Friday, August 26th 2022
Intel Core i9-13900 (non-K) Spotted with 5.60 GHz Max Boost, Geekbenched
An Intel Core i9-13900 "Raptor Lake" (non-K) processor was spotted in the wild by Benchleaks. The non-K parts are expected to have 65 W Processor Base Power and aggressive power-management, compared to the unlocked i9-13900K, although the core configuration is identical: 8 P-cores, and 16 E-cores. Besides tighter power limits out of the box, and a locked multiplier, the i9-13900 also has lower clocks, with its maximum boost frequency for the P-cores set 5.60 GHz, compared to the 5.80 GHz of the i9-13900K. It's still a tad higher than the 5.40 GHz of the i7-13700K.
Tested in Geekbench 5.4.5, the i9-13900 scores 2130 points in the single-threaded test, and 20131 points in the multi-threaded one. Wccftech tabulated these scores in comparison to the current-gen flagship i9-12900K. The i9-13900 ends up 10 percent faster than the i9-12900K in the single-threaded test, and 17 percent faster in the multi-threaded. The single-threaded uplift is thanks to the higher IPC of the "Raptor Cove" P-core, and slightly higher boost clock; while the multi-threaded score is helped not just by the higher IPC, but also the addition of 8 more E-cores.
Sources:
Benchleaks (Twitter), Wccftech
Tested in Geekbench 5.4.5, the i9-13900 scores 2130 points in the single-threaded test, and 20131 points in the multi-threaded one. Wccftech tabulated these scores in comparison to the current-gen flagship i9-12900K. The i9-13900 ends up 10 percent faster than the i9-12900K in the single-threaded test, and 17 percent faster in the multi-threaded. The single-threaded uplift is thanks to the higher IPC of the "Raptor Cove" P-core, and slightly higher boost clock; while the multi-threaded score is helped not just by the higher IPC, but also the addition of 8 more E-cores.
77 Comments on Intel Core i9-13900 (non-K) Spotted with 5.60 GHz Max Boost, Geekbenched
Just a recap: IPC = Instruction per clock.
Instruction per clock * Frequency = Single Thread performance.
Still want to see the score in games vs Zen4 but I now think it will probably be much closer than initially thought. Not sure if Zen 4 or Raptor Lake will win, but there will be a fight for sure. At least until Zen4 X3D.
1- 5800H=11985HK=~12000 CBR23
2- 6900HS=~14000 CBR23
3- 12700H=12900HK=~16000 CBR23
5800H is about 25% slower then 12700H/1290HK at 75W.
AMD`s best is about 12% slower then Intels best at the same 75W.
You clearly read the graph wrong :(
Check for yourself the tests in real-life scenarios like Blender, video coding, gaming. On 90% of notebooks the AL mobile efficiency is terrible.
www.notebookcheck.net/Asus-Zenbook-S-13-OLED-laptop-review-Subnotebook-impresses-with-fast-AMD-Ryzen-7-6800U.633487.0.html
www.notebookcheck.net/AMD-Ryzen-7-6800U-outmuscles-the-Intel-Core-i7-1260P-and-the-Apple-M2-by-hefty-margins-in-PassMark-s-CPU-test-suite.634591.0.html
www.notebookcheck.net/Samsung-Galaxy-Book2-15-review-multimedia-laptop-with-Arc-A350M-fails-to-impress.642418.0.html
www.notebookcheck.net/Lenovo-
IdeaPad-Flex-5i-14IAU7-convertible-review-Core-i5-1235U-done-right.642379.0.html
Stop your arguing/bickering/insulting.
No need to be picky :)
12900 5.1GHz -> 13900 5.6GHz
12700 4.9GHz -> 13700 5.2GHz/5.3GHz
12600 4.8GHz -> 13600 5.0GHz
12500 4.6GHz -> 13500 4.7GHz
12400 4.4GHz -> 13400 4.4GHz
That's why this annoys me
Users either get locked to low power settings - and locked performance (look at all the pissed off intel laptop users we get in the throttlestop forum)
It's becoming:
1.CPU's are reviewed on high end unlocked supercooled platforms and everyone bases performance off those values
2. Home users get boards that lock the power limits down, and users never see that performance As long as they actually get more performance for that power consumption...
Newer intel advertising got more accurate or more honest, but they still have some pretty shitty efficiency: The only time they aren't bottom of the charts is when the E-cores are used.
Intels P cores are not efficient by any metric.
Ironically, 11th gen was pretty good single threaded, but pure garbage MT.
You cant discuss the performance of the P cores as if they have the efficiency of the E-cores - very little can or will use both, other than a few specific workloads and synthetic tests.
