Comparing processors by name alone is confusing when core counts, clock speeds, and generations all move at once. This calculator shows a CPU’s gaming-performance score and the tier it falls in, so you can quickly gauge whether a chip is a budget, mid-range, upper mid-range or high-end choice for gaming without needing to memorize benchmark charts.
| CPU | Gaming score | Tier | Cores / threads | Socket |
|---|---|---|---|---|
| Ryzen 7 9800X3D | 95 | High-end | 8 / 16 | AM5 |
| Core i9-14900K | 81 | High-end | 24 / 32 | LGA 1700 |
| Core Ultra 7 265K | 75 | Upper mid-range | 20 / 20 | LGA 1851 |
| Ryzen 5 7600 | 67 | Mid-range | 6 / 12 | AM5 |
| Core i5-13400F | 59 | Budget | 10 / 16 | LGA 1700 |
| Ryzen 5 5600 | 52 | Budget | 6 / 12 | AM4 |
| Core i3-12100F | 48 | Budget | 4 / 8 | LGA 1700 |
Every CPU in our list, ranked, is on the CPU tier list.
How this is calculated: the formula on our Methodology page. Sources: part specs from each maker’s official product page (our hardware database); scores positioned from publicly reported review averages.
Quick answer
This calculator estimates a CPU’s gaming tier (budget, mid-range, upper mid-range or high-end) from its gaming score on ComputingSkill’s own gaming-performance index, placed from publicly reported third-party review averages, so it ranks how fast a CPU runs games rather than its core count or clock speed. The result is meant for comparing chips or sanity-checking a CPU against the rest of a build, not as an exact benchmark score.
What the Result Means
The output is a relative performance tier (budget, mid-range, upper mid-range or high-end for gaming) along with the score as a share of the fastest gaming CPU we list, meant for comparison against other CPUs, not an absolute unit of measurement. A higher tier generally means the CPU can handle more demanding multitasking, faster in-game frame preparation, and quicker completion of CPU-bound tasks like compiling code or exporting video.
The tier is most useful when you use it to compare two or more CPUs against each other, or to sanity-check whether a CPU is a reasonable match for the rest of your planned build. A processor landing in the “mid-range” tier paired with a flagship GPU, for example, is a signal worth investigating further with the CPU vs GPU calculator.
How This Calculator Works
The tier comes from the CPU’s gaming-performance score: ComputingSkill’s own index of the frame rate a CPU can sustain in games when the graphics card isn’t the limit, placed from publicly reported third-party review averages (we don’t benchmark parts ourselves). The tier follows where a chip sits for gamers today: a score of 80 or more is High-end, 70 to 79 Upper mid-range, 60 to 69 Mid-range, and below 60 Budget. The result also shows the score as a share of the fastest gaming CPU we list (the Ryzen 7 9800X3D, score 95), so the Ryzen 5 5600 at 52 reads as about 55% of it. Cores, threads, clocks and TDP are shown next to the result for reference, but they don’t set the score, because they predict gaming speed poorly: the 8-core Ryzen 7 9800X3D outscores the 24-core Core i9-13900K in games.
As a worked example, compare the AMD Ryzen 5 7600 (6C/12T, Zen 4) with the Intel Core i5-12400F (6C/12T, Alder Lake). Both have six cores and twelve threads, but the Ryzen 5 7600 scores 67 (Mid-range) and the i5-12400F scores 55 (Budget), because published reviews show the 7600 running games noticeably faster. It is a reminder that core count alone is a poor proxy for real-world CPU performance.
At the other end, the Intel Core i9-13900K (24C/32T) scores 78, an Upper mid-range result for gaming well above the Ryzen 5 5600 (6C/12T) at 52 (Budget). It still sits behind the 8-core Ryzen 7 9800X3D at 95, whose large 3D V-Cache helps games far more than extra cores do.
Important Limitations
This is a relative estimate built from published specifications and third-party review averages, not a result from running any actual benchmark software on physical hardware. Real-world CPU performance also depends on factors this calculator does not measure directly, including motherboard power delivery and BIOS settings, RAM speed and timings, cooling (which affects how long a CPU can sustain its boost clocks), and how well a specific piece of software is optimized to use multiple cores.
Different workloads also favor different CPU traits. A chip that scores well for gaming (favoring high single-core clock speed) will not necessarily score the same way for heavily multi-threaded productivity work (favoring core count), and this calculator’s tier follows its gaming-focused score. Use the result as a general reference point, not as a substitute for benchmark reviews of the exact workload you care about.
Frequently Asked Questions
Does a higher core count always mean better performance?
Not for every task. More cores help most with heavily multi-threaded workloads like video encoding or compiling. For many games and everyday tasks, per-core speed and efficiency matter more than raw core count once you have enough cores to avoid bottlenecking.
Why do two CPUs with the same core count score differently?
Because the score follows how fast each CPU runs games in published reviews, not its core count. Architecture, cache size and clock speed all change how much work each core gets done, so two six-core chips can land far apart: the Ryzen 5 7600 scores 67 and the Core i5-12400F 55.
Is this the same as a CPU benchmark score like Cinebench or PassMark?
No. The score is ComputingSkill’s own gaming index, placed from publicly reported third-party review averages, not the result of running Cinebench, PassMark or any other benchmark ourselves. It does not run any workload on real hardware, so it will not exactly match any specific third-party benchmark’s numbers.
Does TDP tell me how fast a CPU is?
Not directly. TDP is a thermal design guideline related to power draw and cooling requirements, not a performance metric. Two CPUs with the same TDP can have very different performance depending on their architecture, core count, and clock speeds.