Lindy 1m USB 3.2 Type A Extension Cable, 5Gbps, Anthra Line

The Lindy Anthra Line USB 3.2 Type A to A extension cable (1 m) provides a professional-grade solution for extending USB connections in AV and IT installations. This USB 3.2 Gen 1 (formerly USB 3.0 / 3.1 Gen 1) cable supports data transfer rates up to 5 Gbps and uses triple-shielded construction with tinned copper conductors and gold-plated contacts to maintain signal integrity and resist corrosion. The cable is black and designed for reliable performance when extending USB Type A connections.

Advantages

Triple shielding and tinned copper conductors reduce interference and improve long-term reliability. Gold-plated contacts and connectors help maintain optimal conductivity and signal quality. The cable supports USB 3.2 Gen 1 bandwidth (up to 5 Gbps), enabling fast transfer of large data volumes while remaining backwards-compatible with other USB 3 and USB 2 devices.

Suitable for

• Extending USB Type A connections for computers and peripherals
• AV installations requiring reliable data links
• IT deployments where corrosion-resistant connectors are needed
• Transferring large files or streaming between compatible devices

Key specifications

• Connector 1: USB Type A
• Connector 2: USB Type A (extension)
• USB version: USB 3.2 Gen 1 (5 Gbps)
• Cable length: 1 m
• Product colour: Black
• Contacts: Gold-plated

How to use

Connect the male end of the Lindy USB 3.2 Type A extension cable into a host or hub USB Type A port, then plug the existing USB device or cable into the female/receiving Type A end. Ensure both connected devices support the required USB generation to achieve maximum transfer rates. No drivers are typically required for standard USB operation; the connection will be recognised by the host system automatically.

Recommendations

For best performance, avoid routing the cable near strong electromagnetic sources and keep total cable length within recommended limits for USB 3.2 Gen 1. Use the extension primarily for data and peripheral connections rather than for powering high-current devices.