UNI FILTER BF-3 Black Coarse Foam Filter Sheet, 8 x 10 x 2 Inches

Works with original equipment manufacturer vehicle electronics
Made from high-quality materials for ultimate durability
Manufactured to meet or exceed strict quality requirements
100% Made in U.S.A.


Universal Air Filter Foam Sheet (BF-3) by UNI Air Filters®. Grade: 30 PPI. Type: Coarse. Size: 8" x 10" x 2". Color: Black. Sheets of Air Filter Foam for you to fabricate your own design! There are five types from coarse to fine to choose from. If you're looking for a quality product that will serve you for years to come, look no further.

The UNI FILTER BF-3 is a high-quality black coarse foam filter sheet designed for a variety of filtration applications. Crafted with 30 PPI (pores per inch), this filter sheet effectively traps dirt, dust, and debris while allowing air or liquids to pass through efficiently. Its durable construction ensures long-lasting performance in demanding environments. The sheet measures approximately 8 inches by 10 inches with a thickness of 2 inches, making it versatile for custom filtration setups and replacements.

Ideal for air filtration, pre-filters, or other industrial uses, the UNI FILTER BF-3 foam sheet provides excellent airflow and filtration efficiency. The coarse pore structure offers a balance between filtration capacity and airflow, making it suitable for applications where dirt and larger particles need to be captured without restricting flow. Its black color not only helps identify the filter but also minimizes UV degradation, extending its service life. Whether for HVAC, air purifiers, or custom filtration projects, this foam sheet is a reliable choice for professionals and DIY enthusiasts alike.

Features:

• Premium black foam material for durability and UV resistance

• Coarse 30 PPI pore structure for effective dirt and debris capture

• Dimensions approximately 8 inches by 10 inches with 2-inch thickness

• Versatile for air filtration, pre-filters, and industrial applications

• Designed for long-lasting performance in demanding environments