基本信息

邢国忠  研究员 教授 博导

电子邮件: gzxing@ime.ac.cn

通信地址: 北京市朝阳区北土城西路3号

研究领域

新型存储器、传感器器件物理与集成应用;存内计算;类脑计算;CMOS PI/E IC流片

招生招聘信息

招收博士后和博士/硕士研究生 (凝聚态物理、微电子学与固体电子学、微电子科学与技术、电子科学与技术等专业)

招生方向

自旋电子器件物理与集成应用

神经形态计算器件与集成技术

高性能端侧感存算器件与系统

教职服务

研究生英语沙龙
职能服务

1. 国家工业级集成电路标准委员会委员

2. 国家科技专家库 评审专家

3. 工信部、中电集团、科技部、基金委项目评审专家

4. 中关村管委会项目专员

5. 北京智芯微电子科技有限公司存储器资深顾问

6. Journal of Low Power Electronics and Applications Section Editor-in-Chief

7. The World's Top 2% Scientists (2022) https://elsevier.digitalcommonsdata.com/datasets/btchxktzyw/4

8. 国家重点研发计划专项评审专家

专利成果

  1. Magnetoresistive memory cell, write control method and memory computing module (US Patent 17/821,783)
  2. Reconfigurable puf device based on fully electric field-controlled domain wall motion (US Patent 18/061,953)
  3. Spintronic Device, SOT-MRAM Storage Cell, Storage Array and In-Memory Computing Circuit (US Patent 17/594,684)
  4. Two-dimensional Material-based Selector, Memory Unit, Array, and Method of Operating The Same (US Patent 17/998,782)
  5. SOT-Driven Field-Free Switching MRAM and Array Thereof (US Patent 18/042,249)
  6. Resistive Switching Transition Oxide: Towards High Performance Hybrid Bond Media for BSI Application (US Patent 15/834,519)
  7. Complementary Contact Bar, DTI & Poly Salicide structure to enhance QE with minimized cross-talk in BSI (US Patent 16/283,895)
  8. Filter-Free, Highly Selective and Sensitive Multispectral Imaging Sensor Pixel (US Patent UMCD20180400)
  9. Size-scaled and location-controlled growth technique for vertically aligned nanowire arrays (Type: Application; Publication No. CN102531031A)
  10. Resistive Switching Transition Oxide: Photodetector for BSI, 发明, 2019, 第1发明人, 专利号: US 16/283,895
  11. Contact Bar, DTI & Poly Salicide structure to enhance QE with minimized cross-talk in BSI, 发明, 2017, 第1发明人, 专利号: US 15/834,519
  12. Fabrication Method and Application of A New Type of Field Free SOT-MRAM, 发明, 2020, 第1发明人, 专利号: PCT/CN2020/098167
  13. Vertical Selector Configured High-density 3D SOT-MRAM, 发明, 2020, 第1发明人, 专利号: PCT/CN2020/090618
  14. High Speed and Low Power Field-Free SOT-MRAM and Boolean Logic Integration, 发明, 2020, 第1发明人, 专利号: PCT/CN2020/107726
  15. Filter-Free, Highly Selective and Sensitive Multispectral Imaging Sensor Pixel, 发明, 2018, 第2发明人, 专利号: US UMCD20180400
  16. Size-scaled and location-controlled growth technique for vertically aligned nanowire arrays, 发明, 2012, 第 3 发明人, 专利号: CN102531031A
  17. CMOS Image Sensors, 发明, 2019, 第 2 发明人, 专利号: CN110120396A
  18. A new type SOT-MRAM fabrication technology and high-reliability reading circuit, 发明, 2021, 第1发明人, 专利号: PCT/CN2021/070110
  19. Field free 3D integrated SOT-MRAM device and method for forming the same, 发明, 2020, 第1发明人, 专利号: PCT/CN2020/110217
  20. STACKED SEMICONDUCTOR DEVICE AND METHOD FOR FORMING THE SAME, 发明, 2019, 第1发明人, 专利号: US20190181119
