英文
部门：信息与机电工程学院
聘任技术职务：副教授
学位：工学博士学位
学历：博士研究生毕业
毕业院校：上海交通大学
联系电话：021-57122375
电子邮箱：yangye0707@shnu.edu.cn
办公地点：
通讯地址：

研究方向

（1）柔性可穿戴电子器件；

（2）智能软体机器人；

（3）智能驱动器的机器学习。


个人简介

杨晔，女，博士，现任上海师范大学信息与机电工程学院副教授。2014年博士毕业于上海交通大学机械工程专业，曾赴日本东京农工大学（2008-2009）和美国南加州大学（2019-2020）从事访学研究。曾获国家博士研究生奖学金、国家公派留学基金委访学基金等荣誉。2015年加入上海师范大学，现任机械设计制造及其自动化专业负责人。

主要从事微纳米加工、柔性可穿戴电子器件、智能软体机器人、智能驱动器的机器学习等方面的研究，在Precision Engineering，Journal of Materials Processing and Technology，Journal of Manufacturing Process，Micro and Nano Letters等国际期刊发表论文10篇以上，申请并授权发明专利5项，出版1本英文学术专著。主持和参加国家自然科学基金、上海市教委等科研项目多项。


主要项目

主持

1. 2016.1 - 2019.12国家自然科学基金青年基金“直写式AFM电刻蚀加工高质量石墨烯纳米带及其器件的特性研究”

2. 2016.1 - 2017.12 上海师范大学一般科研项目“AFM电刻蚀加工金属薄膜材料的关键技术研究”

3. 2016.1 - 2017.12 上海高校青年教师培养资助计划“直写式SPM加工微纳米器件的特性研究”

