchitectures/kaby lake
Warning: You are not logged in. Your IP address will be publicly visible if you make any edits. If you log in or create an account, your edits will be attributed to your username, along with other benefits.
The edit can be undone.
Please check the comparison below to verify that this is what you want to do, and then save the changes below to finish undoing the edit.
This page supports semantic in-text annotations (e.g. "[[Is specified as::World Heritage Site]]") to build structured and queryable content provided by Semantic MediaWiki. For a comprehensive description on how to use annotations or the #ask parser function, please have a look at the getting started, in-text annotation, or inline queries help pages.
Latest revision | Your text | ||
Line 213: | Line 213: | ||
== Architecture == | == Architecture == | ||
{{see also|intel/microarchitectures/skylake#Key_changes_from_Broadwell|l1=Skylake § Key changes from Broadwell}} | {{see also|intel/microarchitectures/skylake#Key_changes_from_Broadwell|l1=Skylake § Key changes from Broadwell}} | ||
+ | [[File:kaby lake silicon wafer.jpg|right|thumb|Kaby Lake silicon [[wafer]] with 7th generation core processor dies.]] | ||
While there is no change in pure IPC over Skylake and the actual microarchitecture is largely the same, Intel introduced a number of enhancements in Kaby Lake. Note that because of the improvements done to the process and the uplift in binning, it is the mostly the ultra-low power (i.e. mobile) processors that will see the most substantial gain. Likewise, the high-end models will see very little gain. The enhanced manufacturing process allowed Kaby Lake chips to be highly [[overclockable]] with models such as the [[Core i7-7700K]] capable of comfortably reaching 5 GHz for many people with a reasonable cooling setup. | While there is no change in pure IPC over Skylake and the actual microarchitecture is largely the same, Intel introduced a number of enhancements in Kaby Lake. Note that because of the improvements done to the process and the uplift in binning, it is the mostly the ultra-low power (i.e. mobile) processors that will see the most substantial gain. Likewise, the high-end models will see very little gain. The enhanced manufacturing process allowed Kaby Lake chips to be highly [[overclockable]] with models such as the [[Core i7-7700K]] capable of comfortably reaching 5 GHz for many people with a reasonable cooling setup. | ||
Line 589: | Line 590: | ||
<gallery mode=slideshow> | <gallery mode=slideshow> | ||
− | + | File:intel kaby lake r wafer.png|Wafer shot of {{intel|Kaby Lake R|l=core} | |
− | File:intel kaby lake r wafer.png|Wafer shot of {{intel|Kaby Lake R|l=core} | ||
</gallery> | </gallery> | ||
Facts about "Kaby Lake - Microarchitectures - Intel"
codename | Kaby Lake + |
core count | 2 + and 4 + |
designer | Intel + |
first launched | August 30, 2016 + |
full page name | intel/microarchitectures/kaby lake + |
instance of | microarchitecture + |
instruction set architecture | x86-64 + |
manufacturer | Intel + |
microarchitecture type | CPU + |
name | Kaby Lake + |
pipeline stages (max) | 19 + |
pipeline stages (min) | 14 + |
process | 14 nm (0.014 μm, 1.4e-5 mm) + |