Bsc Preferred BOB913 Self-seal Bubble Pouches 350/case

Product Description

The BSC PREFERRED BOB913 is a self-sealing bubble pouch designed for fast, tape-free product protection in shipping and storage applications. Each pouch is constructed with high-slip 3/16 inch bubble material and features a 1 inch lip with an integrated peel-and-seal tape strip. No additional wrapping materials or tape dispensers are required. The user inserts the item, peels the tape liner, and presses the flap closed. Sold in cases of 350 pouches, the BOB913 is suited for packaging operations that require consistent, repeatable protective packaging without added labor steps.

These bubble pouches are used in warehouse, distribution, and fulfillment environments where small-to-medium items require cushioned protection during transit. The self-seal design reduces pack time on repetitive shipping lines. The high-slip bubble surface allows items to slide in cleanly without snagging. This product is an equivalent replacement for part number S-6152, making it a direct substitute for operations already specced to that part.

Key Features

• Self-sealing 1 inch lip with integrated peel-and-seal tape strip - no additional tape required
• 3/16 inch high-slip bubble construction for consistent cushioning and easy product insertion
• 350 pouches per case for high-volume packaging operations
• Equivalent replacement for part number S-6152
• Sold by the case (CS) with a minimum order quantity of 1

Compatibility

Direct equivalent replacement for part number S-6152. Suitable for use in standard protective packaging workflows requiring self-seal bubble pouches with 3/16 inch bubble material.

Installation Notes

No tools or equipment required for use. Store cases in a dry environment away from direct sunlight and heat sources to preserve the integrity of the peel-and-seal adhesive. When sealing, apply firm, even pressure along the full length of the tape strip to ensure a secure closure. Do not pre-peel tape liners on pouches not yet in use, as adhesive exposure reduces bond strength.