Xiaolei Yi
Xinyang Normal University
19 Papers
32 Citations
Xiaolei Yi is an academic researcher from Xinyang Normal University. The author has contributed to research in topics: Superconductivity & Anisotropy. The author has an hindex of 5, co-authored 6 publications.
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Papers
Facile synthesis of nanographene sheet hybrid α-MnO2 nanotube and nanoparticle as high performance electrode materials for supercapacitor
Chunlei Wang,Fangtao Li,Yanan Wang,Haili Qu,Xiaolei Yi,Yang Lu,Yang Qiu,Zhijun Zou,Benhai Yu,Yongsong Luo +9 more
TL;DR: In this paper, the authors have synthesized nanographene sheet (NGs) hybrid α-MnO 2 nanotube (MTGs) and MPGs by a joint method of burn-quench and hydrothermal.
32
Nodal multigap superconductivity in the anisotropic iron-based compound RbCa2Fe4As4F2
Daniele Torsello,Erik Piatti,Giovanni Ummarino,Xiaolei Yi,X. Xing,Zhixiang Shi,Gianluca Ghigo,Dario Daghero +7 more
TL;DR: In this article , the gap structure and anisotropy of RbCa 2 (Fe 1− x Ni x ) 4 As 4 F 2 single crystals were investigated by a combination of directional point-contact Andreev-reflection spectroscopy and coplanar waveguide resonator measurements.
Transport properties and phase diagrams of FeSe1−S (0≤x≤1) single crystals
TL;DR: In this paper , the authors carried out systematic measurement of the normal state magnetoresistance and Hall effect and investigated the evolution of mobility spectrum, which reflects the multi-band structures for different doping content x and temperature T.
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Novel Anisotropy of Upper Critical Fields in Fe1+Te0.6Se0.4
Yongqiang Pan,Yue Sun,Nan Zhou,Xiaolei Yi,Qiang Hou,Jinhua Wang,Zengwei Zhu,Hiroyuki Mitamura,Masashi Tokunaga,Zhixiang Shi +9 more
TL;DR: Researchers studied the upper critical field (µ0Hc2) of Fe1+yTe0.6Se0.4 single crystals, revealing a novel fourfold symmetry of µ0Hc2 at lower temperatures and attributing the crossover behavior to anisotropic spin-paramagnetic effects.
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Anomalous second magnetization peak in 12442-type RbCa$_2$Fe$_4$As$_4$F$_2$ superconductors
TL;DR: In this paper , the second magnetization peak (SMP) was found to be related to the type and quantity of disorder/defects, but the mechanism has not been universally understood.
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