Research paperComputational MDBuckling behavior of tenary one-dimensional van der Waals heterostructuresJing Wan, Shu LinarXiv·2022·10.48550/arxiv.2206.07297·arXiv:2206.07297Abstract1D van der Waals heterostructures (1D vdWH) were recently reported to be successfully synthesized. We perform molecular dynamics simulations to investigate the buckling behavior of a 1D vdWH composed of inner carbon nanotube, a middle boron nitride nanotube and an outer molybdenum disulfide nanotube. We find that as the temperature increases, the 1D vdWH gradully loses its stability and the peak value of compressive stress decreases. Slenderness ratio have a slight influence on the strength and stability of 1D vdWH under axial compression.Read more
CNT(20,20)@BNNT(25,25)@MoS₂NT(26,26) heterostructure used for temperature-dependent buckling analysis at 24 nm effective length.5 propertiesSimulatedCStudied MaterialBNStudied MaterialMoS₂Studied Materialvan der Waals heterostructureStudied MaterialExpand
CNT(20,20)@BNNT(25,25)@MoS₂NT(26,26) heterostructure with slenderness ratio 3.6 and effective length 18 nm.2 propertiesSimulatedCStudied MaterialBNStudied MaterialMoS₂Studied Materialvan der Waals heterostructureStudied MaterialExpand
CNT(20,20)@BNNT(25,25)@MoS₂NT(26,26) heterostructure with slenderness ratio 4.8 and effective length 24 nm.1 propertySimulatedCStudied MaterialBNStudied MaterialMoS₂Studied Materialvan der Waals heterostructureStudied MaterialExpand
CNT(20,20)@BNNT(25,25)@MoS₂NT(26,26) heterostructure with slenderness ratio 6.0 and effective length 30 nm.1 propertySimulatedCStudied MaterialBNStudied MaterialMoS₂Studied Materialvan der Waals heterostructureStudied MaterialExpand
CNT(20,20)@BNNT(25,25)@MoS₂NT(26,26) heterostructure with slenderness ratio 7.2 and effective length 36 nm.1 propertySimulatedCStudied MaterialBNStudied MaterialMoS₂Studied Materialvan der Waals heterostructureStudied MaterialExpand
Research paperComputational MDBuckling behavior of tenary one-dimensional van der Waals heterostructuresJing Wan, Shu LinarXiv·2022·10.48550/arxiv.2206.07297·arXiv:2206.07297Abstract1D van der Waals heterostructures (1D vdWH) were recently reported to be successfully synthesized. We perform molecular dynamics simulations to investigate the buckling behavior of a 1D vdWH composed of inner carbon nanotube, a middle boron nitride nanotube and an outer molybdenum disulfide nanotube. We find that as the temperature increases, the 1D vdWH gradully loses its stability and the peak value of compressive stress decreases. Slenderness ratio have a slight influence on the strength and stability of 1D vdWH under axial compression.Read more
CNT(20,20)@BNNT(25,25)@MoS₂NT(26,26) heterostructure used for temperature-dependent buckling analysis at 24 nm effective length.5 propertiesSimulatedCStudied MaterialBNStudied MaterialMoS₂Studied Materialvan der Waals heterostructureStudied MaterialExpand
CNT(20,20)@BNNT(25,25)@MoS₂NT(26,26) heterostructure with slenderness ratio 3.6 and effective length 18 nm.2 propertiesSimulatedCStudied MaterialBNStudied MaterialMoS₂Studied Materialvan der Waals heterostructureStudied MaterialExpand
CNT(20,20)@BNNT(25,25)@MoS₂NT(26,26) heterostructure with slenderness ratio 4.8 and effective length 24 nm.1 propertySimulatedCStudied MaterialBNStudied MaterialMoS₂Studied Materialvan der Waals heterostructureStudied MaterialExpand
CNT(20,20)@BNNT(25,25)@MoS₂NT(26,26) heterostructure with slenderness ratio 6.0 and effective length 30 nm.1 propertySimulatedCStudied MaterialBNStudied MaterialMoS₂Studied Materialvan der Waals heterostructureStudied MaterialExpand
CNT(20,20)@BNNT(25,25)@MoS₂NT(26,26) heterostructure with slenderness ratio 7.2 and effective length 36 nm.1 propertySimulatedCStudied MaterialBNStudied MaterialMoS₂Studied Materialvan der Waals heterostructureStudied MaterialExpand
