Quantum Storage Qsb 104CON Conductive Hopper Shelf Bin

Product Description

The QUANTUM STORAGE QSB 104CON is a conductive polypropylene hopper shelf bin designed to prevent the buildup of electrostatic charges during parts handling and storage. It features a hopper-style front for easy access to small components and includes a label holder for bin identification. With a surface resistivity of less than 10 to the 5th ohms per square, this bin meets ESD-sensitive storage requirements. It is intended for use on wire shelving systems and is well suited for assembly lines, electronics repair benches, and any environment where electrostatic discharge control is critical.

This bin is appropriate for light industrial and electronics-sensitive environments where ESD-safe storage is required. The hopper front design allows for quick retrieval of components without removing the bin from the shelf. It nests with identical units for compact storage when not in use. It is commonly used in electronics manufacturing, repair depots, and warehouse pick stations on wire shelving systems.

Key Features

• Conductive polypropylene construction controls electrostatic charge buildup
• Surface resistivity less than 10 to the 5th ohms per square for ESD-sensitive applications
• Hopper-style front for fast, one-handed component retrieval
• Integrated label holder for bin identification and inventory labeling
• Nesting design for space-efficient storage when not in use
• Compatible with divider DSB104CO for internal compartmentalization

Compatibility

Designed for use with wire shelving systems. Compatible accessory divider: DSB104CO.

Installation Notes

No tools are required to place or remove this bin from a wire shelving unit. Confirm the shelving system can support the combined load of filled bins before use. In ESD-sensitive environments, verify that the shelving system and work surface are also properly grounded to maintain a complete electrostatic discharge path. Handle with care to avoid cracking the polypropylene body, which would compromise conductive performance.