Designed to withstand burst pressures exceeding 7,500 pascal, V‑Guard GT™ filters are built to perform in gas turbine, turbo‑compressor, and diesel/gas engines. Made using modern mini pleating technology, constructed from grid‑reinforced filter packs of high‑efficiency, water‑repellent micro glass paper, pleated and spaced to maximize surface area, the packs are assembled in shock‑resistant, rigid, polystyrene plastic frames.

An extended version of our V‑Guard GT™, the HC denotes the high‑capacity model designed to further increase the filtration surface area of a superior filter. V‑Guard GT HC™ filters tolerate burst pressures exceeding 7,500 Pa and are engineered to perform in demanding gas turbine applications. Produced from grid‑reinforced mini‑pleat, tear‑resistant media packs that are high‑efficiency and water‑repellent; the pleats are spaced to maximize surface area, and the packs are mounted in rigid, shock‑resistant polystyrene plastic frames.

An extended version of our V-Guard HC-GT™, the SHC model delivers even higher performance capacity created to further expand the filtration surface area of a superior filter. V‑GUARD GT SHC™ filters withstand burst pressures exceeding 7,500 Pa and are built to excel reliably in demanding gas turbine, turbo‑compressor, and diesel/gas engine applications. Manufactured with grid‑reinforced mini‑pleat, tear resistant media packs that are high‑efficiency and water‑repellent; the pleats are spaced to maximize surface area, and the packs are mounted in rigid, shock‑resistant polystyrene plastic frames.

Durapeak™ delivers exceptional filtration capabilities as a dust barrier in self‑cleaning systems, commonly used to protect train and heavy‑vehicle engines in harsh operating environments. Durapeak™ are pulse filters able to withstand high dust and humidity levels and continuously perform in high‑vibration systems.

CrownPULSE ET™ cylindrical filters are made from a blend of cellulose and synthetic fibers in very precise ratios to offer high levels of filtration efficiency and mechanical strength. The media is deep corrugated to optimize pleat‑to‑pleat separation and maximize utilization of the surface area throughout the filter life span.

CrownPULSE SN™ cylindrical filters are made from synthetic fiber compositions and hydrophobic treatment. The self‑supported structure was designed for pulse‑jet applications combining high durability operating in harsh environments, especially to meet the strict demands of gas turbine air filtration systems.

CrownPULSE FF™ cylindrical filters combine the advantages of our cellulose‑synthetic media as well as fine fiber melt‑blown technology, delivering a hybrid filter with excellent reverse‑pulsing properties as well as high dust‑holding properties for extended pulse cycles.

CrownPULSE NT™ cylindrical filters consist of our cellulose‑synthetic media coated with electrospun nanofibers on the upstream side of the composition. The result is a structure with phenomenal reverse‑pulsing behavior and high mechanical efficiency at the lowest possible pressure drops.

ZenithPULSE ET™ conical filters are made from a blend of cellulose and synthetic fibers in very precise ratios to offer high levels of filtration efficiency and mechanical strength. The media is deep corrugated to optimize pleat‑to‑pleat separation and maximize utilization of the surface area throughout the filter life span.

ZenithPULSE SN™ conical filters are made from synthetic fiber compositions and a hydrophobic treatment. The self‑supported structure was designed for pulse‑jet applications combining high durability operating in harsh environments, especially to meet the strict demands of gas turbine air filtration systems.

ZenithPULSE FF™ conical filters combine the advantages of our cellulose‑synthetic media as well as fine fiber melt‑blown technology, delivering a hybrid filter with excellent reverse‑pulsing properties as well as high dust‑holding properties for extended pulse cycles.

ZenithPULSE NT™ conical filters consist of our cellulose‑synthetic media coated with electrospun nanofibers on the upstream side of the composition. The result is a structure with phenomenal reverse‑pulsing behavior and high mechanical efficiency at the lowest possible pressure drops.