  21. A multi-state spintronic device and its integrated application, 发明, 2020, 第 1 发明人, 专利号: PCT/CN2020/141520
  22. SOT-MRAM memory cell, array and Hamming distance calculation method, 发明, 2020, 第1发明人, 专利号: 172511ZL20200301
  23. A memristor based electronic synapse, 发明, 2020, 第 1 发明人, 专利号: 172511ZL20200351
  24. A memristor for Hamming distance calculation in memory and its operation method, 发明, 2021, 第1发明人, 专利号: 172511ZL20210195
  25. A full electronically controlled spintronic neuron device and its integrated application, 发明, 2021, 第1发明人, 专利号: 172511ZL20210198
  26. Fabrication and integrated application of an activation function generator, 发明, 2021, 第1发明人, 专利号: 172511ZL20210274
  27. Multi-resistance state spintronic device and its integrated application, 发明, 2020, 专利号: PCT/CN2020/141520
  28. 全电控自旋电子神经元器件、神经元电路和神经网络, 发明,第1发明人, CN113326928A 
  29. 一种磁阻存储器单元、写控制方法及存算模块, 发明, 第1发明人, 专利号: CN113744779A
  30. 影像传感器, 发明, 授权, 第 1 发明人, 专利号:  CN110120396B
  31. 基于磁畴壁驱动型磁隧道结的激活函数发生器及制备方法, 发明, 第1发明人, 专利号: CN113193110A
  32. 一种基于自旋轨道矩的神经元器件, 发明, 第 1 发明人, 专利号: CN113657586A
  33. 自旋轨道矩磁随机存储单元、阵列及汉明距离计算方法, 发明, 第1发明人, 专利号: CN112767980A
  34. 磁电阻器件以及改变其阻态的方法、突触学习模块, 发明, 第1发明人, 专利号: CN112864314A
  35. 多阻态自旋电子器件、读写电路及存内布尔逻辑运算器, 发明, 第1发明人, 专利号: CN112599161A
  36. 忆阻器、汉明距离计算方法及存算一体集成应用, 发明, 第1发明人, 专利号: CN113129967A
  37. 全电控自旋纳米振荡器神经元器件, 发明, 第1发明人, 专利号: CN113611794A
  38. 一种自参考存储结构和存算一体电路, 发明, 第1发明人, 专利号: CN112382319A
  39. 三态自旋电子器件、存储单元、存储阵列及读写电路, 发明, 第1发明人, 专利号: CN112802515A
  40. 二维材料基选通器、存储器单元、阵列及其操作方法, 发明, 第1发明人, 专利号: CN111554809A
  41. 自旋轨道扭矩磁随机存储单元、存储阵列及存储器, 发明, 第1发明人, 专利号: CN111740011A
  42. 光检测器及其制作方法, 发明, 第1发明人, 专利号: CN111446267A
  43. 无外磁场定向自旋翻转的SOT-MRAM及阵列, 发明, 第1发明人, 专利号: CN111986717A
  44. 自旋电子器件、SOT-MRAM存储单元、存储阵列以及存算一体电路, 发明, 第 1 发明人, 专利号: CN112002722A
  45. 一种新型可重构神经元器件及集成应用,发明, 第1发明人,172511ZL20211677
  46. 一种新型全电控高能效SOT-MRAM,发明, 第 1 发明人, 专利号: 172511ZL20211676
  47. 一种新型高速斯格明子基晶体管,发明, 第1发明人, 专利号: 172511ZL20211678
  48. 一种新型自旋电子神经元器件及集成技术,发明, 第1发明人, 专利号: 172511ZL20211679
  49. 一种磁畴壁器件基高性能Hopfield神经网络实现全局最优计算方法,发明, 第1发明人, 专利号: 172511ZL20220420
  50. 一种实现Hopfield神经网络优化存内计算自旋波器件,发明, 第1发明人, 专利号: 172511ZL20220483
  51. Reconfigurable Reservoir Neural Network Based on Magnetic Structure, 2023, Patent No.: 172511ZL20230152
  52. Discrete and Compact Spintronic Device and Memory Reservoir Computing, 2023, patent number: 172511ZL20230154
  53. Highly reliable magnetic memory, calculation module and speech recognition architecture, 2023, patent number: 172511ZL20230162
  54. Stochastic spintronic device and its neural network architecture, 2023, Patent No.: 172511ZL20230164
  55. Domain Wall magnetic-tunnel-junction-based activation function generator and preparation method thereof, 2023, Patent No.: PCT/CN2021/081812

发表论文

https://scholar.google.com/citations?hl=en&user=jxbQ1CgAAAAJ

Citations:  8160 (All)  3592 (Since 2018)

h-index:  47     (All)   33    (Since 2018)

i10-index: 108   (All)   86    (Since 2018)