4. 2018年上海市全英语课程项目-《Metal Cutting Theory and Cutting Tools》

5. 2021.1-2021.12上海师范大学本科教学改革项目-《热流体工程》全英文课程

参与

1.国家自然科学基金委“纳米制造基础研究”重大研究计划培育项目“纳米放电加工的基础研究”（2009-2012）

2.国家自然科学基金重点项目“电火花放电加工技术基础研究”（2012-2017）


工作经历

2014.4-2014.12 中船重工第七〇四研究所 标准化研究工程师

2015.1-至今 上海师范大学

2019.9-2020.9 美国南加州大学 Viterbi工程学院 访问学者


教育经历

2003.9-2007.6 上海交通大学 航空航天工程 本科

2007.9-2008.6 上海交通大学 机械工程 硕士研究生

2008.8-2009.8 日本东京农工大学 机械工程 硕士研究生

2009.9-2014.3 上海交通大学 机械工程 博士研究生


研究方向

（1）柔性可穿戴电子器件；（2）智能软体机器人；（3）智能驱动器的机器学习。


学术成果

论文
  • [1] 杨晔. Interpolation and difference optimized machine learning model for accurate prediction of silicon etching depth with small sample dataset. JOURNAL OF VACUUM SCIENCE & TECHNOLOGY B,2023,41(2023):052602.
  • [2] 杨晔. Fabrication of nanoscale to microscale 2.5D square patterns on metallic films by the coupling AFM lithography. Journal of Manufacturing Processes,2019,46(/):129-138.
  • [3] 杨晔. Fabrication of flexible microheater with tunable heating capabilities by direct laser writing and selective electrodeposition. Journal of Manufacturing Processes,2022,74(2022):88-99.
  • [4] 王飞,杨晔. 基于Stacking多模型融合的IGBT器件寿命的机器学习预测算法研究. 计算机科学,2022,49(6A):784-789.
  • [5] 杨晔. Study of the electrode tool wear and the probe tip sharpening phenomena during the nanoscale STM electric discharge lithography of the bulk HOPG surface. JOURNAL OF MATERIALS PROCESSING TECHNOLOGY,2016,234(/):150-157.
  • [6] 杨晔. Investigation of the transition from local anodic oxidation to electrical breakdown during nanoscale atomic force microscopy electric lithography of highly oriented pyrolytic graphite. MICROSCOPY AND MICROANALYSIS,2016,22(2):432-439.
  • [7] 杨晔. Interpolation and difference optimized machine learning model for accurate prediction of silicon etching depth with small sample dataset. JOURNAL OF VACUUM SCIENCE & TECHNOLOGY B,2023,41(2023):052602.
  • [8] 杨晔. Direct etching of nano/microscale patterns with both few-layer graphene and high-depth graphite structures by the raster STM electric lithography in the ambient conditions. JOURNAL OF MICROSCOPY,2023,292(1):37-46.
  • [9] 杨晔. Comparison of the bias voltage effect and the force effect during the nanoscale AFM electric lithography on the copper thin film surface. SCANNING,2016,38(5):412–420.
  • [10] 王飞,杨晔. 基于Stacking多模型融合的IGBT器件寿命的机器学习预测算法研究. 计算机科学,2022,49(6A):784-789.
  • [11] 杨晔. Study of the electrode tool wear and the probe tip sharpening phenomena during the nanoscale STM electric discharge lithography of the bulk HOPG surface. JOURNAL OF MATERIALS PROCESSING TECHNOLOGY,2016,234(/):150-157.
  • [12] 杨晔. Direct etching of nano/microscale patterns with both few-layer graphene and high-depth graphite structures by the raster STM electric lithography in the ambient conditions. JOURNAL OF MICROSCOPY,2023,292(1):37-46.
  • [13] 杨晔. Comparison of the bias voltage effect and the force effect during the nanoscale AFM electric lithography on the copper thin film surface. SCANNING,2016,38(5):412–420.
  • [14] 王飞,杨晔. 基于Stacking多模型融合的IGBT器件寿命的机器学习预测算法研究. 计算机科学,2022,49(6A):784-789.
  • [15] 杨晔. Nanoscale electric discharge-induced FLG peeling off during the STM electric lithography. MICRO & NANO LETTERS,2017,12(10):793-798.
  • [16] 杨晔. Fabrication of nanoscale to microscale 2.5D square patterns on metallic films by the coupling AFM lithography. Journal of Manufacturing Processes,2019,46(/):129-138.
  • [17] 杨晔. Fabrication of flexible microheater with tunable heating capabilities by direct laser writing and selective electrodeposition. Journal of Manufacturing Processes,2022,74(2022):88-99.
  • [18] 杨晔. Fabrication of nanoscale to microscale 2.5D square patterns on metallic films by the coupling AFM lithography. Journal of Manufacturing Processes,2019,46(/):129-138.
  • [19] 杨晔. Fabrication of flexible microheater with tunable heating capabilities by direct laser writing and selective electrodeposition. Journal of Manufacturing Processes,2022,74(2022):88-99.
  • [20] 杨晔. Direct etching of nano/microscale patterns with both few-layer graphene and high-depth graphite structures by the raster STM electric lithography in the ambient conditions. JOURNAL OF MICROSCOPY,2023,292(1):37-46.
  • [21] 杨晔. Study of the electrode tool wear and the probe tip sharpening phenomena during the nanoscale STM electric discharge lithography of the bulk HOPG surface. JOURNAL OF MATERIALS PROCESSING TECHNOLOGY,2016,234(/):150-157.
  • [22] 杨晔. Nanoscale electric discharge-induced FLG peeling off during the STM electric lithography. MICRO & NANO LETTERS,2017,12(10):793-798.
  • [23] 杨晔. Interpolation and difference optimized machine learning model for accurate prediction of silicon etching depth with small sample dataset. JOURNAL OF VACUUM SCIENCE & TECHNOLOGY B,2023,41(2023):052602.
  • [24] 杨晔. Study of the electrode tool wear and the probe tip sharpening phenomena during the nanoscale STM electric discharge lithography of the bulk HOPG surface. JOURNAL OF MATERIALS PROCESSING TECHNOLOGY,2016,234(/):150-157.
  • [25] 杨晔. Nanoscale electric discharge-induced FLG peeling off during the STM electric lithography. MICRO & NANO LETTERS,2017,12(10):793-798.
  • [26] 杨晔. Investigation of the transition from local anodic oxidation to electrical breakdown during nanoscale atomic force microscopy electric lithography of highly oriented pyrolytic graphite. MICROSCOPY AND MICROANALYSIS,2016,22(2):432-439.
  • [27] 王飞,杨晔. 基于Stacking多模型融合的IGBT器件寿命的机器学习预测算法研究. 计算机科学,2022,49(6A):784-789.
  • [28] 杨晔. Fabrication of flexible microheater with tunable heating capabilities by direct laser writing and selective electrodeposition. Journal of Manufacturing Processes,2022,74(2022):88-99.
  • [29] 杨晔. Comparison of the bias voltage effect and the force effect during the nanoscale AFM electric lithography on the copper thin film surface. SCANNING,2016,38(5):412–420.
  • [30] 杨晔. Fabrication of flexible microheater with tunable heating capabilities by direct laser writing and selective electrodeposition. Journal of Manufacturing Processes,2022,74(2022):88-99.
  • [31] 杨晔. Direct etching of nano/microscale patterns with both few-layer graphene and high-depth graphite structures by the raster STM electric lithography in the ambient conditions. JOURNAL OF MICROSCOPY,2023,292(1):37-46.
  • [32] 杨晔. Comparison of the bias voltage effect and the force effect during the nanoscale AFM electric lithography on the copper thin film surface. SCANNING,2016,38(5):412–420.
  • [33] 王飞,杨晔. 基于Stacking多模型融合的IGBT器件寿命的机器学习预测算法研究. 计算机科学,2022,49(6A):784-789.
  • [34] 杨晔. Investigation of the transition from local anodic oxidation to electrical breakdown during nanoscale atomic force microscopy electric lithography of highly oriented pyrolytic graphite. MICROSCOPY AND MICROANALYSIS,2016,22(2):432-439.
  • [35] 杨晔. Direct etching of nano/microscale patterns with both few-layer graphene and high-depth graphite structures by the raster STM electric lithography in the ambient conditions. JOURNAL OF MICROSCOPY,2023,292(1):37-46.
  • [36] 杨晔. Comparison of the bias voltage effect and the force effect during the nanoscale AFM electric lithography on the copper thin film surface. SCANNING,2016,38(5):412–420.
  • [37] 王飞,杨晔. 基于Stacking多模型融合的IGBT器件寿命的机器学习预测算法研究. 计算机科学,2022,49(6A):784-789.
  • [38] 杨晔. Investigation of the transition from local anodic oxidation to electrical breakdown during nanoscale atomic force microscopy electric lithography of highly oriented pyrolytic graphite. MICROSCOPY AND MICROANALYSIS,2016,22(2):432-439.
  • [39] 杨晔. Interpolation and difference optimized machine learning model for accurate prediction of silicon etching depth with small sample dataset. JOURNAL OF VACUUM SCIENCE & TECHNOLOGY B,2023,41(2023):052602.
  • [40] 杨晔. Fabrication of nanoscale to microscale 2.5D square patterns on metallic films by the coupling AFM lithography. Journal of Manufacturing Processes,2019,46(/):129-138.
  • [41] 杨晔. Fabrication of flexible microheater with tunable heating capabilities by direct laser writing and selective electrodeposition. Journal of Manufacturing Processes,2022,74(2022):88-99.
  • [42] 王飞,杨晔. 基于Stacking多模型融合的IGBT器件寿命的机器学习预测算法研究. 计算机科学,2022,49(6A):784-789.
  • [43] 杨晔. Investigation of the transition from local anodic oxidation to electrical breakdown during nanoscale atomic force microscopy electric lithography of highly oriented pyrolytic graphite. MICROSCOPY AND MICROANALYSIS,2016,22(2):432-439.
  • [44] 杨晔. Interpolation and difference optimized machine learning model for accurate prediction of silicon etching depth with small sample dataset. JOURNAL OF VACUUM SCIENCE & TECHNOLOGY B,2023,41(2023):052602.
  • [45] 杨晔. Fabrication of flexible microheater with tunable heating capabilities by direct laser writing and selective electrodeposition. Journal of Manufacturing Processes,2022,74(2022):88-99.
  • [46] 杨晔. Nanoscale electric discharge-induced FLG peeling off during the STM electric lithography. MICRO & NANO LETTERS,2017,12(10):793-798.
  • [47] 王飞,杨晔. 基于Stacking多模型融合的IGBT器件寿命的机器学习预测算法研究. 计算机科学,2022,49(6A):784-789.
  • [48] 杨晔. Study of the electrode tool wear and the probe tip sharpening phenomena during the nanoscale STM electric discharge lithography of the bulk HOPG surface. JOURNAL OF MATERIALS PROCESSING TECHNOLOGY,2016,234(/):150-157.
  • [49] 杨晔. Nanoscale electric discharge-induced FLG peeling off during the STM electric lithography. MICRO & NANO LETTERS,2017,12(10):793-798.
  • [50] 杨晔. Investigation of the transition from local anodic oxidation to electrical breakdown during nanoscale atomic force microscopy electric lithography of highly oriented pyrolytic graphite. MICROSCOPY AND MICROANALYSIS,2016,22(2):432-439.
  • [51] 杨晔. Comparison of the bias voltage effect and the force effect during the nanoscale AFM electric lithography on the copper thin film surface. SCANNING,2016,38(5):412–420.
  • [52] 杨晔. Interpolation and difference optimized machine learning model for accurate prediction of silicon etching depth with small sample dataset. JOURNAL OF VACUUM SCIENCE & TECHNOLOGY B,2023,41(2023):052602.
  • [53] 杨晔. Fabrication of nanoscale to microscale 2.5D square patterns on metallic films by the coupling AFM lithography. Journal of Manufacturing Processes,2019,46(/):129-138.
  • [54] 杨晔. Fabrication of flexible microheater with tunable heating capabilities by direct laser writing and selective electrodeposition. Journal of Manufacturing Processes,2022,74(2022):88-99.
  • [55] 杨晔. Direct etching of nano/microscale patterns with both few-layer graphene and high-depth graphite structures by the raster STM electric lithography in the ambient conditions. JOURNAL OF MICROSCOPY,2023,292(1):37-46.
  • [56] 杨晔. Study of the electrode tool wear and the probe tip sharpening phenomena during the nanoscale STM electric discharge lithography of the bulk HOPG surface. JOURNAL OF MATERIALS PROCESSING TECHNOLOGY,2016,234(/):150-157.
  • [57] 杨晔. Fabrication of nanoscale to microscale 2.5D square patterns on metallic films by the coupling AFM lithography. Journal of Manufacturing Processes,2019,46(/):129-138.
