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Interaction enhanced inter-site hoppings for holons and interlayer exciton insulators in moiré correlated insulators
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作者 Zijian Ma Hongyi Yu 《Chinese Physics B》 2025年第9期519-525,共7页
In moiré-patterned van der Waals structures of transition metal dichalcogenides,correlated insulators can form under integer and fractional fillings,whose transport properties are governed by various quasiparticl... In moiré-patterned van der Waals structures of transition metal dichalcogenides,correlated insulators can form under integer and fractional fillings,whose transport properties are governed by various quasiparticle excitations including holons,doublons and interlayer exciton insulators.Here we theoretically investigate the nearest-neighbor inter-site hoppings of holons and interlayer exciton insulators.Our analysis indicates that these hopping strengths are significantly enhanced compared to that of a single carrier.The underlying mechanism can be attributed to the strong Coulomb interaction between carriers at different sites.For the interlayer exciton insulator consisting of a holon and a carrier in different layers,we have also obtained its effective Bohr radius and energy splitting between the ground and the first-excited states. 展开更多
关键词 correlated insulator holon interlayer exciton insulator moirépattern
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Intercalation-enabled bonding design for La_(2)Bi_(4)Cu_(2)Se_(2)Te_(2)O_(6)with high thermoelectric performance
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作者 Pengfei Zhang Yufei Meng +7 位作者 Shulin Bai Da Wan Peng Ai Zhiwei Zhang Yunzhuo Zhang Zhanpeng Xu Yujie Bao Shuwei Tang 《Journal of Energy Chemistry》 2026年第1期243-250,I0006,共9页
Thermoelectric (TE) materials enable precise, noiseless, and moving-part-free waste heat recovery and solid-state refrigeration through the Seebeck and Peltier effects [1–3]. The efficiency of TE materials is typical... Thermoelectric (TE) materials enable precise, noiseless, and moving-part-free waste heat recovery and solid-state refrigeration through the Seebeck and Peltier effects [1–3]. The efficiency of TE materials is typically evaluated by a dimensionless figure of merit (ZT = S2σT/(κe+ κl)), which depends on the delicate interplay among the electrical conductivity (σ), Seebeck coefficient (S), lattice thermal conductivity (κl), and electronic thermal conductivity (κe) [4]. 展开更多
关键词 Intercalation strategy interlayer static insulation Two-channel model Thermoelectric materials
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