GMKtec Evo-T1 VS GMKtec Evo-X2

The most immediate distinction between these two machines is physical scale. The Evo-T1 occupies just 1,711 cm³, making it a genuinely compact mini PC that can tuck behind a monitor or sit unobtrusively on a desk. The Evo-X2, at 9,096 cm³, is more than five times larger by volume — a fundamentally different form factor that implies different placement expectations, likely sitting on or under a desk like a traditional small-form-factor tower rather than disappearing into a corner.

On storage, both units use NVMe SSDs, which is the right call for fast boot times and responsive application loading. The Evo-T1 ships with 1 TB, which is sufficient for most productivity and light creative workloads, while the Evo-X2 doubles that to 2 TB — a meaningful advantage if you work with large media libraries, virtual machines, or data-heavy applications without wanting to rely on external drives.

The Evo-T1 holds a clear edge for users who prioritize a small footprint and portability, while the Evo-X2 trades compactness for significantly more onboard storage. If space-saving is the primary concern, the Evo-T1 wins outright; if local storage capacity matters more and desk real estate is available, the Evo-X2's 2 TB NVMe and larger chassis give it the advantage in this category.

At the core of this comparison is a fundamental architectural difference. The Evo-X2 runs a 16-core, 32-thread CPU with multithreading enabled and a massive 64 MB L3 cache, making it purpose-built for heavily parallelized workloads — think video encoding, compilation, virtualization, or running multiple simultaneous tasks without degradation. The Evo-T1 counters with 14 cores and 16 threads (no multithreading), and a more modest 24 MB L3 cache — a capable setup for everyday productivity, but one that will show its limits under sustained multi-threaded pressure.

Where the Evo-T1 fights back is in single-core burst performance: its 5.4 GHz turbo clock outpaces the Evo-X2's 5.1 GHz, which matters for latency-sensitive tasks like gaming, launching applications, or running lightly-threaded software. It also runs at a lower 45W TDP versus the Evo-X2's 55W, meaning less heat generation — consistent with its compact chassis — though its junction temperature ceiling of 110 °C versus the Evo-X2's 100 °C suggests different thermal headroom philosophies between the two platforms.

For most users who need raw multi-threaded throughput and cache-heavy workloads, the Evo-X2 holds a decisive CPU advantage. The Evo-T1 remains the better pick only in scenarios where single-core speed and power efficiency outweigh thread count — a narrower use case that becomes relevant primarily for gaming or lightweight daily computing.

Raw graphics compute power sits firmly with the Evo-X2. Its integrated GPU carries 2,560 shading units, 160 TMUs, and 64 ROPs — exactly 2.5 times the shader and texture throughput of the Evo-T1's 1,024 shaders and 64 TMUs. Combined with a significantly higher turbo clock of 2,900 MHz versus 2,350 MHz, the Evo-X2's GPU will handle light gaming, media processing, and GPU-accelerated workloads with considerably more headroom. The base clock gap is even starker — 1,295 MHz versus 300 MHz — meaning the Evo-X2 sustains higher performance outside of burst scenarios as well.

The Evo-T1 answers with some platform-level advantages worth noting. Its GPU is built on a 3 nm process node versus the Evo-X2's 4 nm, which typically translates to better power efficiency per operation. It also supports PCIe 5 and DirectX 12 Ultimate — the latter enabling hardware-accelerated ray tracing and variable-rate shading features that the Evo-X2's plain DirectX 12 support does not formally cover. Both units support up to four displays simultaneously and share identical OpenGL and OpenCL version support.

Despite those platform niceties, the Evo-T1's GPU advantages are largely future-facing and theoretical at this hardware tier. For any graphics-intensive task available today, the Evo-X2's sheer compute density gives it a decisive and practical edge — making it the clear winner in this category for users who intend to push the integrated graphics beyond basic desktop use.

Both machines run DDR5 memory, which establishes a shared modern baseline — but the similarities end there. The Evo-X2 ships with 128 GB of RAM at 8,000 MHz, while the Evo-T1 offers 64 GB at 5,600 MHz. That's a double gap in both capacity and speed simultaneously, which is unusual and significant.

The capacity difference determines what workloads are even feasible. 64 GB handles demanding multitasking, large datasets, and professional applications comfortably, but 128 GB opens the door to memory-intensive scenarios like running multiple virtual machines, large in-memory databases, or complex simulation workloads where physical RAM becomes the hard ceiling. The speed gap compounds this: 8,000 MHz versus 5,600 MHz means meaningfully higher memory bandwidth on the Evo-X2, which directly benefits the integrated GPU — which draws from system RAM — as well as CPU-bound tasks that are sensitive to data throughput rather than just raw clock speed.

