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== 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}}
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[[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.
  
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<gallery mode=slideshow>
 
<gallery mode=slideshow>
File:kaby lake silicon wafer.jpg|Kaby Lake silicon [[wafer]] with 7th generation core processor dies.
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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}}, 8th generation core.
 
 
</gallery>
 
</gallery>
  

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codenameKaby Lake +
core count2 + and 4 +
designerIntel +
first launchedAugust 30, 2016 +
full page nameintel/microarchitectures/kaby lake +
instance ofmicroarchitecture +
instruction set architecturex86-64 +
manufacturerIntel +
microarchitecture typeCPU +
nameKaby Lake +
pipeline stages (max)19 +
pipeline stages (min)14 +
process14 nm (0.014 μm, 1.4e-5 mm) +