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- Nov 26, 2021
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Processor | Ryzen 7 5700X |
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Motherboard | ASUS TUF Gaming X570-PRO (WiFi 6) |
Cooling | Noctua NH-C14S (two fans) |
Memory | 2x16GB DDR4 3200 |
Video Card(s) | Reference Vega 64 |
Storage | Intel 665p 1TB, WD Black SN850X 2TB, Crucial MX300 1TB SATA, Samsung 830 256 GB SATA |
Display(s) | Nixeus NX-EDG27, and Samsung S23A700 |
Case | Fractal Design R5 |
Power Supply | Seasonic PRIME TITANIUM 850W |
Mouse | Logitech |
VR HMD | Oculus Rift |
Software | Windows 11 Pro, and Ubuntu 20.04 |
The process names are ridiculous, but when you look at the dimensions, you see that Intel 7 is comparable to TSMC's N7. The foundries resorted to more lying about process names when they fell behind Intel in the dark days of 28 nm. The first process that they lied about was the 14/16 nm node which should have been called 20 nm based upon the previous node being 28 nm.Yes, I'm aware of its characteristics, but it remains a rebrand of (aka, it is) Intel's 10ESF process. The one used in Raptor Lake is further tweaked to exceed the performance of what was seen in Alder Lake. It's only yet another reason as to why nm's are practically meaningless these days.
Good read: https://fuse.wikichip.org/news/525/...ntels-10nm-switching-to-cobalt-interconnects/
More marketing names. TSMC's N4 improves logic density by 6% compared to N5; it's N5 with some tweaks and no optical shrink.I think Ryzen was on 4nm already? the new Zen 7040 series APU is 4nm I thought? So why we talking about old tech for?
N4 is said to provide a small 6% die shrink through “standard cell innovation” and design rule changes that help realize better area efficiency