There is no trade-off to balance here within the provided specs. The Evo-X2 holds a clear and substantial advantage in memory across both dimensions that matter — capacity and speed — making it the unambiguous winner in this category for any user whose workloads can exploit it.

Wired and display connectivity is nearly identical between the two — both offer the same USB-A port configuration, a single HDMI 2.1 output, one DisplayPort, one RJ45, and a 3.5mm audio jack. The meaningful divergence starts with USB-C. The Evo-T1 provides one USB 3.2 Gen 2 Type-C port for fast peripheral connectivity, but the Evo-X2 goes significantly further with two Thunderbolt 4 ports that also function as USB4 40Gbps — enabling daisy-chaining of high-speed storage, external GPUs, or ultra-high-bandwidth displays at a level the Evo-T1 simply cannot match.

Wireless tells a similar story. Both support Wi-Fi 6 and Bluetooth, but the Evo-X2 adds Wi-Fi 7 and Wi-Fi 6E support alongside a newer Bluetooth 5.4 versus the Evo-T1's Bluetooth 5.2. Wi-Fi 7 in particular is a notable differentiator — it delivers higher theoretical throughput, lower latency, and better multi-link operation in congested environments, making it more future-proof as router infrastructure continues to mature.

The Evo-T1 covers all the essentials competently, but the Evo-X2 holds a clear connectivity advantage driven by two factors that matter most for power users: Thunderbolt 4 ports that unlock a much broader ecosystem of high-bandwidth peripherals, and Wi-Fi 7 support that puts it a full generation ahead on wireless.

Benchmark results tell a nuanced story that cuts against a simple ″bigger is better″ narrative. In multi-threaded PassMark — the most representative test for sustained parallel workloads — the Evo-X2 scores 54,021 versus the Evo-T1's 33,969, a roughly 59% lead that aligns with its higher core and thread count. That gap widens further under overclocked conditions: 57,021 versus just 34,411, suggesting the Evo-X2's platform scales better when pushed.

Single-core performance flips the result entirely. The Evo-T1 outscores the Evo-X2 on both PassMark single (4,472 vs 4,142) and Geekbench 6 single (2,897 vs 2,774), consistent with its higher turbo clock speed. Interestingly, Geekbench 6 multi-core scores are remarkably close — 17,698 vs 17,173 — a much tighter margin than PassMark multi would suggest, pointing to differences in how each benchmark weights core count versus per-core efficiency.

The verdict depends entirely on workload type. For tasks that run on one or two threads — everyday browsing, office applications, most games — the Evo-T1 holds a measurable single-core edge. For anything that can distribute work across many cores, the Evo-X2 wins by a substantial and practical margin. Given that the larger PassMark gap better reflects heavy sustained use, the Evo-X2 takes the overall benchmark advantage, with the Evo-T1 remaining the stronger choice specifically for single-threaded responsiveness.

A few details here reframe earlier findings in useful ways. The Evo-X2 supports ECC memory — error-correcting code RAM that detects and fixes single-bit memory errors on the fly. This is a feature typically reserved for workstation and server platforms, and it matters enormously for anyone running financial applications, scientific computing, or any workload where silent data corruption is unacceptable. The Evo-T1 offers no ECC support. The Evo-X2 also operates across 4 memory channels, enabling significantly higher memory bandwidth throughput in practice — a spec that explains part of its multi-threaded benchmark advantage. The Evo-T1's memory channel count is listed as zero, which is an unusual data point, but the Evo-X2's explicit quad-channel configuration is a clear structural advantage.

The Evo-T1 makes an interesting counter with big.LITTLE technology — a hybrid core architecture that assigns workloads intelligently between performance and efficiency cores. This contributes to its stronger single-core responsiveness and efficient handling of mixed workloads. The Evo-X2 does not use this approach. Additionally, while the Evo-T1's installed RAM runs at 5,600 MHz, its platform supports up to 8,400 MHz — actually higher than the Evo-X2's 8,000 MHz ceiling — leaving meaningful headroom for future memory upgrades, though its maximum installed capacity is capped at 64 GB versus the Evo-X2's 128 GB.

For professional and workstation use cases, the Evo-X2's ECC support and quad-channel memory architecture give it a meaningful platform advantage that goes beyond raw specs. The Evo-T1's big.LITTLE design makes it more adaptive in mixed daily workloads, but for users where data integrity and memory throughput are priorities, the Evo-X2 is the more capable and appropriate machine.