  • [58] 杨晔. Fabrication of flexible microheater with tunable heating capabilities by direct laser writing and selective electrodeposition. Journal of Manufacturing Processes,2022,74(2022):88-99.
  • [59] 杨晔. Direct etching of nano/microscale patterns with both few-layer graphene and high-depth graphite structures by the raster STM electric lithography in the ambient conditions. JOURNAL OF MICROSCOPY,2023,292(1):37-46.
  • [60] 杨晔. Comparison of the bias voltage effect and the force effect during the nanoscale AFM electric lithography on the copper thin film surface. SCANNING,2016,38(5):412–420.
  • [61] 王飞,杨晔. 基于Stacking多模型融合的IGBT器件寿命的机器学习预测算法研究. 计算机科学,2022,49(6A):784-789.
  • [62] 杨晔. Interpolation and difference optimized machine learning model for accurate prediction of silicon etching depth with small sample dataset. JOURNAL OF VACUUM SCIENCE & TECHNOLOGY B,2023,41(2023):052602.
  • [63] 杨晔. Fabrication of nanoscale to microscale 2.5D square patterns on metallic films by the coupling AFM lithography. Journal of Manufacturing Processes,2019,46(/):129-138.
  • [64] 杨晔. Study of the electrode tool wear and the probe tip sharpening phenomena during the nanoscale STM electric discharge lithography of the bulk HOPG surface. JOURNAL OF MATERIALS PROCESSING TECHNOLOGY,2016,234(/):150-157.
  • [65] 杨晔. Nanoscale electric discharge-induced FLG peeling off during the STM electric lithography. MICRO & NANO LETTERS,2017,12(10):793-798.
  • [66] 杨晔. Fabrication of flexible microheater with tunable heating capabilities by direct laser writing and selective electrodeposition. Journal of Manufacturing Processes,2022,74(2022):88-99.
  • [67] 杨晔. Direct etching of nano/microscale patterns with both few-layer graphene and high-depth graphite structures by the raster STM electric lithography in the ambient conditions. JOURNAL OF MICROSCOPY,2023,292(1):37-46.
  • [68] 杨晔. Comparison of the bias voltage effect and the force effect during the nanoscale AFM electric lithography on the copper thin film surface. SCANNING,2016,38(5):412–420.
  • [69] 王飞,杨晔. 基于Stacking多模型融合的IGBT器件寿命的机器学习预测算法研究. 计算机科学,2022,49(6A):784-789.
  • [70] 杨晔. Direct etching of nano/microscale patterns with both few-layer graphene and high-depth graphite structures by the raster STM electric lithography in the ambient conditions. JOURNAL OF MICROSCOPY,2023,292(1):37-46.
  • [71] 杨晔. Comparison of the bias voltage effect and the force effect during the nanoscale AFM electric lithography on the copper thin film surface. SCANNING,2016,38(5):412–420.
  • [72] 杨晔. Nanoscale electric discharge-induced FLG peeling off during the STM electric lithography. MICRO & NANO LETTERS,2017,12(10):793-798.
  • [73] 杨晔. Fabrication of nanoscale to microscale 2.5D square patterns on metallic films by the coupling AFM lithography. Journal of Manufacturing Processes,2019,46(/):129-138.
  • [74] 杨晔. Fabrication of flexible microheater with tunable heating capabilities by direct laser writing and selective electrodeposition. Journal of Manufacturing Processes,2022,74(2022):88-99.
  • [75] 王飞,杨晔. 基于Stacking多模型融合的IGBT器件寿命的机器学习预测算法研究. 计算机科学,2022,49(6A):784-789.
  • [76] 杨晔. Interpolation and difference optimized machine learning model for accurate prediction of silicon etching depth with small sample dataset. JOURNAL OF VACUUM SCIENCE & TECHNOLOGY B,2023,41(2023):052602.
  • [77] 王飞,杨晔. 基于Stacking多模型融合的IGBT器件寿命的机器学习预测算法研究. 计算机科学,2022,49(6A):784-789.
  • [78] 杨晔. Investigation of the transition from local anodic oxidation to electrical breakdown during nanoscale atomic force microscopy electric lithography of highly oriented pyrolytic graphite. MICROSCOPY AND MICROANALYSIS,2016,22(2):432-439.
  • [79] 杨晔. Fabrication of flexible microheater with tunable heating capabilities by direct laser writing and selective electrodeposition. Journal of Manufacturing Processes,2022,74(2022):88-99.
  • [80] 杨晔. Direct etching of nano/microscale patterns with both few-layer graphene and high-depth graphite structures by the raster STM electric lithography in the ambient conditions. JOURNAL OF MICROSCOPY,2023,292(1):37-46.
  • [81] 杨晔. Comparison of the bias voltage effect and the force effect during the nanoscale AFM electric lithography on the copper thin film surface. SCANNING,2016,38(5):412–420.
  • [82] 杨晔. Study of the electrode tool wear and the probe tip sharpening phenomena during the nanoscale STM electric discharge lithography of the bulk HOPG surface. JOURNAL OF MATERIALS PROCESSING TECHNOLOGY,2016,234(/):150-157.
  • [83] 杨晔. Nanoscale electric discharge-induced FLG peeling off during the STM electric lithography. MICRO & NANO LETTERS,2017,12(10):793-798.
  • [84] 杨晔. Investigation of the transition from local anodic oxidation to electrical breakdown during nanoscale atomic force microscopy electric lithography of highly oriented pyrolytic graphite. MICROSCOPY AND MICROANALYSIS,2016,22(2):432-439.
  • [85] 杨晔. Fabrication of nanoscale to microscale 2.5D square patterns on metallic films by the coupling AFM lithography. Journal of Manufacturing Processes,2019,46(/):129-138.
  • [86] 杨晔. Fabrication of flexible microheater with tunable heating capabilities by direct laser writing and selective electrodeposition. Journal of Manufacturing Processes,2022,74(2022):88-99.
  • [87] 杨晔. Direct etching of nano/microscale patterns with both few-layer graphene and high-depth graphite structures by the raster STM electric lithography in the ambient conditions. JOURNAL OF MICROSCOPY,2023,292(1):37-46.
  • [88] 杨晔. Nanoscale electric discharge-induced FLG peeling off during the STM electric lithography. MICRO & NANO LETTERS,2017,12(10):793-798.
  • [89] 杨晔. Interpolation and difference optimized machine learning model for accurate prediction of silicon etching depth with small sample dataset. JOURNAL OF VACUUM SCIENCE & TECHNOLOGY B,2023,41(2023):052602.
  • [90] 杨晔. Fabrication of nanoscale to microscale 2.5D square patterns on metallic films by the coupling AFM lithography. Journal of Manufacturing Processes,2019,46(/):129-138.
  • [91] 杨晔. Fabrication of flexible microheater with tunable heating capabilities by direct laser writing and selective electrodeposition. Journal of Manufacturing Processes,2022,74(2022):88-99.
  • [92] 杨晔. Direct etching of nano/microscale patterns with both few-layer graphene and high-depth graphite structures by the raster STM electric lithography in the ambient conditions. JOURNAL OF MICROSCOPY,2023,292(1):37-46.
  • [93] 杨晔. Comparison of the bias voltage effect and the force effect during the nanoscale AFM electric lithography on the copper thin film surface. SCANNING,2016,38(5):412–420.
  • [94] 杨晔. Study of the electrode tool wear and the probe tip sharpening phenomena during the nanoscale STM electric discharge lithography of the bulk HOPG surface. JOURNAL OF MATERIALS PROCESSING TECHNOLOGY,2016,234(/):150-157.
  • [95] 杨晔. Investigation of the transition from local anodic oxidation to electrical breakdown during nanoscale atomic force microscopy electric lithography of highly oriented pyrolytic graphite. MICROSCOPY AND MICROANALYSIS,2016,22(2):432-439.
  • [96] 杨晔. Interpolation and difference optimized machine learning model for accurate prediction of silicon etching depth with small sample dataset. JOURNAL OF VACUUM SCIENCE & TECHNOLOGY B,2023,41(2023):052602.
  • [97] 杨晔. Comparison of the bias voltage effect and the force effect during the nanoscale AFM electric lithography on the copper thin film surface. SCANNING,2016,38(5):412–420.
  • [98] 杨晔. Interpolation and difference optimized machine learning model for accurate prediction of silicon etching depth with small sample dataset. JOURNAL OF VACUUM SCIENCE & TECHNOLOGY B,2023,41(2023):052602.
  • [99] 杨晔. Fabrication of nanoscale to microscale 2.5D square patterns on metallic films by the coupling AFM lithography. Journal of Manufacturing Processes,2019,46(/):129-138.
  • [100] 杨晔. Fabrication of flexible microheater with tunable heating capabilities by direct laser writing and selective electrodeposition. Journal of Manufacturing Processes,2022,74(2022):88-99.
  • [101] 王飞,杨晔. 基于Stacking多模型融合的IGBT器件寿命的机器学习预测算法研究. 计算机科学,2022,49(6A):784-789.
  • [102] 杨晔. Study of the electrode tool wear and the probe tip sharpening phenomena during the nanoscale STM electric discharge lithography of the bulk HOPG surface. JOURNAL OF MATERIALS PROCESSING TECHNOLOGY,2016,234(/):150-157.
  • [103] 杨晔. Investigation of the transition from local anodic oxidation to electrical breakdown during nanoscale atomic force microscopy electric lithography of highly oriented pyrolytic graphite. MICROSCOPY AND MICROANALYSIS,2016,22(2):432-439.
  • [104] 杨晔. Interpolation and difference optimized machine learning model for accurate prediction of silicon etching depth with small sample dataset. JOURNAL OF VACUUM SCIENCE & TECHNOLOGY B,2023,41(2023):052602.
  • [105] 杨晔. Comparison of the bias voltage effect and the force effect during the nanoscale AFM electric lithography on the copper thin film surface. SCANNING,2016,38(5):412–420.
  • [106] 王飞,杨晔. 基于Stacking多模型融合的IGBT器件寿命的机器学习预测算法研究. 计算机科学,2022,49(6A):784-789.
  • [107] 杨晔. Study of the electrode tool wear and the probe tip sharpening phenomena during the nanoscale STM electric discharge lithography of the bulk HOPG surface. JOURNAL OF MATERIALS PROCESSING TECHNOLOGY,2016,234(/):150-157.
  • [108] 杨晔. Nanoscale electric discharge-induced FLG peeling off during the STM electric lithography. MICRO & NANO LETTERS,2017,12(10):793-798.
  • [109] 杨晔. Investigation of the transition from local anodic oxidation to electrical breakdown during nanoscale atomic force microscopy electric lithography of highly oriented pyrolytic graphite. MICROSCOPY AND MICROANALYSIS,2016,22(2):432-439.
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  • [752] 杨晔. Fabrication of nanoscale to microscale 2.5D square patterns on metallic films by the coupling AFM lithography. Journal of Manufacturing Processes,2019,46(/):129-138.
  • [753] 杨晔. Comparison of the bias voltage effect and the force effect during the nanoscale AFM electric lithography on the copper thin film surface. SCANNING,2016,38(5):412–420.
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  • [756] 杨晔. Direct etching of nano/microscale patterns with both few-layer graphene and high-depth graphite structures by the raster STM electric lithography in the ambient conditions. JOURNAL OF MICROSCOPY,2023,292(1):37-46.
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  • [758] 杨晔. Study of the electrode tool wear and the probe tip sharpening phenomena during the nanoscale STM electric discharge lithography of the bulk HOPG surface. JOURNAL OF MATERIALS PROCESSING TECHNOLOGY,2016,234(/):150-157.
  • [759] 杨晔. Investigation of the transition from local anodic oxidation to electrical breakdown during nanoscale atomic force microscopy electric lithography of highly oriented pyrolytic graphite. MICROSCOPY AND MICROANALYSIS,2016,22(2):432-439.
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  • [766] 杨晔. Fabrication of flexible microheater with tunable heating capabilities by direct laser writing and selective electrodeposition. Journal of Manufacturing Processes,2022,74(2022):88-99.