22 Publications with Citations > 100

  1. Spintronic leaky-integrate-fire spiking neurons with self-reset and winner-takes-all for neuromorphic computing, Nature Communications | ( 2023) 14:1068 (Editors’ Highlights 编辑亮点推荐 Featured Article通讯作者

  2. Gate-Tunable Anisotropic Oxygen Ion Migration in SrCoOx: Toward Emerging Oxide-Based Artificial Synapses, Advanced Intelligent Systems, 2200287 (2023) 主要合作者

  3. Implementation of Highly Reliable and Energy-Efficient Non-Volatile In-Memory Computing Using Multi-State Domain Wall Spin-Orbit Torque Device, Advanced Intelligent Systems 2200028 (2022) 封面 https://doi.org/10.1002/aisy.202200028 通讯作者

  4. A Computing-in-memory macro with three-dimensional resistive random-access memory, Nature Electronics 5, 469–477 (2022) https://doi.org/10.1038/s41928-022-00795 主要合作者

  5. Tailoring skyrmion motion dynamics via magnetoelectric coupling: towards highly energy-efficient and reliable non-volatile memory applications, Journal of Applied Physics 132, 084902 (2022) (Editor's Pick) 通讯作者

  6. Synergy of spin-orbit torque and built-in field in magnetic tunnel junctions with tilted magnetic anisotropy: towards tunable and reliable spintronic neurons, Advanced Science 2203006 (2022封面 DOI: 10.1002/advs.202203006 通讯作者

  7. 3T2M Canted-Type x SOT-MRAM: Field-Free, High-Energy-Efficiency, and High-Read-Margin Memory toward Cache Applications, Journal of Science: Advanced Materials and Devices, https://doi.org/10.1016/j.jsamd.2022.100508 (2022) 通讯作者

  8. All-Electrical Control of Compact SOT-MRAM: Toward Highly Efficient and Reliable Non-Volatile In-Memory Computing, Micromachines 13, 319 (2022) 通讯作者 Cited: 9 

  9. Area-Efficient 1T-2D-2MTJ SOT-MRAM Cell for High Read Performance, IEEE Transactions on Circuits and Systems II: Express Briefs, 2022, doi: 10.1109/TCSII.2022.3218042 通讯作者

  10. Reflow Soldering Capability Improvement by Utilizing TaN Interfacial Layer in 1Mbit RRAM Chip, Micromachines 13, 567, (2022) 主要合作者

  11. Biologically emulated flexible sensors with high sensitivity and low hysteresis: towards electronic skin to a sense of touch, Small, DOI: 10.1002/smll.202203044 (2022) 通讯作者 Cited: 16

  12. Bioinspired Dual‐Mode Stretchable Strain Sensor Based on Magnetic Nanocomposites for Strain/Magnetic Discrimination, Small, 2205316 (2022) 通讯作者

  13. Highly Stretchable, Responsive Flexible Dual-Mode Magnetic Strain Sensor, Advanced Materials Technologies, 2201439 (2022) 通讯作者 

  14. Implementation of Highly Reliable and Energy Efficient in-Memory Hamming Distance Computations in 1 Kb 1-Transistor-1-Memristor Arrays, Advanced Materials Technologies 2100745 (2021) Cited: 16 通讯作者 

  15. Highly Sensitive and Wide-Range Flexible Bionic Tactile Sensors, ACS Applied Nano Materials 5, 8, 11028–11036 (2022) Cited: 11 通讯作者 

  16. Reducing Dzyaloshinskii-Moriya interaction and field-free spin-orbit torque switching in synthetic antiferromagnets, Nature Communications 12 (1), 3113 (2021)  Cited: 31 主要合作者

  17. Hybrid memristor-CMOS neurons for in-situ learning in fully hardware memristive spiking neural networks, Science Bulletin 66 (16), 1624-1633 (2021) Cited: 26 主要合作者

  18. Development of magnetic imprinted heterojunction nanoreactors: 3-Dimensional specific recognition for selectively photocatalyzing danofloxacin mesylate, Applied Catalysis B: Environmental 268, 118433 (2020) Cited: 102 通讯作者

  19. Prospect of Spin-Orbitronic Devices and Their Applications, iScience 23, 101614 (2020) Cited: 53 共一作者

  20. Effect of chemical composition and Cu addition on crystallization and magnetic characteristics of FeZrB alloys, Physics Letters A 384 (26), 126640 (2020) 通讯作者

