ArticleiScience2025
Carbon nanotubes at bilayer in-plane graphene/hBN with interlayer twist angles abnormally enhance its interlayer stress transfer.
Article in iScience, 2025. The graph could read no effect estimate from its abstract, so it casts no vote on the map. Cited by 1 paper.
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Abstract
A possibility of unprecedented architecture may be opened up by combining both vertical and in-plane heterostructures. It is fascinating to discover that the interlayer stress transfer, interlayer binding energy, and interlayer shear stress of bi-layer Gr/hBN with CNTs heterostructures greatly increase (more than 2 times) with increase the numbers of CNTs and both saturate at the numbers of CNTs = 3, but it causes only 10.92% decrease in failure strain. By analyzing the crack propagations and Von-Mises stress, we find that this abnormal enhancement in interlayer stress transfer and toughness originates from the localization of the stress fields arising from misfit dislocations and their out-of-plane deformations at the joints of CNTs and B-Gr/hBN heterostructures. Our discoveries hold great importance in comprehending the mechanical interfacial characteristics of bi-layer Gr/hBN and are anticipated to spark a great deal of curiosity in investigating its novel physics and potential uses.
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