Ryzen 5 4600G vs Core i7-10700 comparison
In our benchmarks, the Core i7-10700 beats the Ryzen 5 4600G in overall performance. Despite this, the Ryzen 5 4600G has the advantage in our gaming benchmark.
When comparing core counts for these CPUs, we notice that Core i7-10700 has slightly more cores with 6 compared to the Ryzen 5 4600G that has 8. It also has more threads than the Ryzen 5 4600G.
Our database shows that the Ryzen 5 4600G has a slightly higher clock speed than the Core i7-10700. Despite this, the Core i7-10700 has a slightly higher turbo speed.
Both these chips have an identical TDP (Thermal Design Power). This measures the amount of heat they output and can be used to estimate power consumption.
In terms of cache, the Ryzen 5 4600G has significantly more L2 cache when compared to the Core i7-10700. Despite this, the Core i7-10700 has significantly more L3 cache compared to the Ryzen 5 4600G.
In conclusion, all specs and CPU benchmarks considered, will recommend the Core i7-10700 over the Ryzen 5 4600G.
Use the table to the left to compare both the Ryzen 5 4600G and the Core i7-10700, the advantages and disadvantages of each are shown.
Our CPU rating is split into 4 categories: Overall, Gaming, Multitasking and Heavy Workloads. The overall score accesses performance using all CPU cores, gaming prioritises the first six cores, multitasking takes the first eight cores into account and finally heavy workloads are measured using a sixteen-core baseline.
The more cores a CPU has, the better the overall performance will be in parallel workloads such as multitasking. Many CPUs have more threads than cores, this means that each physical core is split into multiple logical cores, making them more efficient. Indeed, the Ryzen 5 4600G has more threads than cores. Each physical core is split into multiple threads.
Clock speed and Turbo speed are important when comparing per core performance, generally the higher, the better. A higher clock speed may cause a higher TDP, however.
TDP (Thermal Design Power) is a measurement of how much energy is lost as heat when a processor is running. This has an impact on system temperatures. If temperatures get too high (typically around 100 °C or 200 °F), the CPU will lower its performance in order to prevent damage to the chip. Adequate cooling is essential for good performance.
Cache is very fast memory built into the processor. It stores what the CPU is currently working on and anything that doesn't fit is sent to the main system memory, which is slower but more plentiful. It is split into three levels, with Level 1 being the fastest and Level 3 being the slowest. More CPU cache is desirable for high-performance scenarios.