  21. Highly sensitive capacitive flexible 3D-force tactile sensors for robotic grasping and manipulation, Journal of Physics D: Applied Physics 53 (44), 445109 (2020) Cited: 22 通讯作者

  22. Composition Regulation Triggered Multicolor Emissions for a Highly Sensitive Thermometer, Industrial & Engineering Chemistry Research 59 (21), 9989-9996 (2020) Cited: 15 通讯作者

  23. Rapid-response, low detection limit, and high-sensitivity capacitive flexible tactile sensor based on three-dimensional porous dielectric layer for wearable electronic skin, ACS Applied Materials & Interfaces 11 (43), 40716-40725 (2019) Cited: 118 通讯作者

  24. Enhanced thermal conductivity and lower density composites with brick-wall microstructure based on highly oriented graphite nanoplatelet: towards manufacturable cooling, Nanotechnology 30 (24), 245204 (2019) Cited: 24 通讯作者

  25. Magnetic Hierarchical Photocatalytic Nanoreactors: Toward Highly Selective Cd2+ Removal with Secondary Pollution Free Tetracycline Degradation, ACS Applied Nano Materials 2 (3), 1664-1674 (2019) Cited: 31 通讯作者

  26. Sheath–core fiber strain sensors driven by in-situ crack and elastic effects in graphite nanoplate composites, ACS Applied Nano Materials 2 (2), 750-759 (2019) Cited: 32 通讯作者

  27. Magnetic functional heterojunction reactors with 3D specific recognition for selective photocatalysis and synergistic photodegradation in binary antibiotic solutions, Journal of Materials Chemistry A 7 (23), 13986-14000 (2019) Cited: 112 通讯作者

  28. Tailoring highly flexible hybrid supercapacitors developed by graphite nanoplatelets-based film: toward integrated wearable energy platform building blocks, ACS Applied Energy Materials 1 (10), 5336-5346 (2018) Cited: 17 通讯作者

  29. Rare-earth doping engineering in nanostructured oxide: a new type of eco-friendly photocatalyst with enhanced photocatalytic characteristics, Applied Physics A 124 (9), 1-12 (2018) Cited: 11 通讯作者

  30. Enhanced catalytic reduction driven by Fe3O4-Au magnetic nanocomposite interface engineering: from facile preparation to recyclable application, Nanomaterials 8 (5), 353 (2018) Cited: 42 通讯作者

  31. Highly Efficient, Low-Cost, and Magnetically Recoverable FePt–Ag Nanocatalysts: Towards Green Reduction of Organic Dyes, Nanomaterials 8 (5), 329 (2018) Cited: 25 通讯作者

  32. Highly Flexible and Sensitive Wearable E-Skin Based on Nanocomposite Films in Mass Industry Production Available, ACS Applied Materials & Interfaces 9, 38745 (2017) Cited: 75 通讯作者

  33. Effects of amount of benzyl ether and reaction time on the shape and magnetic properties of Fe3O4 nanocrystals, Powder Technology 319, 53-59 (2017) Cited: 22 通讯作者

  34. Rational synthesis and tailored optical and magnetic characteristics of Fe3O4–Au composite nanoparticles, Journal of Materials Science 52 (17), 10163-10174 (2017) Cited: 32 通讯作者

  35. Development of ZnFe2O4@ CdS Core–Shell Nanocomposites for Enhanced Visible-Light Photocatalytic Degradation of Tetracycline, Nanoscience and Nanotechnology Letters 9 (7), 989-997 (2017) Cited: 10 通讯作者

  36. Formation Mechanism of Strontium Hexaferrite Compounds by Complementary Structure and Thermogravimetry Investigations, Nanoscience and Nanotechnology Letters 9 (4), 567-572 (2017)  通讯作者

  37. Blue Non-Doped Organic Light Emitting Diodes Based on a Novel Donor–Acceptor Molecule, Nanoscience and Nanotechnology Letters 9 (3), 247-251 (2017) 通讯作者

  38. High Performance Yellow Green Organic Light-Emitting Devices Based on Ir(ppy)3, Nanoscience and Nanotechnology Letters 7 (10), 806-810 (2015) 通讯作者

  39. Doping Concentration of Fluorescent Dyes on the Properties of Yellow Organic Electroluminescent Devices, Nanoscience and Nanotechnology Letters 7 (8), 661-664 (2015)  通讯作者

