Intel Core i9-13900KS 6GHz CPU Benchmarks: Breaking Records
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Back in September, Intel CEO Pat Gelsinger announced Raptor Lake, the company’s 13th generation of Core processors, and teased a chip coming to stores in early 2023 that would be able to hit 6GHz right out of the box. Well, it’s now 2023, and Intel launched the world’s first 6GHz CPU this morning. Bearing the name Core i9-13900KS, this speed demon takes the eight Performance cores (P-cores) of the i9-13900K and boosts their max frequency by 200MHz, to achieve that 6GHz frequency.
This increase in performance comes at a $110 price premium over the existing Core i9-13900K, putting the MSRP of the 13900KS at $699. However, finding one of these 6GHz processors at MSRP may be challenging at first, as the CPU is currently listed at $70 over MSRP on Amazon. Fortunately, we were able to get our hands on one of these puppies thanks to our friends at Falcon Northwest, and we have some initial performance numbers to share.
Falcon Northwest sent over one of its compact FragBox PCs for review (full review coming soon). Our review unit features the hot new i9-13900KS paired with a NVIDIA GeForce RTX 4090 GPU. The fact that Falcon Northwest managed to fit these two beasts into a relatively small package with adequate cooling is impressive. Nonetheless, physics dictates that the thermal capacity of the compact, small form factor system will be limited in comparison to larger rigs, and in some circumstances may hold back the 6GHz processor somewhat when under heavy load.
When launching programs, we saw a few of the P-cores in the i9-13900KS jump up to that magic 6GHz number, but sustaining that number likely won’t be possible without top-shelf cooling. Under sustained load, the CPU temperatures quickly climbed to 100°C and the P-cores mostly hovered around 5.6GHz, often dipping down to 5.5GHz. The water cooler, radiator, and fans in this little rig do their best to keep up, but the i9-13900KS may be able to sustain higher frequencies in a setup with higher cooling capacity.
Keep this potential thermal limitation in mind while looking at our test results below, as the other processors were benchmarked in a larger chassis, with additional air volume, more fans, and more distance separating the CPU and GPU. In a couple of the charts, the i9-13900KS lands below the i9-13900K. Nonetheless, these two Intel CPUs still lead the entire pack, and the i9-13900KS jumps ahead elsewhere, putting up higher numbers than we’ve ever seen before from a stock CPU and indicating outstanding performance. Take a look for yourself below.
Geekbench v5.4.1 CPU Benchmark
In the GeekBench tests, we’re stressing only the CPU cores in a system (not the graphics card/GPU), with both single and multi-threaded workloads. The tests are comprised of encryption processing, image compression, HTML5 parsing, physics calculations and other general purpose compute processing workloads.
Speedometer 2. 0 Benchmark
Here we have numbers from the Speedometer 2.0 tests available at browserbench.org. The Speedometer Benchmark Suite uses a wide array of latency and throughput benchmarks to evaluate web application performance, then tabulates all the individual results into a final score. This benchmarks measures performance of an array of browser-based technologies used on modern, rich web applications. Scores in this benchmark are an indicator of the performance users would see when browsing the web and running advanced web apps. All of the systems were tested using the latest version of Microsoft’s Edge browser, with default browser settings, on a clean, fully-updated install of Windows 11.
Cinebench R23 Rendering Benchmark
Cinebench is a rendering performance test based on Maxon’s Cinema 4D, which is a 3D rendering and animation tool suite used by animation houses and producers like Sony Animation and many others. It’s very demanding on system processor resources, and it can utilize any number of threads, which make it an excellent gauge of computational throughput. This is a multi-threaded, multi-processor aware benchmark that renders and animates 3D scenes and tracks the length of the entire process. The rate at which each test system was able to render the entire scene is represented in the graph below.
UL PCMark 10 Benchmarks
Next up, we have some full-system testing with PCMark. We’re reporting all test results from the PCMark 10 benchmark suite, including the Essentials, Productivity, Digital Content Creation and and total PCMark score. The Essentials test covers workloads like web browsing, video conferencing and app start-up times, while Productivity tests everyday office apps from spreadsheets to word processing. Finally, the Digital Content Creation test evaluates performance of a machine with respect to photo and video editing, as well as rendering and visualization.
UL 3DMark CPU Physics Benchmark
This final test is a little bit academic, because there are very few (if any) games that use multi-threaded physics in the way that this test simulates. As such, this test will scale to high numbers of cores, and it favors Intel’s architectures somewhat. AMD’s CPUs underperform in this benchmark compared to their real-world game performance.
