Yanbin Li
North Carolina State University
9 Papers
4 Citations
Yanbin Li is an academic researcher from North Carolina State University. The author has contributed to research in topics: Flexoelectricity & Piezoelectricity. The author has an hindex of 2, co-authored 5 publications. Previous affiliations of Yanbin Li include Temple University.
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Papers
Nonlinear analysis of functionally graded flexoelectric nanoscale energy harvesters
TL;DR: In this paper, the nonlinear vibration of a FGFMs energy harvesting nanobeam with a concentrated mass located at free end is analyzed theoretically while considering the electromechanical coupling effect induced by strain gradients.
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Size-dependent electromechanical coupling in functionally graded flexoelectric nanocylinders
TL;DR: In this paper, a novel asymmetric nanocylinder is composed of functionally graded materials presented with uniform pressures on the top surface to create a relatively large inhomogeneous strain field for the achievement of obvious flexoelectric polarization.
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An analysis of flexoelectric coupling associated electroelastic fields in functionally graded semiconductor nanobeams
TL;DR: In this paper, a beam-like semiconductor made by functionally graded (FG) flexoelectric materials was studied and the authors derived the complicated mutual coupling governing equations and associated boundary conditions strictly.
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Study on PN heterojunctions associated bending coupling in flexoelectric semiconductor composites considering the effects of size-dependent and symmetry-breaking
TL;DR: In this paper , the authors theoretically and numerically study a beam-shaped FS laminated composite subjected to pure bending loads and find that the strain gradients can exhibit a strong size-dependent effect and are quite sensitive to structural asymmetry and material parameters.
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Magnetic Poles Enabled Kirigami Meta‐Structure for High‐Efficiency Mechanical Memory Storage
Libiao Xin,Yanbin Li,Baolong Wang,Zhiqiang Li +3 more
TL;DR: High-efficiency mechanical memory storage enabled by magnetic poles enabled kirigami meta-structure. The device stores information bits exponentially larger than previous designs by leveraging the deformation sequences of the kirigami module and combinatorics of the deformation independences among the cylindrical kirigami unit arrays.
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