  40. Tailoring surface phase transition and magnetic behaviors in BiFeO3 via doping engineering, Scientific Reports 5, 9128 (2015) Cited: 47 共一作者

  41. Tailoring photoluminescence in strontium aluminate phosphors using fluxing agent and activators: Rational synthesis via a facile microwave-assisted method, Materials Science in Semiconductor Processing 27, 1007-1012 (2014) Cited: 6 通讯作者

  42. Positive magnetoresistance in ferromagnetic Nd-doped In2O3 thin films grown by pulse laser deposition, Applied Physics Letters 104 (20), 202411 (2014) Cited: 61 通讯作者 第一作者

  43. Chemically strengthened protection glasses for the applications of space solar cells, AIP Advances 4 (4), 047133 (2014) Cited: 6 通讯作者

  44. Ferromagnetic (Mn, N)-codoped oxide nanopillars array: Experimental and computational insights, Applied Physics Letters 104 (2), 022412 (2014) Cited: 89 通讯作者

  45. Tailoring the coercivity in ferromagnetic oxide thin films by 3d and 4f elements codoping, Applied Physics Letters 104 (1), 012405 (2014) Cited: 69 通讯作者

  46. Hybrid CuO/SnO2 nanocomposites: Towards cost-effective and high performance binder free lithium ion batteries anode materials, Appl. Phys. Lett. 105 (1), 43905 (2014) Cited: 47 第一作者

  47. Emergent ferromagnetism in zinc oxide/Al2O3 core-shell nanowires: Towards oxide spinterfaces, Applied Physics Letters 103 (2), 022402 (2013) Cited: 72 通讯作者 第一作者

  48. Robust room-temperature ferromagnetism with giant anisotropy in Nd-doped oxide nanowire arrays, Nano Letters 12 (8), 3994-4000 (2012) Cited: 171 共一作者

  49. High sensitivity low field magnetically gated resistive switching in CoFe2O4/La0.66Sr0.34MnO3 heterostructure, Applied Physics Letters 100 (17), 172412 (2012) Cited: 36 共一作者

  50. Defects-mediated energy transfer in red-light-emitting Eu-doped oxide nanowire arrays, The Journal of Physical Chemistry C 115 (46), 22729-22735 (2011) Cited: 152 共一作者

  51. Structural characteristics, low threshold ultraviolet lasing and ultrafast carrier dynamics in high crystalline oxide nanowire arrays, Chemical Physics Letters 515 (1-3), 132-136 (2011) Cited: 21  第一作者

  52. Carrier and exciton spin dynamics in Cu-doped oxide nanowires, IEEE Photonic Society 24th Annual Meeting, 246-247 (2011)   第一作者

  53. Defect-induced magnetism in undoped wide band gap oxides: Zinc vacancies in oxide as an example, AIP Advances 1 (2), 022152 (2011) Cited: 174  第一作者

  54. Charge transfer dynamics in Cu-doped oxide nanowires, Applied Physics Letters 98 (10), 102105 (2011) Cited: 59  第一作者

  55. Structural and electrical characteristics of high quality (100) orientated- thin films grown by radio-frequency magnetron sputtering, Journal of Applied Physics 108 (8), 083710 (2010) Cited: 33  第一作者

  56. Dependence of energy transfer and photoluminescence on tailored defects in Eu-doped oxide nanosheets-based microflowers, Journal of Alloys and Compounds 504 (1), 22-26 (2010) Cited: 67 共一作者

  57. Ultrathin single-crystal oxide nanobelts: Ag-catalyzed growth and field emission property, Nanotechnology 21 (25), 255701 (2010) Cited: 91  第一作者

  58. Correlated  ferromagnetism and photoluminescence in undoped oxide nanowires, Applied Physics Letters 96 (11), 112511 (2010) Cited: 234  第一作者

  59. Bound magnetic polarons induced ferromagnetism in transition-metal-doped oxide nanostructures, 2010 3rd International Nanoelectronics Conference (INEC), 1120-1121 (2010) 第一作者

  60. Strong correlation between ferromagnetism and oxygen deficiency in Cr-doped  nanostructures, Physical Review B 79 (17), 174406 (2009) Cited: 169  第一作者

  61. Comparative study of room‐temperature ferromagnetism in Cu‐doped oxide nanowires enhanced by structural inhomogeneity, Advanced Materials 20 (18), 3521-3527 (2008) Cited: 282  第一作者

