WEDNESDAY, SEPTEMBER 23, 2026|No. 16065
AMD Processors

AMD Ryzen Processors See Significant Performance Gains Over Two Years

AMD's Ryzen processors have experienced a substantial performance increase, with comparable 8-core chips showing a 50% boost in speed between 2022 and 2024.

A close-up view of a modern computer processor chip.
A close-up view of a modern computer processor chip. · Photo by Brian Kostiuk on Unsplash
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People still tell me that CPUs are boring. That nothing much happens anymore.

Let us look at AMD Ryzen 7 processors from 2022 to 2024: the 5800X3D (Zen 3), the 7800X3D (Zen 4) and the 9800X3D (Zen 5). They are comparable 8-core chips with 3D V-Cache. I have written about them before, in How stagnant is CPU technology?

On Geekbench 6, performance went up by about 50% in two years.

20225800X3DZen 320237800X3DZen 420249800X3DZen 5
Single-core2,0162,4262,969
Multi-core11,83215,50818,751

The 2024 chip is 47% faster on a single core than the 2022 chip, and 58% faster with all cores.

The clock did not do that. Max boost went from 4.5 GHz to 5.2 GHz, a 15% increase.

2022Zen 32023Zen 42024Zen 5
Base3.4 GHz4.2 GHz4.7 GHz
Max boost4.5 GHz5.0 GHz5.2 GHz

The number of transistors is way up, by about 50%, from roughly 11 billion to 16 billion. Most of the extra transistors went into the core, not the cache.

How do you turn extra transistors into extra performance?

You make the core wider, and you give it more to work with. Dispatch width went from a maximum of 6 instructions per cycle to 8. The L2 cache per core doubled, from 512 KB to 1 MB. The L1 data cache went from 32 KB to 48 KB. Integer ALUs went from 4 to 6. The reorder buffer grew from 256 to 448 entries, so the processor can keep more instructions in flight and schedule them better.

Zen 32022Zen 42023Zen 52024
L2 cache per core512 KB1 MB1 MB
L1 data cache32 KB32 KB48 KB
Dispatch width668
Integer ALUs446
Reorder buffer256320448

For data parallelism (SIMD), Zen 5 is a different machine. Zen 3 and Zen 4 had four 256-bit SIMD arithmetic units. Zen 5 has four 512-bit units. Loads and stores widened the same way: two 512-bit loads per cycle, one 512-bit store.

Zen 32022Zen 42023Zen 52024
SIMD arithmetic units4 × 256-bit4 × 256-bit4 × 512-bit
Loads per cycle2 × 256-bit2 × 256-bit2 × 512-bit
Stores per cycle1 × 256-bit1 × 256-bit1 × 512-bit

I already made the point that processors are getting wider. This is what that looks like on a desktop chip you can buy.

What about the next step? Zen 6 is arriving. AMD is talking about a 256-core Epyc part (Venice) with a gigabyte of L3 cache. We do not yet know what the desktop cores will look like. It could be wild.

Further reading: AMD’s 256-core Epyc 9996 ‘Venice’ (Tom’s Hardware).

Daniel Lemire, "How did AMD Ryzen get 50% faster in two years?," in Daniel Lemire's blog, September 18, 2026, https://lemire.me/blog/2026/09/18/how-did-amd-ryzen-get-50-faster-in-two-years/.

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Daniel Lemire

A computer science professor at the University of Quebec (TELUQ). View all posts by Daniel Lemire

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