  • [767] 杨晔. Direct etching of nano/microscale patterns with both few-layer graphene and high-depth graphite structures by the raster STM electric lithography in the ambient conditions. JOURNAL OF MICROSCOPY,2023,292(1):37-46.
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  • [769] 杨晔. Nanoscale electric discharge-induced FLG peeling off during the STM electric lithography. MICRO & NANO LETTERS,2017,12(10):793-798.
  • [770] 杨晔. Comparison of the bias voltage effect and the force effect during the nanoscale AFM electric lithography on the copper thin film surface. SCANNING,2016,38(5):412–420.
  • [771] 杨晔. Fabrication of nanoscale to microscale 2.5D square patterns on metallic films by the coupling AFM lithography. Journal of Manufacturing Processes,2019,46(/):129-138.
  • [772] 杨晔. Fabrication of flexible microheater with tunable heating capabilities by direct laser writing and selective electrodeposition. Journal of Manufacturing Processes,2022,74(2022):88-99.
  • [773] 杨晔. Nanoscale electric discharge-induced FLG peeling off during the STM electric lithography. MICRO & NANO LETTERS,2017,12(10):793-798.
  • [774] 杨晔. Investigation of the transition from local anodic oxidation to electrical breakdown during nanoscale atomic force microscopy electric lithography of highly oriented pyrolytic graphite. MICROSCOPY AND MICROANALYSIS,2016,22(2):432-439.
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  • [776] 杨晔. Comparison of the bias voltage effect and the force effect during the nanoscale AFM electric lithography on the copper thin film surface. SCANNING,2016,38(5):412–420.
  • [777] 杨晔. Nanoscale electric discharge-induced FLG peeling off during the STM electric lithography. MICRO & NANO LETTERS,2017,12(10):793-798.
  • [778] 杨晔. Fabrication of nanoscale to microscale 2.5D square patterns on metallic films by the coupling AFM lithography. Journal of Manufacturing Processes,2019,46(/):129-138.
  • [779] 杨晔. Study of the electrode tool wear and the probe tip sharpening phenomena during the nanoscale STM electric discharge lithography of the bulk HOPG surface. JOURNAL OF MATERIALS PROCESSING TECHNOLOGY,2016,234(/):150-157.
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  • [790] 杨晔. Fabrication of nanoscale to microscale 2.5D square patterns on metallic films by the coupling AFM lithography. Journal of Manufacturing Processes,2019,46(/):129-138.
  • [791] 杨晔. Fabrication of flexible microheater with tunable heating capabilities by direct laser writing and selective electrodeposition. Journal of Manufacturing Processes,2022,74(2022):88-99.
  • [792] 杨晔. Direct etching of nano/microscale patterns with both few-layer graphene and high-depth graphite structures by the raster STM electric lithography in the ambient conditions. JOURNAL OF MICROSCOPY,2023,292(1):37-46.
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  • [804] 杨晔. Nanoscale electric discharge-induced FLG peeling off during the STM electric lithography. MICRO & NANO LETTERS,2017,12(10):793-798.
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  • [809] 杨晔. Fabrication of flexible microheater with tunable heating capabilities by direct laser writing and selective electrodeposition. Journal of Manufacturing Processes,2022,74(2022):88-99.
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  • [816] 杨晔. Nanoscale electric discharge-induced FLG peeling off during the STM electric lithography. MICRO & NANO LETTERS,2017,12(10):793-798.
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  • [820] 杨晔. Fabrication of nanoscale to microscale 2.5D square patterns on metallic films by the coupling AFM lithography. Journal of Manufacturing Processes,2019,46(/):129-138.
  • [821] 杨晔. Fabrication of flexible microheater with tunable heating capabilities by direct laser writing and selective electrodeposition. Journal of Manufacturing Processes,2022,74(2022):88-99.
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  • [853] 杨晔. Comparison of the bias voltage effect and the force effect during the nanoscale AFM electric lithography on the copper thin film surface. SCANNING,2016,38(5):412–420.
  • [854] 杨晔. Nanoscale electric discharge-induced FLG peeling off during the STM electric lithography. MICRO & NANO LETTERS,2017,12(10):793-798.
  • [855] 杨晔. Fabrication of nanoscale to microscale 2.5D square patterns on metallic films by the coupling AFM lithography. Journal of Manufacturing Processes,2019,46(/):129-138.
  • [856] 杨晔. Fabrication of flexible microheater with tunable heating capabilities by direct laser writing and selective electrodeposition. Journal of Manufacturing Processes,2022,74(2022):88-99.
  • [857] 杨晔. Nanoscale electric discharge-induced FLG peeling off during the STM electric lithography. MICRO & NANO LETTERS,2017,12(10):793-798.
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  • [880] 杨晔. Investigation of the transition from local anodic oxidation to electrical breakdown during nanoscale atomic force microscopy electric lithography of highly oriented pyrolytic graphite. MICROSCOPY AND MICROANALYSIS,2016,22(2):432-439.
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  • [882] 杨晔. Fabrication of flexible microheater with tunable heating capabilities by direct laser writing and selective electrodeposition. Journal of Manufacturing Processes,2022,74(2022):88-99.
  • [883] 杨晔. Direct etching of nano/microscale patterns with both few-layer graphene and high-depth graphite structures by the raster STM electric lithography in the ambient conditions. JOURNAL OF MICROSCOPY,2023,292(1):37-46.
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  • [888] 杨晔. Comparison of the bias voltage effect and the force effect during the nanoscale AFM electric lithography on the copper thin film surface. SCANNING,2016,38(5):412–420.
  • [889] 杨晔. Nanoscale electric discharge-induced FLG peeling off during the STM electric lithography. MICRO & NANO LETTERS,2017,12(10):793-798.
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  • [892] 杨晔. Comparison of the bias voltage effect and the force effect during the nanoscale AFM electric lithography on the copper thin film surface. SCANNING,2016,38(5):412–420.
  • [893] 杨晔. Fabrication of flexible microheater with tunable heating capabilities by direct laser writing and selective electrodeposition. Journal of Manufacturing Processes,2022,74(2022):88-99.
  • [894] 杨晔. Direct etching of nano/microscale patterns with both few-layer graphene and high-depth graphite structures by the raster STM electric lithography in the ambient conditions. JOURNAL OF MICROSCOPY,2023,292(1):37-46.
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  • [896] 杨晔. Nanoscale electric discharge-induced FLG peeling off during the STM electric lithography. MICRO & NANO LETTERS,2017,12(10):793-798.
  • [897] 杨晔. Investigation of the transition from local anodic oxidation to electrical breakdown during nanoscale atomic force microscopy electric lithography of highly oriented pyrolytic graphite. MICROSCOPY AND MICROANALYSIS,2016,22(2):432-439.
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  • [900] 杨晔. Fabrication of nanoscale to microscale 2.5D square patterns on metallic films by the coupling AFM lithography. Journal of Manufacturing Processes,2019,46(/):129-138.
  • [901] 杨晔. Fabrication of flexible microheater with tunable heating capabilities by direct laser writing and selective electrodeposition. Journal of Manufacturing Processes,2022,74(2022):88-99.
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  • [903] 杨晔. Comparison of the bias voltage effect and the force effect during the nanoscale AFM electric lithography on the copper thin film surface. SCANNING,2016,38(5):412–420.
  • [904] 杨晔. Fabrication of flexible microheater with tunable heating capabilities by direct laser writing and selective electrodeposition. Journal of Manufacturing Processes,2022,74(2022):88-99.
  • [905] 杨晔. Nanoscale electric discharge-induced FLG peeling off during the STM electric lithography. MICRO & NANO LETTERS,2017,12(10):793-798.
  • [906] 王飞,杨晔. 基于Stacking多模型融合的IGBT器件寿命的机器学习预测算法研究. 计算机科学,2022,49(6A):784-789.
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  • [908] 杨晔. Fabrication of flexible microheater with tunable heating capabilities by direct laser writing and selective electrodeposition. Journal of Manufacturing Processes,2022,74(2022):88-99.
  • [909] 杨晔. Nanoscale electric discharge-induced FLG peeling off during the STM electric lithography. MICRO & NANO LETTERS,2017,12(10):793-798.
  • [910] 杨晔. Comparison of the bias voltage effect and the force effect during the nanoscale AFM electric lithography on the copper thin film surface. SCANNING,2016,38(5):412–420.
  • [911] 杨晔. Fabrication of flexible microheater with tunable heating capabilities by direct laser writing and selective electrodeposition. Journal of Manufacturing Processes,2022,74(2022):88-99.
  • [912] 杨晔. Interpolation and difference optimized machine learning model for accurate prediction of silicon etching depth with small sample dataset. JOURNAL OF VACUUM SCIENCE & TECHNOLOGY B,2023,41(2023):052602.
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  • [915] 杨晔. Fabrication of flexible microheater with tunable heating capabilities by direct laser writing and selective electrodeposition. Journal of Manufacturing Processes,2022,74(2022):88-99.
  • [916] 杨晔. Study of the electrode tool wear and the probe tip sharpening phenomena during the nanoscale STM electric discharge lithography of the bulk HOPG surface. JOURNAL OF MATERIALS PROCESSING TECHNOLOGY,2016,234(/):150-157.
  • [917] 杨晔. Nanoscale electric discharge-induced FLG peeling off during the STM electric lithography. MICRO & NANO LETTERS,2017,12(10):793-798.
  • [918] 杨晔. Interpolation and difference optimized machine learning model for accurate prediction of silicon etching depth with small sample dataset. JOURNAL OF VACUUM SCIENCE & TECHNOLOGY B,2023,41(2023):052602.
  • [919] 杨晔. Interpolation and difference optimized machine learning model for accurate prediction of silicon etching depth with small sample dataset. JOURNAL OF VACUUM SCIENCE & TECHNOLOGY B,2023,41(2023):052602.
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  • [921] 杨晔. Fabrication of nanoscale to microscale 2.5D square patterns on metallic films by the coupling AFM lithography. Journal of Manufacturing Processes,2019,46(/):129-138.
  • [922] 杨晔. Study of the electrode tool wear and the probe tip sharpening phenomena during the nanoscale STM electric discharge lithography of the bulk HOPG surface. JOURNAL OF MATERIALS PROCESSING TECHNOLOGY,2016,234(/):150-157.
  • [923] 杨晔. Direct etching of nano/microscale patterns with both few-layer graphene and high-depth graphite structures by the raster STM electric lithography in the ambient conditions. JOURNAL OF MICROSCOPY,2023,292(1):37-46.
  • [924] 杨晔. Comparison of the bias voltage effect and the force effect during the nanoscale AFM electric lithography on the copper thin film surface. SCANNING,2016,38(5):412–420.
  • [925] 杨晔. Nanoscale electric discharge-induced FLG peeling off during the STM electric lithography. MICRO & NANO LETTERS,2017,12(10):793-798.