This is just a quick taste of what the Intel Core i9-13900KS and the powerful, small form factor Falcon Northwest FragBox can do. We just got our hands on the system and are diligently poking, prodding, photographing, and testing it, and will have our full review — complete with many more benchmarks and images — published soon. We’re also hoping to take the Core i9-13900KS for a spin in our Raptor Lake test rig, to evaluate the CPU under the same conditions as the rest of the reference data here. So stay tuned for more — we’ll get everything published as fast as we can.
New benchmark suits multicore processors
August 11, 2016
Blog
Even if you’re just using a single-core microcontroller in your system design, chances are good that you aren’t running just one function or kernel. T…
Even if you’re just using a single-core microcontroller in your system design, chances are good that you aren’t running just one function or kernel. This is even more true for a multicore processor. Hence, the performance benchmarks that you run to compare and contrast the various devices or analyze the capability of your system should also be comprised of more complex multi-function and parallel workloads.
What does this mean exactly? From a theoretical perspective, it means that the system should be utilizing at least a minimal scheduler to help coordinate the execution of the workload’s components (the scheduler could also be part of an RTOS or more advanced OS such as Linux).
From a practical perspective, take a look at the original EEMBC AutoBench benchmark, comprised of 16 single-function, serial-coded kernels (this version of AutoBench dates back to 1999, long before multicore processors were the norm). Does this benchmark run faster on a 1-GHz single-core processor or a 250-MHz quad-core processor? The simple answer is that the former processor would be 4X faster because the out-of-the-box AutoBench would only run on one core because each kernel is single-threaded.
While it’s possible to run the AutoBench kernels in multicore mode by instructing the operating system to launch multiple instances of each kernel, it’s more realistic to run more complex workloads that are subdivided as separate threads. For this reason, EEMBC recently launched AutoBench 2.0, the multicore version that integrates with the consortium’s MultiBench tool.
With the increasing adoption of multicore technology into automotive applications, AutoBench 2.0 provides an important performance metric for system designers testing the efficacy of multicore processors. To demonstrate the effectiveness of the new benchmark, we ran the workloads on a Linux-based Intel Xeon (yes, I know this isn’t an automotive processor, but it provides an easy-to-use test platform).
Results show that when running on 1, 2, 4, and 8 cores, the geometric mean of all workload scores goes from 275, 519, 785, and 1108, respectively. This represents a scaling of 1.9, 2.9, and 4.0, demonstrating that the more workload contexts that are enabled, the more overhead that’s brought into play. From a benchmark perspective, this is a good thing. In other words, it wouldn’t be a very good multicore benchmark if the processor results scaled linearly with the number of cores.
Markus Levy is president of EEMBC, which he founded in April 1997. As president, he manages the business, marketing, press relations, member logistics, and supervision of technical development. Mr. Levy is also president of the Multicore Association, which he co-founded in 2005.
Markus Levy, EEMBC
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Processor Performance Rating — PassMark, specs and scores
The most popular benchmark, PassMark is a test suite that performs complex mathematical calculations to determine processor performance in file compression, encryption, and physics-related tasks.
