Resource Library

How Gore’s ePTFE Fabric Baghouse Filters Improve Dust Collector Operation and Maintenance Costs

Combining cutting-edge technology with a wealth of expertise, Gore’s high-performance filter bags enable manufacturing processes to capture emissions and reduce their environmental impact.

GORE LOW DRAG Filter Bags Case Study Carbon Black Reduced dP

One of the most important metrics for a baghouse is differential pressure (dP). A consistently high dP indicates blinding of the filter media and/or poor release of dust cake during cleaning, typically leading to lower airflow (throughput), throttling back of production rates and shorter bag life.

Data Sheet: High Durability Filter Sock - Polytetrafluoroethylene Felt 830 g/m2 (24.5 oz/yd2)

GORE Membrane Filter Socks are used in a variety of filtration steps within the chlor-alkali process as well as for other Industrial Fluid or tubular back-pulse applications.

Data Sheet: GORE LOW DRAG Filter Bag, PTFE Felt

A 260 °C (500 °F) maximum service temperature, expanded PTFE felt filter bag for use in pulse jet style dust collectors with chemically aggressive operating conditions.

Data Sheet: GORE LOW DRAG Filter Bag, PTFE Fabric

A 260 °C (500 °F ) maximum service temperature, PTFE fabric for use in pulse jet, reverse air, and shaker style dust collectors with chemically aggressive operating conditions.

Data Sheet: GORE LOW DRAG Filter Bag, Polyester

A 135 °C (275 °F) maximum service temperature, polyester felt with GORE LOW DRAG Filter Bag membrane for use in pulse jet style dust collectors.

Data Sheet: GORE LOW DRAG Filter Bag, Fiberglass 22 oz

The PTFE-coated fiberglass GORE® LOW DRAG Filter Bag is designed for pulse jet dust collectors in high-temp environments up to 260 °C (500 °F). With advanced membrane technology and lower airflow resistance, it improves efficiency, extends bag life, and reduces operating costs.

Data Sheet: GORE LOW DRAG Filter Bag, Fiberglass 10 oz

GORE® LOW DRAG Filter Bags with acid-resistant fiberglass fabric deliver reliable performance in reverse air dust collectors at up to 260 °C (500 °F). With lower airflow resistance, they improve efficiency, extend filter life, and provide cost-effective operation in high-temperature environments.