Enhanced wear resistance and strength synergy in Ti3AlC2 MAX through in-situ synthesis of nano TiB2 heterostructure
Source abstract
Abstract
The rapid development of science and technology poses the core parts and techniques of industrial tribo-systems facing more stringent situations like high temperature exceeding 600 °C. For this case, solid lubrication materials are required to possess high strength, low friction coefficient and high wear resistance over a wide temperature range. However, achieving such “strong wearable yet lubricated” materials have proven challenging. Here we report a unique reinforced strategy for lubricated Ti 3AlC 2 MAX ceramic by in-situ synthesis of nano TiB 2 heterostructure, which results in a superior high temperature strength and lubrication simultaneously excess other traditional solid-lubrication materials. Such TiB 2/Ti 3AlC 2 composite employs a high level of compressive strength (1120 MPa ∼ 1368 MPa), wear resistance (<10 ‐ 5 mm 3/(N∙m)) and low friction coefficient (<0.4) at even 800 °C. We show that its unusual properties stem from the introduction of TiB 2 nanocrystalline densified and strengthened the Ti 3AlC 2 matrix thus to ensure the high strength. Meanwhile, the TiB 2 also undergoes rapid oxidation along high temperatures friction, resulting in the formation of a continuous and smooth lubricative tribofilm containing solid lubricant B 2O 3, leading to exceptional solid lubrication effect at high temperature. Our finding provides a potential material portfolio and a new design strategy for high temperature solid-lubricative applications.
Source: expertdata · Quality: candidate unverified · Source record ↗
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