DeLOCK 63223 USB 3.2 Gen 1 Type-C -keskitin 5000 Mbit/s musta

The DeLOCK 63223 is a compact USB 3.2 Gen 1 Type-C hub in a metal housing that connects to a computer, laptop or mobile device via USB Type-C. It expands a host device with four USB Type-A ports supporting data transfer rates up to 5000 Mbit/s and accepts typical USB peripherals such as flash drives, card readers and external enclosures. The hub’s small dimensions and robust metal case make it suitable for portable use.

Advantages

The metal housing provides increased durability for everyday transport and use. Four USB Type-A ports allow simultaneous connection of multiple USB devices without additional adapters. Compatible with common operating systems including Windows 10, 8.1, 11 and ChromeOS, the hub supports USB 3.2 Gen 1 data transfer performance up to 5000 Mbit/s while maintaining backward compatibility with USB 2.0/1.1 devices.

Suitable for

• Connecting USB flash drives and external hard drives
• Using card readers or external enclosures
• Adding multiple peripherals to laptops and tablets with a Type-C port
• Portable setups for travel or mobile work

Key specifications

• Brand: DELOCK
• Model: 63223
• Host interface: USB 3.2 Gen 1 (Type-C)
• Hub interfaces: 4 × USB 3.2 Gen 1 Type-A
• Data transfer rate: up to 5000 Mbit/s
• Colour: Black
• Housing: Metal
• EAN: 4043619632237

How to use

Plug the integrated USB Type-C connector of the hub into a compatible Type-C port on your computer, laptop or mobile device. Connect USB peripherals to the available Type-A ports. The hub is bus-powered and typically does not require additional drivers on supported operating systems; wait for the host system to recognise connected devices before transferring data.

Recommendations

For optimal performance, connect high-speed storage devices directly to the hub’s USB 3.2 Gen 1 ports and avoid using multiple power-hungry devices simultaneously if the host cannot supply sufficient bus power. Store the hub in its bag or protective sleeve when travelling to prevent surface scratches.