  • [926] 杨晔. Direct etching of nano/microscale patterns with both few-layer graphene and high-depth graphite structures by the raster STM electric lithography in the ambient conditions. JOURNAL OF MICROSCOPY,2023,292(1):37-46.
  • [927] 杨晔. Fabrication of flexible microheater with tunable heating capabilities by direct laser writing and selective electrodeposition. Journal of Manufacturing Processes,2022,74(2022):88-99.
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  • [930] 杨晔. Interpolation and difference optimized machine learning model for accurate prediction of silicon etching depth with small sample dataset. JOURNAL OF VACUUM SCIENCE & TECHNOLOGY B,2023,41(2023):052602.
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  • [933] 杨晔. Investigation of the transition from local anodic oxidation to electrical breakdown during nanoscale atomic force microscopy electric lithography of highly oriented pyrolytic graphite. MICROSCOPY AND MICROANALYSIS,2016,22(2):432-439.
  • [934] 杨晔. Interpolation and difference optimized machine learning model for accurate prediction of silicon etching depth with small sample dataset. JOURNAL OF VACUUM SCIENCE & TECHNOLOGY B,2023,41(2023):052602.
  • [935] 杨晔. Fabrication of nanoscale to microscale 2.5D square patterns on metallic films by the coupling AFM lithography. Journal of Manufacturing Processes,2019,46(/):129-138.
  • [936] 杨晔. Fabrication of flexible microheater with tunable heating capabilities by direct laser writing and selective electrodeposition. Journal of Manufacturing Processes,2022,74(2022):88-99.
  • [937] 杨晔. Direct etching of nano/microscale patterns with both few-layer graphene and high-depth graphite structures by the raster STM electric lithography in the ambient conditions. JOURNAL OF MICROSCOPY,2023,292(1):37-46.
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  • [939] 杨晔. Comparison of the bias voltage effect and the force effect during the nanoscale AFM electric lithography on the copper thin film surface. SCANNING,2016,38(5):412–420.
  • [940] 杨晔. Interpolation and difference optimized machine learning model for accurate prediction of silicon etching depth with small sample dataset. JOURNAL OF VACUUM SCIENCE & TECHNOLOGY B,2023,41(2023):052602.
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  • [944] 杨晔. Interpolation and difference optimized machine learning model for accurate prediction of silicon etching depth with small sample dataset. JOURNAL OF VACUUM SCIENCE & TECHNOLOGY B,2023,41(2023):052602.
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  • [946] 杨晔. Study of the electrode tool wear and the probe tip sharpening phenomena during the nanoscale STM electric discharge lithography of the bulk HOPG surface. JOURNAL OF MATERIALS PROCESSING TECHNOLOGY,2016,234(/):150-157.
  • [947] 杨晔. Nanoscale electric discharge-induced FLG peeling off during the STM electric lithography. MICRO & NANO LETTERS,2017,12(10):793-798.
  • [948] 杨晔. Investigation of the transition from local anodic oxidation to electrical breakdown during nanoscale atomic force microscopy electric lithography of highly oriented pyrolytic graphite. MICROSCOPY AND MICROANALYSIS,2016,22(2):432-439.
  • [949] 杨晔. Nanoscale electric discharge-induced FLG peeling off during the STM electric lithography. MICRO & NANO LETTERS,2017,12(10):793-798.
  • [950] 杨晔. Fabrication of nanoscale to microscale 2.5D square patterns on metallic films by the coupling AFM lithography. Journal of Manufacturing Processes,2019,46(/):129-138.
  • [951] 杨晔. Fabrication of flexible microheater with tunable heating capabilities by direct laser writing and selective electrodeposition. Journal of Manufacturing Processes,2022,74(2022):88-99.
  • [952] 杨晔. Direct etching of nano/microscale patterns with both few-layer graphene and high-depth graphite structures by the raster STM electric lithography in the ambient conditions. JOURNAL OF MICROSCOPY,2023,292(1):37-46.
  • [953] 杨晔. Fabrication of flexible microheater with tunable heating capabilities by direct laser writing and selective electrodeposition. Journal of Manufacturing Processes,2022,74(2022):88-99.
  • [954] 杨晔. Direct etching of nano/microscale patterns with both few-layer graphene and high-depth graphite structures by the raster STM electric lithography in the ambient conditions. JOURNAL OF MICROSCOPY,2023,292(1):37-46.
  • [955] 杨晔. Comparison of the bias voltage effect and the force effect during the nanoscale AFM electric lithography on the copper thin film surface. SCANNING,2016,38(5):412–420.
  • [956] 杨晔. Investigation of the transition from local anodic oxidation to electrical breakdown during nanoscale atomic force microscopy electric lithography of highly oriented pyrolytic graphite. MICROSCOPY AND MICROANALYSIS,2016,22(2):432-439.
  • [957] 杨晔. Comparison of the bias voltage effect and the force effect during the nanoscale AFM electric lithography on the copper thin film surface. SCANNING,2016,38(5):412–420.
  • [958] 杨晔. Interpolation and difference optimized machine learning model for accurate prediction of silicon etching depth with small sample dataset. JOURNAL OF VACUUM SCIENCE & TECHNOLOGY B,2023,41(2023):052602.
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  • [960] 杨晔. Fabrication of flexible microheater with tunable heating capabilities by direct laser writing and selective electrodeposition. Journal of Manufacturing Processes,2022,74(2022):88-99.
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  • [964] 杨晔. Fabrication of flexible microheater with tunable heating capabilities by direct laser writing and selective electrodeposition. Journal of Manufacturing Processes,2022,74(2022):88-99.
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  • [984] 杨晔. Fabrication of nanoscale to microscale 2.5D square patterns on metallic films by the coupling AFM lithography. Journal of Manufacturing Processes,2019,46(/):129-138.
  • [985] 杨晔. Nanoscale electric discharge-induced FLG peeling off during the STM electric lithography. MICRO & NANO LETTERS,2017,12(10):793-798.
  • [986] 杨晔. Direct etching of nano/microscale patterns with both few-layer graphene and high-depth graphite structures by the raster STM electric lithography in the ambient conditions. JOURNAL OF MICROSCOPY,2023,292(1):37-46.
  • [987] 杨晔. Comparison of the bias voltage effect and the force effect during the nanoscale AFM electric lithography on the copper thin film surface. SCANNING,2016,38(5):412–420.
  • [988] 杨晔. Fabrication of nanoscale to microscale 2.5D square patterns on metallic films by the coupling AFM lithography. Journal of Manufacturing Processes,2019,46(/):129-138.
  • [989] 杨晔. Fabrication of flexible microheater with tunable heating capabilities by direct laser writing and selective electrodeposition. Journal of Manufacturing Processes,2022,74(2022):88-99.
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  • [995] 杨晔. Nanoscale electric discharge-induced FLG peeling off during the STM electric lithography. MICRO & NANO LETTERS,2017,12(10):793-798.
  • [996] 杨晔. Study of the electrode tool wear and the probe tip sharpening phenomena during the nanoscale STM electric discharge lithography of the bulk HOPG surface. JOURNAL OF MATERIALS PROCESSING TECHNOLOGY,2016,234(/):150-157.
  • [997] 杨晔. Nanoscale electric discharge-induced FLG peeling off during the STM electric lithography. MICRO & NANO LETTERS,2017,12(10):793-798.
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  • [1001] 杨晔. Comparison of the bias voltage effect and the force effect during the nanoscale AFM electric lithography on the copper thin film surface. SCANNING,2016,38(5):412–420.
  • [1002] 杨晔. Nanoscale electric discharge-induced FLG peeling off during the STM electric lithography. MICRO & NANO LETTERS,2017,12(10):793-798.
  • [1003] 杨晔. Fabrication of nanoscale to microscale 2.5D square patterns on metallic films by the coupling AFM lithography. Journal of Manufacturing Processes,2019,46(/):129-138.
  • [1004] 杨晔. Fabrication of flexible microheater with tunable heating capabilities by direct laser writing and selective electrodeposition. Journal of Manufacturing Processes,2022,74(2022):88-99.
  • [1005] 杨晔. Direct etching of nano/microscale patterns with both few-layer graphene and high-depth graphite structures by the raster STM electric lithography in the ambient conditions. JOURNAL OF MICROSCOPY,2023,292(1):37-46.
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  • [1007] 杨晔. Interpolation and difference optimized machine learning model for accurate prediction of silicon etching depth with small sample dataset. JOURNAL OF VACUUM SCIENCE & TECHNOLOGY B,2023,41(2023):052602.
  • [1008] 杨晔. Fabrication of nanoscale to microscale 2.5D square patterns on metallic films by the coupling AFM lithography. Journal of Manufacturing Processes,2019,46(/):129-138.
  • [1009] 杨晔. Study of the electrode tool wear and the probe tip sharpening phenomena during the nanoscale STM electric discharge lithography of the bulk HOPG surface. JOURNAL OF MATERIALS PROCESSING TECHNOLOGY,2016,234(/):150-157.
  • [1010] 杨晔. Nanoscale electric discharge-induced FLG peeling off during the STM electric lithography. MICRO & NANO LETTERS,2017,12(10):793-798.
  • [1011] 杨晔. Comparison of the bias voltage effect and the force effect during the nanoscale AFM electric lithography on the copper thin film surface. SCANNING,2016,38(5):412–420.
  • [1012] 杨晔. Interpolation and difference optimized machine learning model for accurate prediction of silicon etching depth with small sample dataset. JOURNAL OF VACUUM SCIENCE & TECHNOLOGY B,2023,41(2023):052602.
  • [1013] 杨晔. Fabrication of nanoscale to microscale 2.5D square patterns on metallic films by the coupling AFM lithography. Journal of Manufacturing Processes,2019,46(/):129-138.
  • [1014] 杨晔. Fabrication of flexible microheater with tunable heating capabilities by direct laser writing and selective electrodeposition. Journal of Manufacturing Processes,2022,74(2022):88-99.
  • [1015] 杨晔. Investigation of the transition from local anodic oxidation to electrical breakdown during nanoscale atomic force microscopy electric lithography of highly oriented pyrolytic graphite. MICROSCOPY AND MICROANALYSIS,2016,22(2):432-439.
  • [1016] 杨晔. Direct etching of nano/microscale patterns with both few-layer graphene and high-depth graphite structures by the raster STM electric lithography in the ambient conditions. JOURNAL OF MICROSCOPY,2023,292(1):37-46.
  • [1017] 王飞,杨晔. 基于Stacking多模型融合的IGBT器件寿命的机器学习预测算法研究. 计算机科学,2022,49(6A):784-789.
  • [1018] 杨晔. Direct etching of nano/microscale patterns with both few-layer graphene and high-depth graphite structures by the raster STM electric lithography in the ambient conditions. JOURNAL OF MICROSCOPY,2023,292(1):37-46.
  • [1019] 杨晔. Study of the electrode tool wear and the probe tip sharpening phenomena during the nanoscale STM electric discharge lithography of the bulk HOPG surface. JOURNAL OF MATERIALS PROCESSING TECHNOLOGY,2016,234(/):150-157.
