LIAN LI DAN A3-MATX WHITE SMALL CASE-M-ATX/MINI-ITX (STEEL INSIDE, SIDE MESH PANEL)

The Lian Li A3-mATX White represents a surgical fusion of minimalist aesthetic design and extreme internal modularity. Designed for enthusiast users who operate within zero-compromise hardware environments, this case utilizes high-impact collaboration with DAN Cases to provide technical dominance over small-form-factor cooling. The specialized integration of full-mesh side and top panels ensures a sophisticated visual advantage through transparency while acting as a definitive anchor for consistent fresh air intake. Whether you are managing high-stakes gaming performance or high-production creative rendering, the A3-mATX White provides the technical refinement and structural modularity required to maintain absolute authority over your system's thermals and layout.

Key Features

Surgical 26.3L Compact Volume: Meticulously designed for professional space efficiency, providing a high-impact advantage by supporting full-sized GPUs in a minimal footprint.

High-Velocity Thermal Engineering: Equipped with surgical fine-mesh panels on the top, both sides, and front, providing a clear functional advantage for high-performance cooling configurations.

Versatile Cooling Support: Surgically optimized to accommodate up to 360mm radiators on the top or side, and up to 10 x 120mm fans, acting as a reliable pillar for extreme overclocking.

Massive GPU Compatibility: Meticulously engineered to support high-impact graphics cards up to 415mm in length, providing a definitive anchor for flagship 40-series GPUs.

Flexible PSU Mounting: Features a surgical adjustable bracket for ATX, SFX, and SFX-L power supplies, acting as a reliable pillar for tailored internal layouts and cable management.

Tool-Less Access Design: Meticulously optimized for ease of installation, providing a functional advantage with easily removable exterior panels.

Next-Gen I/O Connectivity: Equipped with surgical USB 3.1 Type-C and USB 3.0 Type-A ports on the front for high-speed peripheral access.