Argon ONE M.2 Case for Raspberry Pi 4B

Argon ONE M.2 Case for Raspberry Pi 4B transforms a compact single-board computer into a refined desktop-style computing platform with expanded storage and efficient thermal control. The aluminum alloy enclosure combines premium aesthetics with functional engineering, featuring dual full‑size HDMI access, an internal M.2 SATA SSD expansion interface, and a streamlined rear I/O layout. This advanced Raspberry Pi enclosure integrates storage expansion, cooling management, and port organization into a single space‑efficient chassis. A Space Grey anodized finish and precision‑machined structure create a durable protective housing suitable for desktop computing, media centers, development workstations, and embedded edge systems.

Figure: Argon ONE M.2 Case for Raspberry Pi 4B

Figure: Argon ONE M.2 Case for Raspberry Pi 4B

Note: This product does not include Raspberry Pi 4 series boards or M.2 solid state drives.

M.2 SATA SSD Expansion for High‑Speed Storage

An integrated M.2 expansion slot allows installation of an M.2 SATA SSD connected through an internal USB adapter, enabling high‑capacity storage and significantly faster system boot performance compared with standard microSD solutions. This storage expansion architecture unlocks the full data throughput potential of the Raspberry Pi platform. The embedded adapter board maintains a clean internal layout while supporting SSD‑based system boot, making the enclosure suitable for applications requiring reliable storage, faster read/write performance, and improved durability in edge computing environments.

Figure: Internal M.2 expansion structure

Figure: M.2 SATA SSD installation layout

Figure: Internal adapter connection for SSD

Magnetic Sliding Cover with Clear GPIO Identification

A magnetically detachable top cover enables quick access to internal components without tools. Inside the enclosure, the GPIO header area features clearly labeled pin markings and color‑coded functional indicators, simplifying wiring during prototyping and hardware integration. The sliding magnetic lid provides both convenience and protection while maintaining the clean external appearance of the aluminum chassis. This thoughtful design supports frequent hardware access in development workflows while keeping the GPIO interface organized and easy to reference during electronics projects.

Figure: Magnetic removable top cover

Figure: Color‑coded GPIO reference inside the cover

Integrated Aluminum Cooling System with Smart Fan

An internal heat transfer column connects the processor area to the aluminum alloy enclosure, allowing the chassis to function as a passive heatsink. Additional active cooling is provided through a built‑in fan mounted on an internal PCB that automatically adjusts fan speed according to chip temperature. Ventilation openings at the top and bottom enhance airflow across the enclosure. This hybrid thermal design delivers stable operating temperatures during extended workloads such as media streaming, server tasks, or continuous data processing.

Figure: Built‑in cooling fan and heat transfer structure

Rear I/O Layout with Multi‑Function Power Button

An internal interface board reorganizes audio and HDMI connections toward the rear panel, producing a clean and desk‑friendly cable layout. All ports align neatly along the back of the enclosure, creating a compact square structure with professional appearance. A programmable power button enables multiple system control functions including power‑on, restart, soft shutdown, and forced shutdown through different press patterns. This integrated control interface improves usability for desktop installations, kiosks, and embedded computing setups.

Figure: Rear I/O layout and power control button

Figure: HDMI and audio interface redirection board

This aluminum Raspberry Pi enclosure supports compact desktop systems, home media servers, NAS prototypes, and embedded development platforms. The integrated SSD expansion, organized rear I/O layout, and active cooling system make the housing suitable for long‑running computing workloads, maker projects, and professional prototyping environments requiring reliable storage and thermal stability.

Figure: Installation overview

Figure: Enclosure assembly layout