Research paperComputational MDBuckling behavior of tenary one-dimensional van der Waals heterostructuresJing Wan, Shu LinarXiv·2022·10.48550/arxiv.2206.07297·arXiv:2206.07297Abstract1D van der Waals heterostructures (1D vdWH) were recently reported to be successfully synthesized. We perform molecular dynamics simulations to investigate the buckling behavior of a 1D vdWH composed of inner carbon nanotube, a middle boron nitride nanotube and an outer molybdenum disulfide nanotube. We find that as the temperature increases, the 1D vdWH gradully loses its stability and the peak value of compressive stress decreases. Slenderness ratio have a slight influence on the strength and stability of 1D vdWH under axial compression.Read more
CNT(20,20)@BNNT(25,25)@MoS₂NT(26,26) heterostructure used for temperature-dependent buckling analysis at 24 nm effective length.5 propertiesSimulatedCStudied MaterialBNStudied MaterialMoS₂Studied Materialvan der Waals heterostructureStudied MaterialExpand
CNT(20,20)@BNNT(25,25)@MoS₂NT(26,26) heterostructure with slenderness ratio 3.6 and effective length 18 nm.2 propertiesSimulatedCStudied MaterialBNStudied MaterialMoS₂Studied Materialvan der Waals heterostructureStudied MaterialExpand
CNT(20,20)@BNNT(25,25)@MoS₂NT(26,26) heterostructure with slenderness ratio 4.8 and effective length 24 nm.1 propertySimulatedCStudied MaterialBNStudied MaterialMoS₂Studied Materialvan der Waals heterostructureStudied MaterialExpand
CNT(20,20)@BNNT(25,25)@MoS₂NT(26,26) heterostructure with slenderness ratio 6.0 and effective length 30 nm.1 propertySimulatedCStudied MaterialBNStudied MaterialMoS₂Studied Materialvan der Waals heterostructureStudied MaterialExpand
CNT(20,20)@BNNT(25,25)@MoS₂NT(26,26) heterostructure with slenderness ratio 7.2 and effective length 36 nm.1 propertySimulatedCStudied MaterialBNStudied MaterialMoS₂Studied Materialvan der Waals heterostructureStudied MaterialExpand
Research paperComputational MDBuckling behavior of tenary one-dimensional van der Waals heterostructuresJing Wan, Shu LinarXiv·2022·10.48550/arxiv.2206.07297·arXiv:2206.07297Abstract1D van der Waals heterostructures (1D vdWH) were recently reported to be successfully synthesized. We perform molecular dynamics simulations to investigate the buckling behavior of a 1D vdWH composed of inner carbon nanotube, a middle boron nitride nanotube and an outer molybdenum disulfide nanotube. We find that as the temperature increases, the 1D vdWH gradully loses its stability and the peak value of compressive stress decreases. Slenderness ratio have a slight influence on the strength and stability of 1D vdWH under axial compression.Read more
CNT(20,20)@BNNT(25,25)@MoS₂NT(26,26) heterostructure used for temperature-dependent buckling analysis at 24 nm effective length.5 propertiesSimulatedCStudied MaterialBNStudied MaterialMoS₂Studied Materialvan der Waals heterostructureStudied MaterialExpand
CNT(20,20)@BNNT(25,25)@MoS₂NT(26,26) heterostructure with slenderness ratio 3.6 and effective length 18 nm.2 propertiesSimulatedCStudied MaterialBNStudied MaterialMoS₂Studied Materialvan der Waals heterostructureStudied MaterialExpand
CNT(20,20)@BNNT(25,25)@MoS₂NT(26,26) heterostructure with slenderness ratio 4.8 and effective length 24 nm.1 propertySimulatedCStudied MaterialBNStudied MaterialMoS₂Studied Materialvan der Waals heterostructureStudied MaterialExpand
CNT(20,20)@BNNT(25,25)@MoS₂NT(26,26) heterostructure with slenderness ratio 6.0 and effective length 30 nm.1 propertySimulatedCStudied MaterialBNStudied MaterialMoS₂Studied Materialvan der Waals heterostructureStudied MaterialExpand
CNT(20,20)@BNNT(25,25)@MoS₂NT(26,26) heterostructure with slenderness ratio 7.2 and effective length 36 nm.1 propertySimulatedCStudied MaterialBNStudied MaterialMoS₂Studied Materialvan der Waals heterostructureStudied MaterialExpand