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62410
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2.00 GHz
TDP (PL1)
200 W
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61057
Cores
64
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2. 00 GHz
TDP (PL1)
225 W
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61051
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24
Hertz
3.20 GHz
TDP (PL1)
240 W
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Score1
59155
Cores
24
Hertz
3.80 GHz
TDP (PL1)
125 W
Release date
Q4/2022
Processor
Intel Core i9-13900KF
Score1
59155
Cores
24 / 32
Hertz
3. 00 GHz (5.80 GHz)
TDP (PL1)
125 W
Release date
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Processor
AMD Epyc 7443
Score1
57891
Cores
24
Hertz
2.85 GHz
TDP (PL1)
200 W
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AMD Epyc 7443P
Score1
57806
Cores
24
Hertz
2.85 GHz
TDP (PL1)
200 W
Release date
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Processor
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Score1
57664
Cores
32
Hertz
2. 80 GHz
TDP (PL1)
225W
Release date
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Processor
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Score1
55032
Cores
24
Hertz
3.80 GHz
TDP (PL1)
280 W
Release date
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Processor
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Score1
53499
Cores
28
Hertz
2.75 GHz
TDP (PL1)
225 W
Release date
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Score1
52031
Cores
12 / 24
Hertz
4. 70 GHz
TDP (PL1)
170 W
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Processor
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Score1
51003
Cores
16/32
Hertz
4.00 GHz
TDP (PL1)
280 W
Release date
Q1/2022
Processor
AMD Epyc 7413
Score1
49021
Cores
24
Hertz
2.65 GHz
TDP (PL1)
180 W
Release date
Q1/2021
Processor
AMD Epyc 7742
Score1
47359
Cores
64
Hertz
2. 25 GHz
TDP (PL1)
225 W
Release date
Q3/2019
Processor
Intel Core i7-13700K
Score1
47002
Cores
16
Hertz
3.40 GHz
TDP (PL1)
125 W
Release date
Q4/2022
Processor
Intel Core i7-13700KF
Score1
47002
Cores
16 / 24
Hertz
3.40 GHz (5.40 GHz)
TDP (PL1)
125 W
Release date
Q4/2022
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Manufacturer | Model | Socket | Core | Number of cores |
---|---|---|---|---|
Intel | ||||
Intel | Pentium Gold G7400 | LGA 1200 | Alder Lake-S | 2 |
Intel | Celeron G6900 | LGA 1700 | 2 | |
Intel | Core i7-11700KF | LGA 1200 | Rocket Lake-S | 8 |
Intel | Core i5-10400 | LGA 1200 | Comet Lake-S | 6 |
Intel | Core i3-10100 | LGA 1200 | Comet Lake-S | 4 |
Intel | Celeron G5905 | LGA 1200 | Comet Lake-S | 2 |
Intel | Core i7-9700K | LGA 1151-2 | Coffee Lake | 8 |
Intel | Core i5-9600K | LGA 1151-2 | Coffee Lake | 6 |
Intel | Core i5-8600K | LGA 1151-2 | Coffee Lake | 6 |
Intel | Pentium Gold G5400 | LGA 1151-2 | Coffee Lake | 2 |
Intel | Core i7-6950X | LGA 2011-3 | Broadwell-E | 10 |
Intel | Core i7-6700K | LGA 1151 | Skylake-S | 4 |
Intel | Core i7-5960X | LGA 2011-3 | Haswell-E | 8 |
Intel | Core i5-5675C | LGA 1150 | Broadwell-H | 4 |
Intel | Core i7-4960X | LGA 2011 | Ivy Bridge-E | 6 |
Intel | Core i5-4690K | LGA 1150 | Haswell | 4 |
