GMK EVO-T2 Mini PC Debuts with Intel Panther Lake and 12-Core Graphics

GMK has officially launched the EVO-T2 mini PC, a compact computing powerhouse featuring Intel's latest Panther Lake processors with integrated 12-core Arc Pro B390 graphics. The company unveiled the system during CES in January but held a formal launch event in China this week to showcase the new hardware.

Intel Panther Lake Performance

The EVO-T2 will initially ship with the Intel Core Ultra X7 358H processor, with plans to eventually offer configurations with the more powerful Core Ultra X9 388H chip. Both processors feature Intel's innovative architecture with 16 total cores (4 performance cores, 8 efficient cores, and 4 low-power efficient cores), 18MB cache, and support for up to 96GB LPDDR5/X-9600 memory.

What makes these processors particularly interesting is their 12-core Intel Arc Pro B390 integrated graphics. This GPU configuration delivers 50 TOPS of AI performance and should handle demanding workloads including AI processing, graphics design, video editing, and even relatively lightweight gaming. The processors support up to 65W configurable TDP with base frequencies of 4.8 GHz (X7) or 5.1 GHz (X9).

Memory and Storage Considerations

One important limitation of Panther Lake chips with 12-core graphics is that they only support LPDDR5 memory, not traditional DDR5 RAM. This means that user-replaceable RAM is only possible on systems using LPCAMM2 modules. For most mini PCs like the EVO-T2, the memory will be soldered directly to the motherboard, making it non-upgradeable.

Storage options are more flexible, with the EVO-T2 featuring two M.2 slots: one supporting PCIe 5.0 x4 for the fastest storage speeds, and another with PCIe 4.0 x4 support for additional capacity.

Comprehensive Connectivity Options

The EVO-T2 stands out with its extensive port selection, making it suitable for various professional and enthusiast use cases:

• 2 x USB4 ports (40 Gbps with DisplayPort Alt Mode and 100W USB Power Delivery)
• 5 x USB Type-A ports (speeds unspecified)
• 1 x HDMI and 1 x DisplayPort for multi-monitor setups
• 1 x OCuLink port for external GPU connections
• 1 x 10 Gigabit LAN and 1 x 2.5 GbE LAN for high-speed networking
• 2 x 3.5mm audio jacks (front and rear)
• DC power input and reset pin

The inclusion of OCuLink is particularly noteworthy, as it allows users to connect external graphics docks for significantly enhanced graphical performance when needed.

Pricing and Availability

GMK plans to launch the EVO-T2 globally later this month, though pricing details haven't been officially announced. Based on the previous-generation EVO-T1 with an Intel Core Ultra (Series 2) Arrow Lake processor, which currently sells for $820 and up in barebones configurations, the EVO-T2 will likely be priced higher.

The EVO-T2's newer, higher-performance processor and the requirement for pre-installed LPDDR5 memory (since it's soldered to the board) suggest a premium price point. However, the exact pricing will depend on the specific configurations and regional availability.

Market Position and Competition

The EVO-T2 enters a competitive mini PC market where users demand both performance and versatility in compact form factors. Its combination of high-performance integrated graphics, extensive connectivity options, and support for high-speed storage makes it particularly appealing for content creators, developers, and professionals who need desktop-class performance in a small footprint.

The 10 GbE LAN and OCuLink ports position the EVO-T2 as a capable workstation replacement for many users, while the USB4 ports with 100W power delivery enable connection to high-performance docks and peripherals.

For those interested in following GMK's product developments, the company continues to push the boundaries of what's possible in mini PC form factors, competing with other manufacturers like GEEKOM, ASUS, and Intel's NUC series.

The EVO-T2 represents GMK's latest effort to combine cutting-edge mobile processor technology with the versatility and expandability that power users demand from their computing devices.