  • [1020] 杨晔. Nanoscale electric discharge-induced FLG peeling off during the STM electric lithography. MICRO & NANO LETTERS,2017,12(10):793-798.
  • [1021] 杨晔. Investigation of the transition from local anodic oxidation to electrical breakdown during nanoscale atomic force microscopy electric lithography of highly oriented pyrolytic graphite. MICROSCOPY AND MICROANALYSIS,2016,22(2):432-439.
  • [1022] 王飞,杨晔. 基于Stacking多模型融合的IGBT器件寿命的机器学习预测算法研究. 计算机科学,2022,49(6A):784-789.
  • [1023] 杨晔. Study of the electrode tool wear and the probe tip sharpening phenomena during the nanoscale STM electric discharge lithography of the bulk HOPG surface. JOURNAL OF MATERIALS PROCESSING TECHNOLOGY,2016,234(/):150-157.
  • [1024] 杨晔. Nanoscale electric discharge-induced FLG peeling off during the STM electric lithography. MICRO & NANO LETTERS,2017,12(10):793-798.
  • [1025] 杨晔. Nanoscale electric discharge-induced FLG peeling off during the STM electric lithography. MICRO & NANO LETTERS,2017,12(10):793-798.
  • [1026] 杨晔. Interpolation and difference optimized machine learning model for accurate prediction of silicon etching depth with small sample dataset. JOURNAL OF VACUUM SCIENCE & TECHNOLOGY B,2023,41(2023):052602.
  • [1027] 杨晔. Fabrication of nanoscale to microscale 2.5D square patterns on metallic films by the coupling AFM lithography. Journal of Manufacturing Processes,2019,46(/):129-138.
  • [1028] 杨晔. Fabrication of flexible microheater with tunable heating capabilities by direct laser writing and selective electrodeposition. Journal of Manufacturing Processes,2022,74(2022):88-99.
  • [1029] 杨晔. Fabrication of nanoscale to microscale 2.5D square patterns on metallic films by the coupling AFM lithography. Journal of Manufacturing Processes,2019,46(/):129-138.
  • [1030] 王飞,杨晔. 基于Stacking多模型融合的IGBT器件寿命的机器学习预测算法研究. 计算机科学,2022,49(6A):784-789.
  • [1031] 杨晔. Nanoscale electric discharge-induced FLG peeling off during the STM electric lithography. MICRO & NANO LETTERS,2017,12(10):793-798.
  • [1032] 杨晔. Investigation of the transition from local anodic oxidation to electrical breakdown during nanoscale atomic force microscopy electric lithography of highly oriented pyrolytic graphite. MICROSCOPY AND MICROANALYSIS,2016,22(2):432-439.
  • [1033] 杨晔. Interpolation and difference optimized machine learning model for accurate prediction of silicon etching depth with small sample dataset. JOURNAL OF VACUUM SCIENCE & TECHNOLOGY B,2023,41(2023):052602.
  • [1034] 杨晔. Direct etching of nano/microscale patterns with both few-layer graphene and high-depth graphite structures by the raster STM electric lithography in the ambient conditions. JOURNAL OF MICROSCOPY,2023,292(1):37-46.
  • [1035] 杨晔. Comparison of the bias voltage effect and the force effect during the nanoscale AFM electric lithography on the copper thin film surface. SCANNING,2016,38(5):412–420.
  • [1036] 杨晔. Interpolation and difference optimized machine learning model for accurate prediction of silicon etching depth with small sample dataset. JOURNAL OF VACUUM SCIENCE & TECHNOLOGY B,2023,41(2023):052602.
  • [1037] 杨晔. Fabrication of nanoscale to microscale 2.5D square patterns on metallic films by the coupling AFM lithography. Journal of Manufacturing Processes,2019,46(/):129-138.
  • [1038] 杨晔. Nanoscale electric discharge-induced FLG peeling off during the STM electric lithography. MICRO & NANO LETTERS,2017,12(10):793-798.
  • [1039] 杨晔. Investigation of the transition from local anodic oxidation to electrical breakdown during nanoscale atomic force microscopy electric lithography of highly oriented pyrolytic graphite. MICROSCOPY AND MICROANALYSIS,2016,22(2):432-439.
  • [1040] 杨晔. Interpolation and difference optimized machine learning model for accurate prediction of silicon etching depth with small sample dataset. JOURNAL OF VACUUM SCIENCE & TECHNOLOGY B,2023,41(2023):052602.
  • [1041] 杨晔. Fabrication of nanoscale to microscale 2.5D square patterns on metallic films by the coupling AFM lithography. Journal of Manufacturing Processes,2019,46(/):129-138.
  • [1042] 王飞,杨晔. 基于Stacking多模型融合的IGBT器件寿命的机器学习预测算法研究. 计算机科学,2022,49(6A):784-789.
  • [1043] 杨晔. Fabrication of nanoscale to microscale 2.5D square patterns on metallic films by the coupling AFM lithography. Journal of Manufacturing Processes,2019,46(/):129-138.
  • [1044] 杨晔. Fabrication of flexible microheater with tunable heating capabilities by direct laser writing and selective electrodeposition. Journal of Manufacturing Processes,2022,74(2022):88-99.
  • [1045] 王飞,杨晔. 基于Stacking多模型融合的IGBT器件寿命的机器学习预测算法研究. 计算机科学,2022,49(6A):784-789.
  • [1046] 杨晔. Investigation of the transition from local anodic oxidation to electrical breakdown during nanoscale atomic force microscopy electric lithography of highly oriented pyrolytic graphite. MICROSCOPY AND MICROANALYSIS,2016,22(2):432-439.
  • [1047] 杨晔. Direct etching of nano/microscale patterns with both few-layer graphene and high-depth graphite structures by the raster STM electric lithography in the ambient conditions. JOURNAL OF MICROSCOPY,2023,292(1):37-46.
  • [1048] 杨晔. Comparison of the bias voltage effect and the force effect during the nanoscale AFM electric lithography on the copper thin film surface. SCANNING,2016,38(5):412–420.
  • [1049] 杨晔. Nanoscale electric discharge-induced FLG peeling off during the STM electric lithography. MICRO & NANO LETTERS,2017,12(10):793-798.
  • [1050] 杨晔. Interpolation and difference optimized machine learning model for accurate prediction of silicon etching depth with small sample dataset. JOURNAL OF VACUUM SCIENCE & TECHNOLOGY B,2023,41(2023):052602.
  • [1051] 杨晔. Fabrication of flexible microheater with tunable heating capabilities by direct laser writing and selective electrodeposition. Journal of Manufacturing Processes,2022,74(2022):88-99.
  • [1052] 杨晔. Comparison of the bias voltage effect and the force effect during the nanoscale AFM electric lithography on the copper thin film surface. SCANNING,2016,38(5):412–420.
  • [1053] 杨晔. Study of the electrode tool wear and the probe tip sharpening phenomena during the nanoscale STM electric discharge lithography of the bulk HOPG surface. JOURNAL OF MATERIALS PROCESSING TECHNOLOGY,2016,234(/):150-157.
  • [1054] 杨晔. Nanoscale electric discharge-induced FLG peeling off during the STM electric lithography. MICRO & NANO LETTERS,2017,12(10):793-798.
  • [1055] 杨晔. Fabrication of nanoscale to microscale 2.5D square patterns on metallic films by the coupling AFM lithography. Journal of Manufacturing Processes,2019,46(/):129-138.
  • [1056] 杨晔. Study of the electrode tool wear and the probe tip sharpening phenomena during the nanoscale STM electric discharge lithography of the bulk HOPG surface. JOURNAL OF MATERIALS PROCESSING TECHNOLOGY,2016,234(/):150-157.
  • [1057] 杨晔. Study of the electrode tool wear and the probe tip sharpening phenomena during the nanoscale STM electric discharge lithography of the bulk HOPG surface. JOURNAL OF MATERIALS PROCESSING TECHNOLOGY,2016,234(/):150-157.
  • [1058] 杨晔. Investigation of the transition from local anodic oxidation to electrical breakdown during nanoscale atomic force microscopy electric lithography of highly oriented pyrolytic graphite. MICROSCOPY AND MICROANALYSIS,2016,22(2):432-439.
  • [1059] 杨晔. Direct etching of nano/microscale patterns with both few-layer graphene and high-depth graphite structures by the raster STM electric lithography in the ambient conditions. JOURNAL OF MICROSCOPY,2023,292(1):37-46.
  • [1060] 杨晔. Nanoscale electric discharge-induced FLG peeling off during the STM electric lithography. MICRO & NANO LETTERS,2017,12(10):793-798.
  • [1061] 杨晔. Nanoscale electric discharge-induced FLG peeling off during the STM electric lithography. MICRO & NANO LETTERS,2017,12(10):793-798.
  • [1062] 杨晔. Investigation of the transition from local anodic oxidation to electrical breakdown during nanoscale atomic force microscopy electric lithography of highly oriented pyrolytic graphite. MICROSCOPY AND MICROANALYSIS,2016,22(2):432-439.
  • [1063] 杨晔. Interpolation and difference optimized machine learning model for accurate prediction of silicon etching depth with small sample dataset. JOURNAL OF VACUUM SCIENCE & TECHNOLOGY B,2023,41(2023):052602.
  • [1064] 杨晔. Fabrication of nanoscale to microscale 2.5D square patterns on metallic films by the coupling AFM lithography. Journal of Manufacturing Processes,2019,46(/):129-138.
  • [1065] 王飞,杨晔. 基于Stacking多模型融合的IGBT器件寿命的机器学习预测算法研究. 计算机科学,2022,49(6A):784-789.
  • [1066] 杨晔. Direct etching of nano/microscale patterns with both few-layer graphene and high-depth graphite structures by the raster STM electric lithography in the ambient conditions. JOURNAL OF MICROSCOPY,2023,292(1):37-46.
  • [1067] 杨晔. Comparison of the bias voltage effect and the force effect during the nanoscale AFM electric lithography on the copper thin film surface. SCANNING,2016,38(5):412–420.
  • [1068] 杨晔. Investigation of the transition from local anodic oxidation to electrical breakdown during nanoscale atomic force microscopy electric lithography of highly oriented pyrolytic graphite. MICROSCOPY AND MICROANALYSIS,2016,22(2):432-439.
  • [1069] 杨晔. Interpolation and difference optimized machine learning model for accurate prediction of silicon etching depth with small sample dataset. JOURNAL OF VACUUM SCIENCE & TECHNOLOGY B,2023,41(2023):052602.
  • [1070] 杨晔. Comparison of the bias voltage effect and the force effect during the nanoscale AFM electric lithography on the copper thin film surface. SCANNING,2016,38(5):412–420.
  • [1071] 王飞,杨晔. 基于Stacking多模型融合的IGBT器件寿命的机器学习预测算法研究. 计算机科学,2022,49(6A):784-789.
  • [1072] 杨晔. Nanoscale electric discharge-induced FLG peeling off during the STM electric lithography. MICRO & NANO LETTERS,2017,12(10):793-798.
  • [1073] 杨晔. Interpolation and difference optimized machine learning model for accurate prediction of silicon etching depth with small sample dataset. JOURNAL OF VACUUM SCIENCE & TECHNOLOGY B,2023,41(2023):052602.
  • [1074] 杨晔. Fabrication of nanoscale to microscale 2.5D square patterns on metallic films by the coupling AFM lithography. Journal of Manufacturing Processes,2019,46(/):129-138.
  • [1075] 杨晔. Interpolation and difference optimized machine learning model for accurate prediction of silicon etching depth with small sample dataset. JOURNAL OF VACUUM SCIENCE & TECHNOLOGY B,2023,41(2023):052602.
  • [1076] 杨晔. Fabrication of nanoscale to microscale 2.5D square patterns on metallic films by the coupling AFM lithography. Journal of Manufacturing Processes,2019,46(/):129-138.
  • [1077] 杨晔. Fabrication of flexible microheater with tunable heating capabilities by direct laser writing and selective electrodeposition. Journal of Manufacturing Processes,2022,74(2022):88-99.
  • [1078] 杨晔. Direct etching of nano/microscale patterns with both few-layer graphene and high-depth graphite structures by the raster STM electric lithography in the ambient conditions. JOURNAL OF MICROSCOPY,2023,292(1):37-46.
  • [1079] 杨晔. Nanoscale electric discharge-induced FLG peeling off during the STM electric lithography. MICRO & NANO LETTERS,2017,12(10):793-798.
