Samsung recently introduced its Exynos 2700 application processor just before Christmas, following months of leaks throughout 2025, and the chip is positioned as a proof of concept for the company’s SF2 2 nm gaa production line alongside proprietary Heat Path Block thermal technology. Officially, Samsung is using the SF2 node for the upcoming Exynos 2600 system on chip that will power the Galaxy S26 smartphone series, while a more advanced SF2P node is being floated in connection with potential chip making deals involving companies such as amd, qualcomm, and tesla. Industry chatter in South Korea has linked a mysterious follow up model, also referred to as Exynos 2700 by insiders, to an allegedly more refined 2 nm gaa process that could serve to attract new and returning foundry customers.
As the Exynos 2600 approaches launch, pre release silicon has been generating early benchmark data that sets a performance baseline for Samsung’s latest mobile graphics. Last week, TechPowerUp reported that the Exynos 2600 achieved a Geekbench 6 OpenCL score of 24,964 points, attained by the onboard Xclipse 960 integrated graphics processor, which is also known under the code name juno. These numbers frame expectations for the next step in the Xclipse lineup, as observers watch for signs that the Exynos 2700 will deliver a measurable uplift in compute and graphics throughput over the Exynos 2600 platform.
A fresh Geekbench 6.2.2 entry for Android AArch64 has now revealed an unbranded device identified as Samsung Electronics Co., Ltd. Full Android on S5E9975 ERD, pointing to an engineering reference design rather than a consumer product. The listing shows an OpenCL score of 15618 and describes a 10 core processor that integrates a Samsung Xclipse 970 graphics solution, and the numerical jump from 960 to 970 is taken as a strong hint that this S5E9975 ERD board is validating an Exynos 2700 mobile chipset. Well known leaker Ice Universe initially celebrated the premature appearance of what appears to be an Exynos 2700 engineering sample, and the relatively modest benchmark score has been attributed to the early engineering board setup rather than final silicon or finished device level tuning.