Intel | Core i7-4770K | LGA 1150 | Haswell | 4 |
Intel | Core i7-3930K | LGA 2011 | Sandy Bridge-E | 6 |
Intel | Core i7-2600K | LGA 1155 | Sandy Bridge | 4 |
Intel | Core i5-3330 | LGA 1155 | Ivy Bridge | 4 |
Intel | Core i5-2500K | LGA 1155 | Sandy Bridge | 4 |
Intel | Core i5-2300 | LGA 1155 | Sandy Bridge | 4 |
Intel | Core i3-2130 | LGA 1155 | Sandy Bridge | 2 |
Intel | Core i3-2120 | LGA 1155 | Sandy Bridge | 2 |
Intel | Core i3-2100 | LGA 1155 | Sandy Bridge | 2 |
Intel | Pentium G840 | LGA 1155 | Sandy Bridge | 2 |
Intel | Pentium G620 | LGA 1155 | Sandy Bridge | 2 |
Intel | Celeron G540 | LGA 1155 | Sandy Bridge | 2 |
Intel | Core i7 980X | LGA 1366 | Gulftown | 6 |
Intel | Core i7 920 | LGA 1366 | Bloomfield | 4 |
Intel | Core i7-860 | Lynnfield | 4 | |
Intel | Core i5-750 | LGA 1156 | Lynnfield | 4 |
Intel | Core i5-660 | LGA 1156 | Clarkdale | 2 |
Intel | Pentium G6950 | LGA 1156 | Clarkdale | 2 |
Intel | Core 2 Quad Q9450 | LGA 775 | Yorkfield | 4 |
Intel | Core 2 Quad Q8200 | LGA 775 | Yorkfield | 4 |
Intel | Core 2 Duo E8400 | LGA 775 | Wolfdale | 2 |
Intel | Core 2 Duo E8200 | LGA 775 | Wolfdale | 2 |
Intel | Core 2 Duo E7400 | LGA 775 | Wolfdale | 2 |
Intel | Core 2 Duo E7200 | LGA 775 | Wolfdale | 2 |
Intel | Core 2 Quad Q6600 | LGA 775 | Kentsfield | 4 |
Intel | Core 2 Duo E4400 | LGA 775 | Allendale | 2 |
Intel | Pentium Dual-Core E5200 | LGA 775 | Wolfdale | 2 |
Intel | Pentium Dual-Core E2220 | LGA 775 | Allendale | 2 |
Intel | Pentium 4 3.![]() |
Socket 478 | Prescott | 1 |
AMD | ||||
AMD | Ryzen 9 7950X | AM5 | Raphael | 16 |
AMD | Ryzen 7 7700X | AM5 | Raphael | 8 |
AMD | Ryzen 9 5950X | AM4 | Vermeer | 16 |
AMD | Ryzen 9 5900X | Vermeer | 12 | |
AMD | Ryzen 7 5800X | AM4 | Vermeer | 8 |
AMD | Ryzen 5 5600X | AM4 | Vermeer | 6 |
AMD | Ryzen 5 PRO 4650G | AM4 | Renoir | 6 |
AMD | Ryzen 3 PRO 4350G | AM4 | Renoir | 4 |
AMD | Ryzen Threadripper 3960X | sTRX4 | Castle Peak | 24 |
AMD | Ryzen 9 3950X | AM4 | Matisse | 16 |
AMD | Ryzen 9 3900XT | AM4 | Matisse | 12 |
AMD | Ryzen 9 3900X | AM4 | Matisse | 12 |
AMD | Ryzen 7 3800XT | AM4 | Matisse | 8 |
AMD | Ryzen 7 3700X | AM4 | Matisse | 8 |
AMD | Ryzen 5 3400G | AM4 | Picasso | 4 |
AMD | Ryzen 3 3300X | AM4 | Matisse | 4 |
AMD | Ryzen 3 3100 | AM4 | Matisse | 4 |
AMD | Athlon 3000G | AM4 | Raven Ridge | 2 |
AMD | Ryzen 7 2700 | AM4 | Pinnacle Ridge | |
AMD | Ryzen 5 2400G | AM4 | Raven Ridge | 4 |
AMD | Ryzen 5 2400G | AM4 | Raven Ridge | 4 |
AMD | Ryzen 3 2200G | AM4 | Raven Ridge | 4 |
AMD | Athlon 200GE | AM4 | 2 | |
AMD | Ryzen 7 1800X | AM4 | Summit Ridge | 8 |
AMD | Ryzen 5 1600AF | AM4 | Pinnacle Ridge | 6 |
AMD | Ryzen 5 1600 | AM4 | Summit Ridge | 6 |
AMD | Ryzen 5 1400 | AM4 | Summit Ridge | 4 |
AMD | Ryzen 3 1300X | AM4 | Summit Ridge | 4 |
AMD | Ryzen 3 1200 | AM4 | Summit Ridge | 4 |
AMD | FX-8320 | AM3+ | Vishera | 4 |
AMD | AM3+ | Zambezi | 4 | |
AMD | FX-8120 | AM3+ | Zambezi | 8 |
AMD | FX-6100 | AM3+ | Zambezi | 3 |
AMD | A10-7870K | FM2+ | Godavari | 4 |
AMD | AM1 | Kabini | 4 | |
AMD | A10-7850K | FM2+ | Kaveri | 4 |
AMD | Athlon X4 860K | FM2+ | Kaveri | 4 |
AMD | Athlon X4 760K | FM2 | Trinity | 4 |
AMD | A10-5800K | FM2 | Trinity | 4 |
AMD | A8-3850 | FM1 | Llano | 4 |
AMD | Phenom II X6 1055T | AM3 | Thuban | 6 |