  62. Effect of annealing on conductivity behavior of undoped zinc oxide prepared by rf magnetron sputtering, Journal of alloys and compounds 457 (1-2), 36-41 (2008) Cited: 108  第一作者

  63. Low-temperature processed highly efficient hole transport layer free carbon-based planar perovskite solar cells with SnO2 quantum dot electron transport layer, Materials Today Physics 13, 100204 (2020) Cited: 8 主要合作者

  64. Interface Engineering via Sputtered Oxygenated CdS:O Window Layer for Highly Efficient Sb2Se3 Thin‐Film Solar Cells with Efficiency Above 7%, Solar RRL 3 (10), 1900225 (2019) Cited: 12 主要合作者

  65. Local mechanical and electrical behavior in CdTe thin film solar cells revealed by scanning probe microscopy, AIP Advances 9 (8), 085108 (2019) Cited: 3 主要合作者

  66. Improved stability and efficiency of CdSe/Sb2Se3 thin-film solar cells, Solar energy 188, 586-592 (2019) Cited: 17 主要合作者

  67. Interfacial engineering of oxygenated chemical bath–deposited CdS window layer for highly efficient Sb2Se3 thin-film solar cells, Materials Today Physics 10, 100125 (2019) Cited: 12 主要合作者

  68. Establishment and experimental verification of the photoresist model considering interface slip between photoresist and concave spherical substrate, AIP Advances 5 (7), 077103 (2015) Cited: 3 主要合作者

  69. Ferromagnetism and crossover of positive magnetoresistance to negative magnetoresistance in Na-doped oxide, Chemistry of Materials 27 (4), 1285-1291 (2015) Cited: 34 主要合作者

  70. Zn vacancy induced ferromagnetism in K doped oxide, Journal of Materials Chemistry C 3 (45), 11953-11958 (2015) Cited: 32 主要合作者

  71. Ferromagnetic ordering in Mn-doped oxide nanoparticles, Nanoscale research letters 9 (1), 1-8 (2014) Cited: 51 主要合作者

  72. Tailoring characteristic thermal stability of Ni-Au binary nanocrystals via structure and composition engineering: theoretical insights into structural evolution and atomic, AIP Advances 4 (11), 117132 (2014) Cited: 3 主要合作者

  73. Low temperature dependent ferroelectric resistive switching in epitaxial BiFeO3 films, Applied Physics Letters 104 (13), 132904 (2014) Cited: 27 主要合作者

  74. Pre-lithiation of onion-like carbon/MoS2 nano-urchin anodes for high-performance rechargeable lithium ion batteries, Nanoscale 6 (15), 8884-8890 (2014) Cited: 87 主要合作者

  75. Fabrication and characterization of P–N dual acceptor doped p-type oxide thin films, Applied Surface Science 287, 484-489 (2013) Cited: 35 主要合作者

  76. Competition of shape and interaction patchiness for self-assembling nanoplates, Nature Chemistry 5 (6), 466-473 (2013) Cited: 280 主要合作者

  77. Effects of (P, N) dual acceptor doping on band gap and p-type conduction behavior of oxide films, Journal of Applied Physics 113 (13), 133101 (2013) Cited: 32 主要合作者

  78. Origin of green emission and charge trapping dynamics in oxide nanowires, Physical Review B 87 (11), 115309 (2013) Cited: 75 主要合作者

  79. Engineering catalytic contacts and thermal stability: gold/iron oxide binary nanocrystal superlattices for CO oxidation, Journal of The American Chemical Society 135 (4), 1499-1505 (2013) Cited: 110 主要合作者

  80. Orientation-dependent surface potential behavior in Nb-doped BiFeO3, Applied Physics Letters 100 (17), 172901 (2012) Cited: 14 主要合作者

  81. Improved size-tunable synthesis of monodisperse gold nanorods through the use of aromatic additives, ACS Nano 6 (3), 2804-2817 (2012) Cited: 754 主要合作者

  82. Polaronic transport and magnetism in Ag-doped oxide, Applied Physics Letters 99 (22), 222511 (2011) Cited: 75 主要合作者

  83. Evidence of cation vacancy induced room temperature ferromagnetism in Li-N codoped oxide thin films, Applied Physics Letters 99 (18), 182503 (2011) Cited: 51 主要合作者

