Products in Power & Utilities: Reinforcement

Mica Is A Generic Term Applicable To The Group Of Complex Aluminosilicate Minerals That Occur Naturally In Plate Or Sheet-Like Form.

Mineral Wool Fibers Are Inorganic Synthetic “Wool-Like” Fibers Comprised Mainly Of Silicates Of Calcium, Magnesium, And Aluminum.

Mineral Wool Fibers Are Inorganic Synthetic “Wool-Like” Fibers Comprised Mainly Of Silicates Of Calcium, Magnesium, And Aluminum.

Wollastonite is a naturally occuring, non-metallic, acicular (needle-shape) mineral.

Microglass milled fibers are E-glass filaments. Microglass is used as reinforcement in composites to increase mechanical properties (impact, tensile, compressive and flexural), improve dimensional stability and minimize distortion at elevated temperatures.

Microglass milled fibers are E-glass filaments. Microglass is used as reinforcement in composites to increase mechanical properties (impact, tensile, compressive and flexural), improve dimensional stability and minimize distortion at elevated temperatures.

Microglass milled fibers are E-glass filaments. Microglass is used as reinforcement in composites to increase mechanical properties (impact, tensile, compressive and flexural), improve dimensional stability and minimize distortion at elevated temperatures.

Mica Is A Generic Term Applicable To The Group Of Complex Aluminosilicate Minerals That Occur Naturally In Plate Or Sheet-Like Form.

Microglass milled fibers are E-glass filaments. Microglass is used as reinforcement in composites to increase mechanical properties (impact, tensile, compressive and flexural), improve dimensional stability and minimize distortion at elevated temperatures.

Wollastonite is a naturally occuring, non-metallic, acicular (needle-shape) mineral.

Microglass milled fibers are E-glass filaments. Microglass is used as reinforcement in composites to increase mechanical properties (impact, tensile, compressive and flexural), improve dimensional stability and minimize distortion at elevated temperatures.

Microglass milled fibers are E-glass filaments. Microglass is used as reinforcement in composites to increase mechanical properties (impact, tensile, compressive and flexural), improve dimensional stability and minimize distortion at elevated temperatures.

Microglass milled fibers are E-glass filaments. Microglass is used as reinforcement in composites to increase mechanical properties (impact, tensile, compressive and flexural), improve dimensional stability and minimize distortion at elevated temperatures.

Wollastonite is a naturally occuring, non-metallic, acicular (needle-shape) mineral.

Mineral Wool Fibers Are Inorganic Synthetic “Wool-Like” Fibers Comprised Mainly Of Silicates Of Calcium, Magnesium, And Aluminum.

Wollastonite is a naturally occuring, non-metallic, acicular (needle-shape) mineral.

Microglass milled fibers are E-glass filaments. Microglass is used as reinforcement in composites to increase mechanical properties (impact, tensile, compressive and flexural), improve dimensional stability and minimize distortion at elevated temperatures.

Microglass milled fibers are E-glass filaments. Microglass is used as reinforcement in composites to increase mechanical properties (impact, tensile, compressive and flexural), improve dimensional stability and minimize distortion at elevated temperatures.

Wollastonite is a naturally occuring, non-metallic, acicular (needle-shape) mineral.

Microglass milled fibers are E-glass filaments. Microglass is used as reinforcement in composites to increase mechanical properties (impact, tensile, compressive and flexural), improve dimensional stability and minimize distortion at elevated temperatures.

Wollastonite is a naturally occuring, non-metallic, acicular (needle-shape) mineral.

Microglass milled fibers are E-glass filaments. Microglass is used as reinforcement in composites to increase mechanical properties (impact, tensile, Compressive and flexural), improve dimensional stability and minimize distortion at elevated temperatures.

Wollastonite is a naturally occuring, non-metallic, acicular (needle-shape) mineral.

Microglass milled fibers are E-glass filaments. Microglass is used as reinforcement in composites to increase mechanical properties (impact, tensile, compressive and flexural), improve dimensional stability and minimize distortion at elevated temperatures.

Mica Is A Generic Term Applicable To The Group Of Complex Aluminosilicate Minerals That Occur Naturally In Plate Or Sheet-Like Form.

Microglass milled fibers are E-glass filaments. Microglass is used as reinforcement in composites to increase mechanical properties (impact, tensile, compressive and flexural), improve dimensional stability and minimize distortion at elevated temperatures.

Microglass milled fibers are E-glass filaments. Microglass is used as reinforcement in composites to increase mechanical properties (impact, tensile, compressive and flexural), improve dimensional stability and minimize distortion at elevated temperatures.

Microglass milled fibers are E-glass filaments. Microglass is used as reinforcement in composites to increase mechanical properties (impact, tensile, compressive and flexural), improve dimensional stability and minimize distortion at elevated temperatures.

Wollastonite is a naturally occuring, non-metallic, acicular (needle-shape) mineral.

Wollastonite is a naturally occuring, non-metallic, acicular (needle-shape) mineral.

Wollastonite is a naturally occuring, non-metallic, acicular (needle-shape) mineral.

HexTow® IM8 carbon fiber is a continuous, high performance, intermediate modulus, PAN based fiber available in 12,000 (12K) filament count tows. This fiber has been surface treated and can be sized to improve its interlaminar shear properties, handling characteristics, and structural properties. It is suggested for use in prepregging, filament winding, braiding, and pultrusion where additional strength and modulus are required over IM7.

HexTow® 85 carbon fiber is a continuous, PAN based fiber available in 24,000 (24K) filament count tows. This fiber was developed specifically as a cost-effective replacement of rayon-based carbon fiber for ablative applications. The method in which it is processed results in a PAN-based carbon fiber that delivers equivalent strength and ablative performance to traditional rayon-based carbon fiber in carbon-carbon composite structures. Composite and carbon-carbon ablative data are currently being generated to compare HexTow® 85 performance to historical rayon databases. HexTow® 85 is manufactured in the United States from U.S.-produced PAN precursor, ensuring a reliable supply chain for ablative materials used on US military applications.

HexTow® AS4A carbon fiber is a continuous, high strength, high strain, PAN based fiber available in 12,000 (12K) filament count tows. This fiber has been surface treated and can be sized to improve its interlaminar shear properties, handling characteristics, and structural properties, and is suggested for use in prepregging, filament winding, braiding, and pultrusion.

HexTow® IMA carbon fiber is a continuous, high performance, intermediate modulus, PAN based fiber available in 12,000 (12K) filament count tows. This fiber has been surface treated and can be sized to improve its interlaminar shear properties, handling characteristics, and structural properties. It is suggested for use in prepregging. The unique properties of HexTow® IMA fiber, such as higher tensile strength and modulus, as well as good shear strength, allow structural designers to achieve both higher safety margins for both stiffness and strength critical applications.

HexTow® PV42/850 carbon fiber is a continuous, high performance, intermediate modulus, PAN based fiber available in 12,000 (12K) filament count tows. This fiber has been surface treated and can be sized to improve its interlaminar shear properties, handling characteristics, and structural properties. It is suggested for use in prepregging, filament winding, braiding, and pultrusion. The unique properties of HexTow® PV42/850 fiber, such as higher tensile strength and modulus, as well as good shear strength, allow structural designers to achieve both higher safety margins for both stiffness and strength critical applications.