  • [1080] 杨晔. Investigation of the transition from local anodic oxidation to electrical breakdown during nanoscale atomic force microscopy electric lithography of highly oriented pyrolytic graphite. MICROSCOPY AND MICROANALYSIS,2016,22(2):432-439.
  • [1081] 杨晔. Interpolation and difference optimized machine learning model for accurate prediction of silicon etching depth with small sample dataset. JOURNAL OF VACUUM SCIENCE & TECHNOLOGY B,2023,41(2023):052602.
  • [1082] 杨晔. Nanoscale electric discharge-induced FLG peeling off during the STM electric lithography. MICRO & NANO LETTERS,2017,12(10):793-798.
  • [1083] 杨晔. Fabrication of nanoscale to microscale 2.5D square patterns on metallic films by the coupling AFM lithography. Journal of Manufacturing Processes,2019,46(/):129-138.
  • [1084] 杨晔. Fabrication of flexible microheater with tunable heating capabilities by direct laser writing and selective electrodeposition. Journal of Manufacturing Processes,2022,74(2022):88-99.
  • [1085] 杨晔. Study of the electrode tool wear and the probe tip sharpening phenomena during the nanoscale STM electric discharge lithography of the bulk HOPG surface. JOURNAL OF MATERIALS PROCESSING TECHNOLOGY,2016,234(/):150-157.
  • [1086] 杨晔. Nanoscale electric discharge-induced FLG peeling off during the STM electric lithography. MICRO & NANO LETTERS,2017,12(10):793-798.
  • [1087] 杨晔. Comparison of the bias voltage effect and the force effect during the nanoscale AFM electric lithography on the copper thin film surface. SCANNING,2016,38(5):412–420.
  • [1088] 杨晔. Study of the electrode tool wear and the probe tip sharpening phenomena during the nanoscale STM electric discharge lithography of the bulk HOPG surface. JOURNAL OF MATERIALS PROCESSING TECHNOLOGY,2016,234(/):150-157.
  • [1089] 杨晔. Nanoscale electric discharge-induced FLG peeling off during the STM electric lithography. MICRO & NANO LETTERS,2017,12(10):793-798.
  • [1090] 杨晔. Investigation of the transition from local anodic oxidation to electrical breakdown during nanoscale atomic force microscopy electric lithography of highly oriented pyrolytic graphite. MICROSCOPY AND MICROANALYSIS,2016,22(2):432-439.
  • [1091] 杨晔. Fabrication of flexible microheater with tunable heating capabilities by direct laser writing and selective electrodeposition. Journal of Manufacturing Processes,2022,74(2022):88-99.
  • [1092] 王飞,杨晔. 基于Stacking多模型融合的IGBT器件寿命的机器学习预测算法研究. 计算机科学,2022,49(6A):784-789.
  • [1093] 杨晔. Investigation of the transition from local anodic oxidation to electrical breakdown during nanoscale atomic force microscopy electric lithography of highly oriented pyrolytic graphite. MICROSCOPY AND MICROANALYSIS,2016,22(2):432-439.
  • [1094] 杨晔. Interpolation and difference optimized machine learning model for accurate prediction of silicon etching depth with small sample dataset. JOURNAL OF VACUUM SCIENCE & TECHNOLOGY B,2023,41(2023):052602.
  • [1095] 杨晔. Fabrication of nanoscale to microscale 2.5D square patterns on metallic films by the coupling AFM lithography. Journal of Manufacturing Processes,2019,46(/):129-138.
  • [1096] 杨晔. Fabrication of flexible microheater with tunable heating capabilities by direct laser writing and selective electrodeposition. Journal of Manufacturing Processes,2022,74(2022):88-99.
  • [1097] 杨晔. Study of the electrode tool wear and the probe tip sharpening phenomena during the nanoscale STM electric discharge lithography of the bulk HOPG surface. JOURNAL OF MATERIALS PROCESSING TECHNOLOGY,2016,234(/):150-157.
  • [1098] 王飞,杨晔. 基于Stacking多模型融合的IGBT器件寿命的机器学习预测算法研究. 计算机科学,2022,49(6A):784-789.
  • [1099] 杨晔. Study of the electrode tool wear and the probe tip sharpening phenomena during the nanoscale STM electric discharge lithography of the bulk HOPG surface. JOURNAL OF MATERIALS PROCESSING TECHNOLOGY,2016,234(/):150-157.
  • [1100] 杨晔. Investigation of the transition from local anodic oxidation to electrical breakdown during nanoscale atomic force microscopy electric lithography of highly oriented pyrolytic graphite. MICROSCOPY AND MICROANALYSIS,2016,22(2):432-439.
  • [1101] 杨晔. Nanoscale electric discharge-induced FLG peeling off during the STM electric lithography. MICRO & NANO LETTERS,2017,12(10):793-798.
  • [1102] 杨晔. Fabrication of nanoscale to microscale 2.5D square patterns on metallic films by the coupling AFM lithography. Journal of Manufacturing Processes,2019,46(/):129-138.
  • [1103] 杨晔. Fabrication of flexible microheater with tunable heating capabilities by direct laser writing and selective electrodeposition. Journal of Manufacturing Processes,2022,74(2022):88-99.
  • [1104] 杨晔. Direct etching of nano/microscale patterns with both few-layer graphene and high-depth graphite structures by the raster STM electric lithography in the ambient conditions. JOURNAL OF MICROSCOPY,2023,292(1):37-46.
  • [1105] 杨晔. Fabrication of flexible microheater with tunable heating capabilities by direct laser writing and selective electrodeposition. Journal of Manufacturing Processes,2022,74(2022):88-99.
  • [1106] 杨晔. Direct etching of nano/microscale patterns with both few-layer graphene and high-depth graphite structures by the raster STM electric lithography in the ambient conditions. JOURNAL OF MICROSCOPY,2023,292(1):37-46.
  • [1107] 杨晔. Comparison of the bias voltage effect and the force effect during the nanoscale AFM electric lithography on the copper thin film surface. SCANNING,2016,38(5):412–420.
  • [1108] 王飞,杨晔. 基于Stacking多模型融合的IGBT器件寿命的机器学习预测算法研究. 计算机科学,2022,49(6A):784-789.
  • [1109] 杨晔. Fabrication of flexible microheater with tunable heating capabilities by direct laser writing and selective electrodeposition. Journal of Manufacturing Processes,2022,74(2022):88-99.
  • [1110] 杨晔. Direct etching of nano/microscale patterns with both few-layer graphene and high-depth graphite structures by the raster STM electric lithography in the ambient conditions. JOURNAL OF MICROSCOPY,2023,292(1):37-46.
  • [1111] 杨晔. Comparison of the bias voltage effect and the force effect during the nanoscale AFM electric lithography on the copper thin film surface. SCANNING,2016,38(5):412–420.
  • [1112] 杨晔. Study of the electrode tool wear and the probe tip sharpening phenomena during the nanoscale STM electric discharge lithography of the bulk HOPG surface. JOURNAL OF MATERIALS PROCESSING TECHNOLOGY,2016,234(/):150-157.
  • [1113] 杨晔. Comparison of the bias voltage effect and the force effect during the nanoscale AFM electric lithography on the copper thin film surface. SCANNING,2016,38(5):412–420.
  • [1114] 杨晔. Fabrication of flexible microheater with tunable heating capabilities by direct laser writing and selective electrodeposition. Journal of Manufacturing Processes,2022,74(2022):88-99.
  • [1115] 杨晔. Fabrication of nanoscale to microscale 2.5D square patterns on metallic films by the coupling AFM lithography. Journal of Manufacturing Processes,2019,46(/):129-138.
  • [1116] 杨晔. Comparison of the bias voltage effect and the force effect during the nanoscale AFM electric lithography on the copper thin film surface. SCANNING,2016,38(5):412–420.
  • [1117] 杨晔. Study of the electrode tool wear and the probe tip sharpening phenomena during the nanoscale STM electric discharge lithography of the bulk HOPG surface. JOURNAL OF MATERIALS PROCESSING TECHNOLOGY,2016,234(/):150-157.
  • [1118] 杨晔. Investigation of the transition from local anodic oxidation to electrical breakdown during nanoscale atomic force microscopy electric lithography of highly oriented pyrolytic graphite. MICROSCOPY AND MICROANALYSIS,2016,22(2):432-439.
  • [1119] 杨晔. Direct etching of nano/microscale patterns with both few-layer graphene and high-depth graphite structures by the raster STM electric lithography in the ambient conditions. JOURNAL OF MICROSCOPY,2023,292(1):37-46.
  • [1120] 杨晔. Interpolation and difference optimized machine learning model for accurate prediction of silicon etching depth with small sample dataset. JOURNAL OF VACUUM SCIENCE & TECHNOLOGY B,2023,41(2023):052602.
  • [1121] 杨晔. Fabrication of nanoscale to microscale 2.5D square patterns on metallic films by the coupling AFM lithography. Journal of Manufacturing Processes,2019,46(/):129-138.
  • [1122] 杨晔. Fabrication of flexible microheater with tunable heating capabilities by direct laser writing and selective electrodeposition. Journal of Manufacturing Processes,2022,74(2022):88-99.
  • [1123] 杨晔. Direct etching of nano/microscale patterns with both few-layer graphene and high-depth graphite structures by the raster STM electric lithography in the ambient conditions. JOURNAL OF MICROSCOPY,2023,292(1):37-46.
  • [1124] 杨晔. Nanoscale electric discharge-induced FLG peeling off during the STM electric lithography. MICRO & NANO LETTERS,2017,12(10):793-798.
  • [1125] 王飞,杨晔. 基于Stacking多模型融合的IGBT器件寿命的机器学习预测算法研究. 计算机科学,2022,49(6A):784-789.
  • [1126] 杨晔. Investigation of the transition from local anodic oxidation to electrical breakdown during nanoscale atomic force microscopy electric lithography of highly oriented pyrolytic graphite. MICROSCOPY AND MICROANALYSIS,2016,22(2):432-439.
  • [1127] 王飞,杨晔. 基于Stacking多模型融合的IGBT器件寿命的机器学习预测算法研究. 计算机科学,2022,49(6A):784-789.
  • [1128] 杨晔. Investigation of the transition from local anodic oxidation to electrical breakdown during nanoscale atomic force microscopy electric lithography of highly oriented pyrolytic graphite. MICROSCOPY AND MICROANALYSIS,2016,22(2):432-439.
  • [1129] 杨晔. Interpolation and difference optimized machine learning model for accurate prediction of silicon etching depth with small sample dataset. JOURNAL OF VACUUM SCIENCE & TECHNOLOGY B,2023,41(2023):052602.
  • [1130] 杨晔. Fabrication of nanoscale to microscale 2.5D square patterns on metallic films by the coupling AFM lithography. Journal of Manufacturing Processes,2019,46(/):129-138.
  • [1131] 王飞,杨晔. 基于Stacking多模型融合的IGBT器件寿命的机器学习预测算法研究. 计算机科学,2022,49(6A):784-789.
  • [1132] 杨晔. Study of the electrode tool wear and the probe tip sharpening phenomena during the nanoscale STM electric discharge lithography of the bulk HOPG surface. JOURNAL OF MATERIALS PROCESSING TECHNOLOGY,2016,234(/):150-157.
  • [1133] 杨晔. Nanoscale electric discharge-induced FLG peeling off during the STM electric lithography. MICRO & NANO LETTERS,2017,12(10):793-798.
  • [1134] 杨晔. Fabrication of nanoscale to microscale 2.5D square patterns on metallic films by the coupling AFM lithography. Journal of Manufacturing Processes,2019,46(/):129-138.
  • [1135] 杨晔. Fabrication of flexible microheater with tunable heating capabilities by direct laser writing and selective electrodeposition. Journal of Manufacturing Processes,2022,74(2022):88-99.
  • [1136] 杨晔. Direct etching of nano/microscale patterns with both few-layer graphene and high-depth graphite structures by the raster STM electric lithography in the ambient conditions. JOURNAL OF MICROSCOPY,2023,292(1):37-46.
  • [1137] 杨晔. Investigation of the transition from local anodic oxidation to electrical breakdown during nanoscale atomic force microscopy electric lithography of highly oriented pyrolytic graphite. MICROSCOPY AND MICROANALYSIS,2016,22(2):432-439.
