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Using rapid infrared forming to control interfaces in titanium-matrix composites

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Abstract

Control of the fiber-matrix reaction during composite fabrication is commonly achieved by shortening the processing time, coating the reinforcement with relatively inert materials, or adding alloying elements to retard the reaction. To minimize the processing time, a rapid infrared forming (RIF) technique for metal-matrix composite fabrication has been developed. Experiments have shown that the RIF technique is a quick, simple, and low-cost process to fabricate titanium-alloy matrix composites reinforced with either silicon carbide or carbon fibers. Due to short processing times, typically on the order of 1–2 minutes in an inert atmosphere for composites with up to eight-ply reinforcements, the interfacial reaction is limited and well controlled. Composites fabricated by this technique have mechanical properties that are either comparable to or, in several cases, superior to those made with conventional diffusion-bonding techniques.

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Warrier, S.G., Lin, R.Y. Using rapid infrared forming to control interfaces in titanium-matrix composites. JOM 45, 24–27 (1993). https://doi.org/10.1007/BF03222345

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