AMD | Athlon II X2 215 | AM3 | Regor | 2 |
AMD | Athlon X2 7850 | AM2+ | Kuma | 2 |
AMD | Athlon X2 7750 | AM2+ | Kuma | 2 |
AMD | Phenom II X4 955 BE | AM3 | Deneb (C2/C3) | 4 |
AMD | Phenom II X4 910 | AM3 | Deneb | 4 |
AMD | Phenom II X4 810 | AM3 | Deneb | 4 |
AMD | Phenom II X3 720 | AM3 | Heka | 3 |
AMD | Phenom II X3 705e | AM3 | Heka | 3 |
AMD | Phenom II X2 550 BE | AM3 | Callisto | 2 |
AMD | Phenom X4 9650 | AM2+ | Agena | 4 |
AMD | Phenom X4 9550 | AM2+ | Agena | 4 |
AMD | Phenom X3 8450 | AM2+ | Toliman | 3 |
AMD | Athlon 64 X2 5200+ (Brisbane) | Brisbane | 2 |
Manufacturer | Model | Socket | Core | Number of cores |
---|---|---|---|---|
LGA 1200 | ||||
Intel | Pentium Gold G7400 | LGA 1200 | Alder Lake-S | 2 |
Intel | Core i7-11700KF | LGA 1200 | Rocket Lake-S | 8 |
Intel | Core i5-10400 | LGA 1200 | Comet Lake-S | 6 |
Intel | Core i3-10100 | LGA 1200 | Comet Lake-S | 4 |
Intel | Celeron G5905 | LGA 1200 | Comet Lake-S | 2 |
LGA 1700 | ||||
Intel | Celeron G6900 | LGA 1700 | Alder Lake-S | 2 |
LGA 1151-2 | ||||
Intel | Core i7-9700K | LGA 1151-2 | Coffee Lake | 8 |
Intel | Core i5-9600K | LGA 1151-2 | Coffee Lake | 6 |
Intel | Core i5-8600K | LGA 1151-2 | Coffee Lake | 6 |
Intel | Pentium Gold G5400 | LGA 1151-2 | Coffee Lake | 2 |
LGA 1151 | ||||
Intel | Core i7-6700K | LGA 1151 | Skylake-S | 4 |
LGA 2011-3 | ||||
Intel | Core i7-6950X | LGA 2011-3 | Broadwell-E | 10 |
Intel | Core i7-5960X | LGA 2011-3 | Haswell-E | 8 |
LGA 1150 | ||||
Intel | Core i5-5675C | LGA 1150 | Broadwell-H | 4 |
Intel | Core i5-4690K | Haswell | 4 | |
Intel | Core i7-4770K | LGA 1150 | Haswell | 4 |
LGA 2011 | ||||
Intel | Core i7-4960X | LGA 2011 | Ivy Bridge-E | 6 |
Intel | Core i7-3930K | LGA 2011 | Sandy Bridge-E | 6 |
LGA 1155 | ||||
Intel | Core i7-2600K | LGA 1155 | Sandy Bridge | 4 |
Intel | Core i5-3330 | LGA 1155 | Ivy Bridge | 4 |
Intel | Core i5-2500K | LGA 1155 | Sandy Bridge | 4 |
Intel | Core i5-2300 | LGA 1155 | Sandy Bridge | 4 |
Intel | Core i3-2130 | LGA 1155 | Sandy Bridge | 2 |
Intel | Core i3-2120 | LGA 1155 | Sandy Bridge | 2 |
Intel | Core i3-2100 | LGA 1155 | 2 | |
Intel | Pentium G840 | LGA 1155 | Sandy Bridge | 2 |
Intel | Pentium G620 | LGA 1155 | Sandy Bridge | 2 |
Intel | Celeron G540 | LGA 1155 | Sandy Bridge | 2 |
LGA 1366 | ||||
Intel | Core i7 980X | LGA 1366 | Gulftown | 6 |
Intel | Core i7 920 | LGA 1366 | Bloomfield | 4 |
LGA 1156 | ||||
Intel | Core i7-860 | LGA 1156 | Lynnfield | 4 |
Intel | Core i5-750 | LGA 1156 | Lynnfield | 4 |
Intel | Core i5-660 | LGA 1156 | Clarkdale | 2 |
Intel | Pentium G6950 | LGA 1156 | Clarkdale | 2 |
LGA 775 | ||||
Intel | Core 2 Quad Q9450 | LGA 775 | Yorkfield | 4 |
Intel | Core 2 Quad Q8200 | LGA 775 | Yorkfield | 4 |
Intel | Core 2 Duo E8400 | LGA 775 | Wolfdale | 2 |
Intel | Core 2 Duo E8200 | LGA 775 | Wolfdale | 2 |
Intel | Core 2 Duo E7400 | LGA 775 | Wolfdale | 2 |
Intel | Core 2 Duo E7200 | LGA 775 | Wolfdale | 2 |
Intel | Core 2 Quad Q6600 | LGA 775 | Kentsfield | 4 |
Intel | Core 2 Duo E4400 | LGA 775 | Allendale | 2 |
Intel | Pentium Dual-Core E5200 | LGA 775 | Wolfdale | 2 |
Intel | Pentium Dual-Core E2220 | LGA 775 | Allendale | 2 |
Socket 478 | ||||
Intel | Pentium 4 3.![]() |