Parker’s new HX-Series product line possess many important design and construction features that combine to provide leading compressed air filtration performance. Improved flow characteristics result in lower pressure differential, which is related to the ongoing operating cost of employing high-efficiency nanofiber coalescing filters.
HX-Series filters can be used in applications ranging from general shop air all the way up to those which call for extremely critical performance requirements, such as instrument air, breathing air, food and beverage or automotive assembly plant paint systems. The materials used in each filter assembly were chosen not only for compatibility with compressed air system environments, but also to provide a robust and trouble-free system component that can be relied on without worry.
Additionally, HX-Series filters offer the optional accessory of modular connectors up through the one-inch connection size, enhancing their appeal for OEM usage.
Features/Benefits
• Inlet and outlet design which provides a full-flow stream of air into and out of the housing.
• Improved Flow Path, through the patented aerospace inspired vanes in the neck of the replaceable filter element ensure unrestricted, turbulent-free laminar flow into the element’s core with minimal pressure drop.
• Conical Air Disperser at the base of the element helps eliminate turbulence.
• Corrosion Protection using cast aluminum and painted externally with epoxy based powder coating. Each filter head and bowl is treated with an alochrome process that inhibits corrosion.
• Inlet port indicators and differential sensing port plugs.
• Patented locating tabs and external flow stabilizers ensure proper installation of filter element and eliminates any chance of mistake.
• 7CP and XF media choices provide excellent filtration efficiency with industry leading low pressure differentials.
• Unique UNI-CAST manufacturing process continues to provide time-tested and proven performance as only the industry’s original cast media manufacturer can do.