Vention CHTBB 4-Port USB 3.0 Hub 2-in-1 USB-C/A 0.15M

Vention CHTBB USB Hub

The Vention 4-Port USB Hub provides a versatile solution for expanding peripheral connectivity on modern and legacy computing platforms. This hardware features a hybrid 2-in-1 host interface. It integrates both USB-C and USB 3.0 Type-A connectors into a single tethered assembly. Consequently, it eliminates the need for separate adapters when switching between laptops and desktop workstations. The internal chipset facilitates high-speed data synchronization across all four downstream ports simultaneously. Therefore, IT professionals can manage multiple high-bandwidth devices without bus congestion.

Key Features

• Dual-Interface Versatility
  The integrated USB-C and USB-A 3.0 connector design ensures native compatibility with Thunderbolt 3/4 ports and standard Type-A slots.

• SuperSpeed Data Architecture
  Each port adheres to USB 3.0 standards, delivering theoretical signaling rates up to 5Gbps for rapid file transfers.

• External Power Integration

  • Supports 5V/2A power input via Micro USB port
  • Enables stable operation for high-draw 12TB mechanical drives
  • Prevents voltage drops during multi-device utilization

• Advanced Controller Chipset
  High-performance logic boards manage individual port power distribution and prevent electromagnetic interference during operation.

Specifications

What’s in the Box

• Vention CHTBB 4-Port USB 3.0 Hub
• Integrated 2-in-1 Host Connector
• User Documentation

Why Choose Vention CHTBB

• Optimized for procurement managers seeking universal peripheral compatibility across diverse hardware fleets.
• Maintains signal integrity across all ports through dedicated EMI shielding and high-quality trace routing.
• The compact 0.15m cable reduces desktop clutter while providing sufficient flexibility for vertical port orientations.
• Plug-and-play architecture requires no driver installation for enterprise-level deployment across various operating systems.
• The ABS chassis provides effective thermal dissipation during sustained high-speed data transmission cycles.