Resource Library

Avionics and vectronics require high-performance wires and cables that can deliver superior signals and fast data transmission speeds, even in demanding conditions. W. L. Gore & Associates offers a portfolio of solutions that fulfill those needs while reducing weight, installation complexities and overall costs.

The guidelines are based on Gore’s best practices in eWEP (extended Water Entry Pressure) testing for GORE® Portable Electronic Vents. Please follow the guidelines to conduct the eWEP testing to minimize water leakage failures caused by test issues.

To ensure that our products deliver the performance and reliability that you expect, we conduct various tests and use key performance indicators during vent production.

This application note provides data demonstrating high productivity, extended cycling durability performance of membrane-based GORE Protein Capture Devices with Protein A across two rapid Clean-in-Place methods bracketing caustic contact time and concentration. These data were then combined with results from a manufacturing-scale demonstration to extrapolate protein capture capabilities at a 2000 L batch bioreactor size across CIP methods.

Aircraft and military vehicle OEMs can review a complete list of selected, pre-qualified copper, fiber optic and hybrid cable samples from W. L. Gore & Associates. This way, you can validate our standard products in your specific application with lower technical and business risks to your program.

Whatever is thrown away, GORE® Cover can handle it.

GORE® Protective Vents vs. Common Venting Solutions

As the name says, Gore Protective Vents enable pressure equalization through venting with the key feature of ingress protection. Other venting technologies have limits to protecting against the ingress of dust and moisture.

Recycling Park: The integrated approach to a comprehensive waste treatment programme.

Biosolids Composting: The integrated approach to a comprehensive wastewater treatment solution

GORE® Thermal Insulation has unique properties of low thickness (< 300 μm) with conductivity less than air (< 0.02 W/(m•K) ) and therefore presents challenges in characterization. A test methodology incorporating a modified heat flow method, ex-situ thickness method, and two thickness conductivity calculation is used to provide reliable and accurate thermal conductivity data. Conductivity results show the distribution of data falls below the conductivity specification of 0.02 W/(m•K).

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