Bsc Preferred INR24 Metalized Bubble Insulation Roll

Product Description

The BSC PREFERRED INR24 is a metalized bubble insulation roll designed for creating custom-sized thermal packaging. The 3/16-inch bubble layer provides cushioning during transit while blocking heat transfer through radiation. Made with FDA-compliant materials, this roll also functions as an effective barrier against moisture, vapor, and odors. It suits applications where temperature-sensitive goods require protection without rigid insulated box assemblies. Packaging specialists and shipping operations staff cut and form the roll to the dimensions needed for the specific shipment at hand.

This insulation roll is used in packaging and shipping environments where custom thermal protection is required. It fits residential, commercial, and industrial shipping scenarios where perishable goods, food products, pharmaceuticals, or other temperature-sensitive items must be insulated in transit. The flexible format allows it to line boxes, wrap individual items, or form pouches. Its FDA-compliant construction makes it appropriate for food-contact packaging applications.

Key Features

• 3/16-inch metalized bubble layer cushions contents and resists radiant heat transfer
• FDA-compliant materials suitable for food-contact and perishable-goods packaging
• Effective barrier against moisture, vapor, and odors
• Flexible roll format allows custom sizing without additional tooling
• Equivalent to part number S-12760

Compatibility

Designed as a flexible insulation liner compatible with standard corrugated boxes, cartons, and custom packaging configurations where thermal protection is required. Equivalent to part number S-12760.

Installation Notes

Cut to the required dimensions using a straightedge and utility knife or scissors before forming into the desired packaging shape. No adhesives are required for basic liner applications, though tape compatible with metalized film surfaces is recommended for sealed pouches or wrapped assemblies. Avoid puncturing the bubble layer, as damage reduces both cushioning performance and the thermal barrier effect.