Summary
**Samsung’s** Exynos 2600, the first 2nm GAA chipset, drew **30W** at peak in Geekbench 6 tests, **40% more** than **Snapdragon 8 Elite Gen 5**’s **21W** [[snapdragon-8-elite-gen-5|Snapdragon 8 Elite Gen 5]]. The chip’s single-core score (**3,271**) and multi-core (**10,745**) lag behind the Snapdragon 8 Elite Gen 5’s **3,641** and **10,902** [[geekbench-6|Geekbench 6]]. This performance-power tradeoff highlights **Samsung’s** struggles with **GAA (Gate-All-Around)** scaling, as the chip’s **2nm process** fails to match **Qualcomm’s** efficiency gains [[qualcomm|Qualcomm]]. The test results, conducted by **TechStation365**, suggest **Samsung’s** 2nm node may not yet deliver on its promised efficiency [[techstation365|TechStation365]]. The **Exynos 2600**’s power draw could impact **Galaxy S26** battery life, raising concerns about **Samsung’s** ability to compete in the **mobile chip market**. While the chip’s **nanosheet architecture** and **gate control** were touted as breakthroughs, the **30W peak** suggests **Samsung’s** 2nm process still has **technical hurdles**. This performance gap may also affect **Samsung’s** reputation as a **chipmaker**, especially with **Qualcomm** dominating the **high-end smartphone** segment [[high-end-smartphone|High-End Smartphone]].
Key Takeaways
- Samsung’s Exynos 2600 draws 30W at peak, 40% more than Snapdragon 8 Elite Gen 5
- The 2nm GAA process faces efficiency challenges despite advanced nanosheet architecture
- Power draw gap could impact Galaxy S26 battery life and market competitiveness
- Samsung’s 2nm node maturity remains unproven compared to Qualcomm’s FinFET designs
- Test conditions and thermal management may influence power draw discrepancies
Balanced Perspective
**Samsung’s** Exynos 2600’s **30W peak** is a verified metric from **TechStation365**’s tests, while **Snapdragon 8 Elite Gen 5**’s **21W** is also confirmed. The **40% power gap** is significant, but the **Exynos 2600**’s **single-core** and **multi-core** scores are still competitive. **Samsung**’s **2nm GAA** process is still in early stages, and **Qualcomm**’s **FinFET**-based **Snapdragon 8 Elite Gen 5** has a proven track record. The **power draw** may reflect **thermal management** or **test conditions**, but the **data is consistent** across multiple benchmarks.
Optimistic View
**Samsung’s** 2nm GAA process represents a **technological leap**, and the Exynos 2600’s performance metrics still outpace **Snapdragon 8 Gen 5**’s **9,443** multi-core score [[snapdragon-8-gen-5|Snapdragon 8 Gen 5]]. The **30W peak** may be an anomaly, and **Samsung** could refine the process in future iterations. **GAA technology** offers long-term benefits for **chip efficiency**, and this setback doesn’t negate the **2nm node’s** potential. **Samsung**’s investment in **GAA** could eventually outperform **Qualcomm**’s **FinFET**-based designs [[finfet|FinFET]].
Critical View
**Samsung’s** **2nm GAA** process has failed to deliver on efficiency promises, with the **Exynos 2600** drawing **30W** vs **Snapdragon 8 Elite Gen 5**’s **21W**. This **40% power gap** could hurt **Samsung’s** reputation as a **chipmaker**, especially with **Qualcomm** dominating the **high-end smartphone** market. The **Exynos 2600**’s **30W peak** may also impact **Galaxy S26** battery life, making it less competitive. **Samsung**’s **GAA** technology is still unproven, and this setback could delay its **2nm node** maturity [[2nm-node|2nm Node]].
Source
Originally reported by Gizmochina