The E-cores do nothing for gamers, for example. TDP is thermal design power, not "total wattage" so they do both have some leniency here.
Seeing 65W TDP becoming 95W peak or similar was fine if those peak values weren't constant - because short boosts wouldnt overwhelm a 65W TDP designed cooler.
Intels 10700 broke that by making 65W become 215W, and it's been meaningless ever since.
I've already had arguments with people about that here, who will use 4K 60FPS results and show temps and wattages, in which case you could run a 2500K and get the same performance
If you're going to claim they're efficient, don't test and claim that efficiency when the CPU is underclocked and undervolted due to not having anything to do
These mangled claims mixing up the power efficiency when its not even boosted or using the higher clock speeds, performance and wattages are entirely a problem with misunderstanding - because the moment you're not GPU limited, you'll suddenly find your wattages and heat output shoot up massively.
Single threaded efficiency charts don't lie. They dont go away. They don't suddenly become wrong or meaningless because you found a niche situation where the CPU doesn't show those behaviours - in those same situations, the more efficient CPU's get even better, too.
See how 12700K use roughtly the same power as 5800X?
Using synthetic workload is probably the stupidest thing I have seen for gaming CPU
12600K demolish 5600X in term of efficiency too, but no everyone only care about synthetic benchmarks LOL
Like i've said all along, what about the moments you're not limited, and the CPU has to work harder?
In this shot, the intel CPU has the higher performance. Zero argument that they can do higher performance.
FPS is a good 20 higher. Winner.
CPU went from 102W to 125W (22.5%) and 80 to 106FPS (32.5%)
The higher your CPU usage gets, the less efficient it's going to be.
Over time, that's going to happen more and more often, and the moment you hit a title that's maxing out your CPU only one of those CPU's is going to hit 200W+
While i would agree that's acceptable for the higher FPS, it's not more efficient - that gain did not scale.
Compared to the plain 5800x, it did indeed do better.
But going back to what i'm bashing my head against the wall saying over and over:
That power consumption has to be worth it. We're seeing less efficiency here, but if a game ever wants more cores and more threads? That power consumption will go up and keep going up, because the CPU is less efficient over all. THAT is what synthetic testing shows you.
And before you argue about "but no game ever uses 100%" go google it. There's constant complaints about it online all over the web, currently most intel users pre 9th gen with 4-core i7's are experiencing the joys of 100% usage in several games, most recently the spiderman port. It wont be too long until that's 6 cores maxing out as the above screenshot shows, with 8 cores not long after.
84% usage on a 16 thread CPU? Yeah, that's a massive hint that you need to be prepared for what your 100% loads need to be sustained.
Which CPU is more efficient and better future proof? I would say the 12600K, well it came out a year later after all
The basic idea behind turbo boost algorithms is allowing short-term processing power bursts by taking advantage of the cooler's (and system's) thermal inertia before system limits are reached. This is possible also because CPUs are very good at not self-destroying themselves and can sustain being at their preset thermal limit without long-term issues, if done within reason.
To me, it's rather nice that CPUs are allowed to use much more power than the base level—in the past, when there was no AMD competition, frequencies were usually so low on locked models that they couldn't even reach the stated TDP under any realistic circumstance. This means that now even locked CPUs in a boosted state can be considered 'overclocked' relatively to the past, and that using a better cooler will lead to better sustained performance if power limits are unlocked or increased.
Of course, you have to configure such limits according to your system needs and capabilities; OEMs will generally do this on locked-down systems (typically laptops). It's gaming motherboard makers who have started breaking the system by providing basically unlocked limits by default.
But then, since power limits are actually flexible and intended to be adapted to one's configuration, what to test in CPU reviews? Non-OEM motherboard manufacturers tend to use "gamer" settings, and Intel does not care about it, so it's up to hardware reviewers to make sensible choices here, not just blindly use "motherboard defaults".
I expect that the more cores will be added in future processor generations, the greater the gains with increased power limits, but what's certain is that any CPU operating near the frequency limit will run inefficiently. For efficiency, there's no other choice than using lower frequencies and thus lower voltages, and gamers have to come to terms with that. An unlocked CPU that runs efficiently when pushed to the maximum is a CPU with deliberately low operating frequencies.
If you take off the cap and let it boost it will deliver more FPS for sure but, the power it will use will be inadequately higher.
the 12600K will be faster than a 5600x but not more efficient that is for sure. Especially in near future when lets say hypothetically, all of these 2 CPUs will have to be utilized 100% given there is no cap on power or frequency and they both work at stock.