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Hybrid Fabrics
The Benefits of Hybrid Fabrics;
Low areal weights
Cost savings
Improved impact resistance
Various combination possibilities
Carbon / Aramid Hybrid Fabrics – The high impact resistance and tensile strength of the Aramid Fibre combined with a high compressive and tensile strength of Carbon. Both fibres have low density but relatively high cost.
Glass / Aramid Hybrid Fabrics – The low density, high impact resistance and tensile strength of Aramid Fibre combined with the good compressive and tensile strength of Glass, coupled with its lower cost.
Carbon / Glass Hybrid Fabrics – Carbon Fibre contributes high tensile compressive strength and stiffness and reduces the density, while Glass reduces the cost.
Carbon and Coloured Polyester Fabrics
Warp: 3K Carbon Fibre 200tex, Weft: Blue Polyester 1100 dtex
Coloured Copper Wire (Innovative tex)
Warp: – 3K Carbon 200 tex, Weft: Red Copper wire + 3K Carbon
Hybrid Fabric Weaving Pattern; Plain, 2/2 Twill, Satin, 4/4 Twill,
Hybrid Fabrics Metarial; Carbon Fiber, Aramid Fiber, Glass Fiber, Poltester fiber, Chopper Fiber
Hybrid Fabric Samples;
Carbon 3K + Aramid 1580 dtex (Heracron)
Carbon 3K + Aramid 1210 dtex (Twaron, Teijin)
Carbon 3K + E Glass 300 tex
Carbon 12K + E Glass 600 tex
Carbon 3K + Green Polyester 1100 dtex
Carbon 3K + Blue Copper wire + 3K Carbon
Hybrid Fabrics, 200 gr/m2 Twill Carbon & Aramid
Hybrid Fabrics, 180 gr/m2 Plain Carbon & Aramid
Hybrid Fabrics, 165 gr/m2 2/2 Twill Carbon & Aramid
Hybrid Fabrics 250 gr/m2 Twill Carbon & Glass
Carbon Fiber Fabric
Carbomid is the premier producer of high performance carbon fabric.
We offer a variety of PAN and Pitched based carbon fabrics utilizing 3K, 6K, 12K and 24K carbon fibers. Carbomid – Ikitelli facility is dedicated solely to the manufacture of high performance fabrics for the composites industry.
Carbon fibers or carbon fibres (alternatively CF, graphite fiber or graphite fibre) are fibers about 5–10 micrometres in diameter and composed mostly of carbon atoms. Carbon fibers have several advantages including high stiffness, high tensile strength, low weight, high chemical resistance, high temperature tolerance and low thermal expansion. These properties have made carbon fiber very popular in aerospace, civil engineering, military, and motorsports, along with other competition sports. However, they are relatively expensive when compared with similar fibers, such as glass fibers or plastic fibers.
To produce a carbon fiber, the carbon atoms are bonded together in crystals that are more or less aligned parallel to the long axis of the fiber as the crystal alignment gives the fiber high strength-to-volume ratio (in other words, it is strong for its size). Several thousand carbon fibers are bundled together to form a tow, which may be used by itself or woven into a fabric.
Carbon fibers are usually combined with other materials to form a composite. When impregnated with a plastic resin and baked it forms carbon-fiber-reinforced polymer (often referred to as carbon fiber) which has a very high strength-to-weight ratio, and is extremely rigid although somewhat brittle. Carbon fibers are also composited with other materials, such as graphite, to form reinforced carbon-carbon composites, which have a very high heat tolerance.
Carbon Fiber Applications
Structural parts, aerospace industries, reinforcement construction, automotive parts, sporting goods,
Characteristics
Carbon fiber is most notably used to reinforce composite materials, particularly the class of materials known as carbon fiber or graphite reinforced polymers. Non-polymer materials can also be used as the matrix for carbon fibers. Due to the formation of metal carbides and corrosion considerations, carbon has seen limited success in metal matrix composite applications. Reinforced carbon-carbon (RCC) consists of carbon fiber-reinforced graphite, and is used structurally in high-temperature applications. The fiber also finds use in filtration of high-temperature gases, as an electrode with high surface area and impeccable corrosion resistance, and as an anti-static component. Molding a thin layer of carbon fibers significantly improves fire resistance of polymers or thermoset composites because a dense, compact layer of carbon fibers efficiently reflects heat.
The increasing use of carbon fiber composites is displacing aluminum from aerospace applications in favor of other metals because of galvanic corrosion issues.
Carbon fiber can be used as an additive to asphalt to make electrically-conductive asphalt concrete. Using this composite material in the transportation infrastructure, especially for airport pavement, decreases some winter maintenance problems that led to flight cancellation or delay due to the presence of ice and snow. Passing current through the composite material 3D network of carbon fibers dissipates thermal energy that increases the surface temperature of the asphalt, which is able to melt ice and snow above it.
High tensile strength, Dimensional stability, High heat resistance, Fire resistant, Good thermal conductivity, Good chemical resistance, Outstanding electrical properties, Durable, Economical
High strength, High modulus, High thermal conductivity, Electrical resistivity, and Light weight
100 meter roll lengths
Standard widths: 50 cm, 100 cm
Finishes
Carbon fabrics are woven utilizing producer sized fibers for resin compatibility.
Carbon Fiber Price, Carbon Fiber Producer, Carbon Fiber Prepreg Producer
Carbon Fiber 3K 200 gr/m2 Twill, Carbon Fiber 3K 160 gr/m2 Plain, Carbon Fiber 12K 600 gr/m2 Twill,
Carbon Fiber 245 gr/m2 Twill, Carbon Fiber 280 gr/m2 4x4 Twill, Carbon Fiber & Aramid Fiber Hybrid Fabrics