  84. Ferromagnetic interaction between Cu ions in the bulk region of Cu-doped oxide nanowires, Physical Review B 84 (15), 153203 (2011) Cited: 52 主要合作者

  85. Sb doping behavior and its effect on crystal structure, conductivity and photoluminescence of oxide film in depositing and annealing processes, Journal of Alloys and Compounds 509 (17), 5426-5430 (2011) Cited: 39 主要合作者

  86. Metal-layer-assisted coalescence of Au nanoparticles and its effect on diameter control in vapor-liquid-solid growth of oxide nanowires, Physical Review B 83 (4), 045403 (2011) Cited: 30 主要合作者

  87. CrSi2 Hexagonal Nanowebs, Journal of the American Chemical Society 132 (45), 15875-15877 (2010) Cited: 33 主要合作者

  88. Rayleigh-instability-driven simultaneous morphological and compositional transformation from Co nanowires to CoO octahedra, Applied Physics Letters 97 (20), 203112 (2010) Cited: 46 主要合作者

  89. Tuning ferromagnetism in  thin films by band gap and defect engineering, Applied Physics Letters 97 (10), 102506 (2010) Cited: 96 主要合作者

  90. A template and catalyst-free metal-etching-oxidation method to synthesize aligned oxide nanowire arrays: NiO as an example, ACS Nano 4 (8), 4785-4791 (2010) Cited: 46 主要合作者

  91. Shape-controlled fabrication of micro/nanoscale triangle, square, wire-like, and hexagon pits on silicon substrates induced by anisotropic diffusion and silicide sublimation, ACS Nano 4 (5), 2901-2909 (2010) Cited: 20 主要合作者

  92. Electrode dependence of resistive switching in Mn-doped oxide: Filamentary versus interfacial mechanisms, Applied Physics Letters 96 (19), 192113 (2010) Cited: 177 主要合作者

  93. Ferromagnetism in dilute magnetic semiconductors through defect engineering: Li-doped oxide, Physical Review Letters 104 (13), 137201 (2010) Cited: 439 主要合作者

  94. Photoluminescence characteristics of high quality oxide nanowires and its enhancement by polymer covering, Applied Physics Letters 96 (2), 023111 (2010) Cited: 152 主要合作者

  95. P-type electrical, photoconductive, and anomalous ferromagnetic properties of  nanowires, Applied Physics Letters 94 (11), 113106 (2009) Cited: 115 主要合作者

  96. Ferroelectric transistors with nanowire channel: toward nonvolatile memory applications, ACS Nano 3 (3), 700-706 (2009) Cited: 95 主要合作者

  97. Fabrication and properties of B–N codoped p-type oxide thin films, Journal of Physics D: Applied Physics 42 (6), 065101 (2009) Cited: 36 主要合作者

  98. Tailoring the photoluminescence of oxide nanowires using Au nanoparticles, Nanotechnology 19 (43), 435711 (2008) Cited: 174 主要合作者

  99. Cu-doped oxide nanoneedles and nanonails: morphological evolution and physical properties, The Journal of Physical Chemistry C 112 (26), 9579-9585 (2008) Cited: 211 主要合作者

  100. Effects of nitrogen doping and illumination on lattice constants and conductivity behavior of zinc oxide grown by magnetron sputtering, Journal of Applied Physics 99 (12), 123510 (2006) Cited: 86 主要合作者

科研活动

   
科研项目
  • New edge-terminal in-memory sensing and computing devices and integrated chip system, PI, National Key T&D Program, 2022-2025
  • Emerging integration of magnetic memory under full electric field control, PI, National Strategic Priority Project, 2021-2024
  • Research on high-performance in-memory computing and integrated devices, PI, Ministry Key Project, 2020-2023
  • High-Performance Spintronic Materials and Novel Magnetic Memory, Co-PI, Ministry Project, 2019-2022
  • Non-volatile Memory Device Physics and Integration Technology, Co-PI, National Key Program, 2019-2022

合作情况

Semiconductor Manufacturing International Corporation

北京智芯微电子科技有限公司

GlobalFoundries

United Microelectronics Corporation

BOE Technology Group

美国加州大学伯克利分校

清华大学

中国科学技术大学

中国科学院物理研究所

香港理工大学

复旦大学

北京航空航天大学

华中科技大学

美国宾夕法尼亚大学

澳大利亚新南威尔士大学

美国阿拉巴马大学

美国亚利桑那州立大学