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刘璇宇, 朱晓婷, 丁帅帅, 李荣金, 胡文平. 有机自旋阀及其磁电阻效应[J]. 化学进展, 2019, 31(9): 1199-1212.
Xuanyu Liu, Xiaoting Zhu, Shuaishuai Ding, Rongjin Li, Wenping Hu. Organic Spin Valves and Their Magnetoresistance Effect[J]. Progress in Chemistry, 2019, 31(9): 1199-1212.
随着巨磁电阻效应(GMR)的发现, 自旋电子学迅速兴起并成为一门新的学科。自旋电子学以电子的自旋属性为信息载体, 有望实现集逻辑、存储和通信于一体的多功能、低功耗器件, 为下一代电子学开辟新的路径。有机半导体具有低自旋轨道耦合、弱超精细相互作用和长自旋弛豫时间等特点, 因而受到了极大关注。有机自旋阀(OSVs)是研究有机材料中自旋注入和传输的原型器件。本文综述了有机自旋阀的发展历程, 总结了有机半导体的自旋弛豫机制, 详细分析了有机自旋阀中存在的关键科学问题, 如室温自旋传输的实现策略和磁电阻符号问题, 介绍了自旋有机发光二极管和自旋光伏器件等新型自旋器件, 最后对有机自旋电子学未来发展进行了展望。
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OSCs(Thickness) | FM Electrodes | MR @Tempreture | Spin diffusion length | ref |
---|---|---|---|---|
T6(150 nm) | LSMO(100 nm)/LSMO(100 nm) | 30%@RT | - | 42 |
Alq3(130 nm) | LSMO(100 nm)/Co(3.5 nm) | -40%@11 K | 45 nm@11 K | 30 |
Alq3(1.6 nm) | Co(8 nm)/Al2O3(0.6 nm)/Py(10 nm) | 7.5%@4.2 K; 6.8%@77 K;4.6%@RT | - | 50 |
Alq3(96 nm) | Co(5 nm)/AlOx(2 nm)/Co(10 nm) | 19%@5 K | - | 74 |
Alq3(2 nm) | Fe3O4(110 nm)/AlOx(2 nm)/Co(10 nm) | 6%@RT | - | 75 |
Alq3(1.6 nm) | Ni80Fe20(10 nm)/AlOx(0.6 nm)/Co(8 nm) | 6%@RT | - | 50 |
BCP(10 nm) | Co(11 nm)/AlOx(1.5 nm)/Ni80Fe20(11 nm) | 3.5%@RT | - | 61 |
BTQBT | LSMO(100 nm)/LSMO(100 nm) | 29%@9.1 K;8.8%@10 K | 100 nm@9.1 K | 76 |
C60(5 nm) | Co(15 nm)/AlOx(0.9 nm)Py(20 nm) | 10%@RT | 55 | |
C60(80 nm) | Fe3O4(70 nm)/AlOx(2 nm)/Co(10 nm) | 6.9% @150 K;5.3%@RT | 110 nm@RT | 60 |
C60(120 nm) | LSMO(50 nm)/Co(15 nm) | -13.3%@20 K | 86±8 nm@120 K | 77 |
CuPc(100 nm) | Fe(25 nm)/Co(5 nm) | 6.4%@40 K;3.2%@80 K; 1.8%@120 K | - | 78 |
CuPc(100 nm) | LSMO(50 nm)/Co(20 nm) | -6%@10 K;-0.84%@RT | 50 nm@10 K | 58 |
CVB(100 nm) | LSMO/Co(5 nm) | 18%±3%@14 K | - | 46 |
Pentacene | LSMO(100 nm)/LSMO(100 nm) | 6%@5.3 K | 55 nm@5.3 K | 76 |
Peteacene(300 nm) | LSMO(100 nm)/LSMO(100 nm) | 2%@9 K | - | 79 |
P(NDI2OD-T2)(35 nm) | LSMO(100 nm)/AlOx(1.5 nm)/Co(10 nm) | 90%@4.2 K;6.8%@RT | 64 nm@4.2 K | 56 |
PVDF(6.9 nm) | Fe3O4(75 nm)/AlOx(2 nm)/Co | 2.6%@RT | - | 62 |
P3MT(15 nm) | LSMO(50 nm)/Co(15 nm) | 2.7%@RT | - | 80 |
RRP3HT(100 nm) | LSMO/Co(10 nm) | 80%@5 K;1.5%@RT | - | 38 |
RRP3HT(75 nm/150 nm) | Fe50Co50(20/40 nm)/Ni81Fe19(20 nm) | 0.1%@RT;0.04%@RT | 62±10 nm | 39 |
RRP3HT(80 nm) | LSMO(100 nm)/AlOx(1 nm)/Co(10 nm) | 15.6%@2 K;-0.2%@2 K | - | 40 |
Rubrene(4.6 nm) | Fe(10 nm)/Co(8 nm) | 16%@4.2 K;6%@RT | 13.3 nm@0.45 K | 59 |
Rubrene(2 nm) | Fe3O4(100 nm)/AlOx(2 nm)/Co(10 nm) | 6%@RT | - | 44 |
α-NPD(105 nm) | LSMO/Co(5 nm) | 14±3%@14 K | - | 46 |
Rubrene(10 nm) | V[TCNE]x(50 nm)/ V[TCNE]x(300 nm) | -0.04%@100 K | - | 36 |
Rubrene(10 nm) | Fe(50 nm)/ V[TCNE]x(300 nm) | -0.18%@100 K | - | 81 |
TPD(200 nm) | Co2MnSi(20 nm)/Co(7 nm) | 10.7%@5 K;7.8%@RT | - | 57 |
TPD(200 nm) | LSMO/Co(7 nm) | 19%@5 K | - | 57 |
TPP(20 nm) | LSMO(100 nm)/Co(5 nm) | 17%@80 K | - | 82 |
BF3(50 nm) | NiFe/AlOx(2 nm)/Co | 3%@40 K | - | 83 |
CNAP(1~3 nm) | NiFe(30 nm)/AlOx(2 nm)/Co(50 nm) | 10%@5 K;6%@RT | - | 45 |
CNAP(5~15 nm) | NiFe(30 nm)/AlOx(2 nm)/Co(50 nm) | 4%~6%@5 K;1%~2%@RT | - | 45 |
PTCDA(2 nm) | NiFe(25 nm)/Co(15 nm)/AlOx(0.6 nm)/AlOx (0.6 nm)/Co(30 nm) | 13.5%@RT | - | 84 |
1H-DOO-PPV(25 nm) | LSMO(200 nm)/Co(15 nm) | 2%@10 K | - | 85 |
1D-DOO-PPV(25 nm) | LSMO(200 nm)/Co(15 nm) | 35% or 45%@10 K | - | 85 |
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