  • [1138] 杨晔. Interpolation and difference optimized machine learning model for accurate prediction of silicon etching depth with small sample dataset. JOURNAL OF VACUUM SCIENCE & TECHNOLOGY B,2023,41(2023):052602.
  • [1139] 杨晔. Fabrication of nanoscale to microscale 2.5D square patterns on metallic films by the coupling AFM lithography. Journal of Manufacturing Processes,2019,46(/):129-138.
  • [1140] 王飞,杨晔. 基于Stacking多模型融合的IGBT器件寿命的机器学习预测算法研究. 计算机科学,2022,49(6A):784-789.
  • [1141] 杨晔. Nanoscale electric discharge-induced FLG peeling off during the STM electric lithography. MICRO & NANO LETTERS,2017,12(10):793-798.
  • [1142] 杨晔. Investigation of the transition from local anodic oxidation to electrical breakdown during nanoscale atomic force microscopy electric lithography of highly oriented pyrolytic graphite. MICROSCOPY AND MICROANALYSIS,2016,22(2):432-439.
  • [1143] 杨晔. Interpolation and difference optimized machine learning model for accurate prediction of silicon etching depth with small sample dataset. JOURNAL OF VACUUM SCIENCE & TECHNOLOGY B,2023,41(2023):052602.
  • [1144] 杨晔. Comparison of the bias voltage effect and the force effect during the nanoscale AFM electric lithography on the copper thin film surface. SCANNING,2016,38(5):412–420.
  • [1145] 杨晔. Comparison of the bias voltage effect and the force effect during the nanoscale AFM electric lithography on the copper thin film surface. SCANNING,2016,38(5):412–420.
  • [1146] 杨晔. Study of the electrode tool wear and the probe tip sharpening phenomena during the nanoscale STM electric discharge lithography of the bulk HOPG surface. JOURNAL OF MATERIALS PROCESSING TECHNOLOGY,2016,234(/):150-157.
  • [1147] 杨晔. Nanoscale electric discharge-induced FLG peeling off during the STM electric lithography. MICRO & NANO LETTERS,2017,12(10):793-798.
  • [1148] 杨晔. Study of the electrode tool wear and the probe tip sharpening phenomena during the nanoscale STM electric discharge lithography of the bulk HOPG surface. JOURNAL OF MATERIALS PROCESSING TECHNOLOGY,2016,234(/):150-157.
  • [1149] 杨晔. Study of the electrode tool wear and the probe tip sharpening phenomena during the nanoscale STM electric discharge lithography of the bulk HOPG surface. JOURNAL OF MATERIALS PROCESSING TECHNOLOGY,2016,234(/):150-157.
  • [1150] 杨晔. Fabrication of nanoscale to microscale 2.5D square patterns on metallic films by the coupling AFM lithography. Journal of Manufacturing Processes,2019,46(/):129-138.
  • [1151] 杨晔. Fabrication of flexible microheater with tunable heating capabilities by direct laser writing and selective electrodeposition. Journal of Manufacturing Processes,2022,74(2022):88-99.
  • [1152] 杨晔. Interpolation and difference optimized machine learning model for accurate prediction of silicon etching depth with small sample dataset. JOURNAL OF VACUUM SCIENCE & TECHNOLOGY B,2023,41(2023):052602.
  • [1153] 王飞,杨晔. 基于Stacking多模型融合的IGBT器件寿命的机器学习预测算法研究. 计算机科学,2022,49(6A):784-789.
  • [1154] 杨晔. Comparison of the bias voltage effect and the force effect during the nanoscale AFM electric lithography on the copper thin film surface. SCANNING,2016,38(5):412–420.
  • [1155] 杨晔. Comparison of the bias voltage effect and the force effect during the nanoscale AFM electric lithography on the copper thin film surface. SCANNING,2016,38(5):412–420.
  • [1156] 杨晔. Study of the electrode tool wear and the probe tip sharpening phenomena during the nanoscale STM electric discharge lithography of the bulk HOPG surface. JOURNAL OF MATERIALS PROCESSING TECHNOLOGY,2016,234(/):150-157.
  • [1157] 杨晔. Nanoscale electric discharge-induced FLG peeling off during the STM electric lithography. MICRO & NANO LETTERS,2017,12(10):793-798.
  • [1158] 杨晔. Fabrication of nanoscale to microscale 2.5D square patterns on metallic films by the coupling AFM lithography. Journal of Manufacturing Processes,2019,46(/):129-138.
  • [1159] 杨晔. Fabrication of flexible microheater with tunable heating capabilities by direct laser writing and selective electrodeposition. Journal of Manufacturing Processes,2022,74(2022):88-99.
  • [1160] 杨晔. Study of the electrode tool wear and the probe tip sharpening phenomena during the nanoscale STM electric discharge lithography of the bulk HOPG surface. JOURNAL OF MATERIALS PROCESSING TECHNOLOGY,2016,234(/):150-157.
  • [1161] 杨晔. Nanoscale electric discharge-induced FLG peeling off during the STM electric lithography. MICRO & NANO LETTERS,2017,12(10):793-798.
  • [1162] 杨晔. Investigation of the transition from local anodic oxidation to electrical breakdown during nanoscale atomic force microscopy electric lithography of highly oriented pyrolytic graphite. MICROSCOPY AND MICROANALYSIS,2016,22(2):432-439.
  • [1163] 杨晔. Direct etching of nano/microscale patterns with both few-layer graphene and high-depth graphite structures by the raster STM electric lithography in the ambient conditions. JOURNAL OF MICROSCOPY,2023,292(1):37-46.
  • [1164] 杨晔. Study of the electrode tool wear and the probe tip sharpening phenomena during the nanoscale STM electric discharge lithography of the bulk HOPG surface. JOURNAL OF MATERIALS PROCESSING TECHNOLOGY,2016,234(/):150-157.
  • [1165] 杨晔. Study of the electrode tool wear and the probe tip sharpening phenomena during the nanoscale STM electric discharge lithography of the bulk HOPG surface. JOURNAL OF MATERIALS PROCESSING TECHNOLOGY,2016,234(/):150-157.
  • [1166] 杨晔. Comparison of the bias voltage effect and the force effect during the nanoscale AFM electric lithography on the copper thin film surface. SCANNING,2016,38(5):412–420.
  • [1167] 王飞,杨晔. 基于Stacking多模型融合的IGBT器件寿命的机器学习预测算法研究. 计算机科学,2022,49(6A):784-789.
  • [1168] 杨晔. Fabrication of flexible microheater with tunable heating capabilities by direct laser writing and selective electrodeposition. Journal of Manufacturing Processes,2022,74(2022):88-99.
  • [1169] 杨晔. Direct etching of nano/microscale patterns with both few-layer graphene and high-depth graphite structures by the raster STM electric lithography in the ambient conditions. JOURNAL OF MICROSCOPY,2023,292(1):37-46.
  • [1170] 杨晔. Fabrication of nanoscale to microscale 2.5D square patterns on metallic films by the coupling AFM lithography. Journal of Manufacturing Processes,2019,46(/):129-138.
  • [1171] 杨晔. Fabrication of flexible microheater with tunable heating capabilities by direct laser writing and selective electrodeposition. Journal of Manufacturing Processes,2022,74(2022):88-99.
  • [1172] 杨晔. Direct etching of nano/microscale patterns with both few-layer graphene and high-depth graphite structures by the raster STM electric lithography in the ambient conditions. JOURNAL OF MICROSCOPY,2023,292(1):37-46.
  • [1173] 杨晔. Comparison of the bias voltage effect and the force effect during the nanoscale AFM electric lithography on the copper thin film surface. SCANNING,2016,38(5):412–420.
  • [1174] 王飞,杨晔. 基于Stacking多模型融合的IGBT器件寿命的机器学习预测算法研究. 计算机科学,2022,49(6A):784-789.
  • [1175] 杨晔. Comparison of the bias voltage effect and the force effect during the nanoscale AFM electric lithography on the copper thin film surface. SCANNING,2016,38(5):412–420.
  • [1176] 王飞,杨晔. 基于Stacking多模型融合的IGBT器件寿命的机器学习预测算法研究. 计算机科学,2022,49(6A):784-789.
  • [1177] 杨晔. Comparison of the bias voltage effect and the force effect during the nanoscale AFM electric lithography on the copper thin film surface. SCANNING,2016,38(5):412–420.
  • [1178] 杨晔. Nanoscale electric discharge-induced FLG peeling off during the STM electric lithography. MICRO & NANO LETTERS,2017,12(10):793-798.
  • [1179] 杨晔. Direct etching of nano/microscale patterns with both few-layer graphene and high-depth graphite structures by the raster STM electric lithography in the ambient conditions. JOURNAL OF MICROSCOPY,2023,292(1):37-46.
  • [1180] 杨晔. Comparison of the bias voltage effect and the force effect during the nanoscale AFM electric lithography on the copper thin film surface. SCANNING,2016,38(5):412–420.
  • [1181] 杨晔. Fabrication of nanoscale to microscale 2.5D square patterns on metallic films by the coupling AFM lithography. Journal of Manufacturing Processes,2019,46(/):129-138.
  • [1182] 杨晔. Study of the electrode tool wear and the probe tip sharpening phenomena during the nanoscale STM electric discharge lithography of the bulk HOPG surface. JOURNAL OF MATERIALS PROCESSING TECHNOLOGY,2016,234(/):150-157.
  • [1183] 杨晔. Nanoscale electric discharge-induced FLG peeling off during the STM electric lithography. MICRO & NANO LETTERS,2017,12(10):793-798.
  • [1184] 杨晔. Investigation of the transition from local anodic oxidation to electrical breakdown during nanoscale atomic force microscopy electric lithography of highly oriented pyrolytic graphite. MICROSCOPY AND MICROANALYSIS,2016,22(2):432-439.
  • [1185] 杨晔. Direct etching of nano/microscale patterns with both few-layer graphene and high-depth graphite structures by the raster STM electric lithography in the ambient conditions. JOURNAL OF MICROSCOPY,2023,292(1):37-46.
  • [1186] 杨晔. Fabrication of nanoscale to microscale 2.5D square patterns on metallic films by the coupling AFM lithography. Journal of Manufacturing Processes,2019,46(/):129-138.
  • [1187] 杨晔. Fabrication of flexible microheater with tunable heating capabilities by direct laser writing and selective electrodeposition. Journal of Manufacturing Processes,2022,74(2022):88-99.
  • [1188] 杨晔. Direct etching of nano/microscale patterns with both few-layer graphene and high-depth graphite structures by the raster STM electric lithography in the ambient conditions. JOURNAL OF MICROSCOPY,2023,292(1):37-46.
  • [1189] 杨晔. Study of the electrode tool wear and the probe tip sharpening phenomena during the nanoscale STM electric discharge lithography of the bulk HOPG surface. JOURNAL OF MATERIALS PROCESSING TECHNOLOGY,2016,234(/):150-157.
  • [1190] 杨晔. Fabrication of nanoscale to microscale 2.5D square patterns on metallic films by the coupling AFM lithography. Journal of Manufacturing Processes,2019,46(/):129-138.
  • [1191] 杨晔. Investigation of the transition from local anodic oxidation to electrical breakdown during nanoscale atomic force microscopy electric lithography of highly oriented pyrolytic graphite. MICROSCOPY AND MICROANALYSIS,2016,22(2):432-439.
  • [1192] 杨晔. Interpolation and difference optimized machine learning model for accurate prediction of silicon etching depth with small sample dataset. JOURNAL OF VACUUM SCIENCE & TECHNOLOGY B,2023,41(2023):052602.
  • [1193] 杨晔. Direct etching of nano/microscale patterns with both few-layer graphene and high-depth graphite structures by the raster STM electric lithography in the ambient conditions. JOURNAL OF MICROSCOPY,2023,292(1):37-46.
  • [1194] 杨晔. Comparison of the bias voltage effect and the force effect during the nanoscale AFM electric lithography on the copper thin film surface. SCANNING,2016,38(5):412–420.
  • [1195] 杨晔. Study of the electrode tool wear and the probe tip sharpening phenomena during the nanoscale STM electric discharge lithography of the bulk HOPG surface. JOURNAL OF MATERIALS PROCESSING TECHNOLOGY,2016,234(/):150-157.
  • [1196] 杨晔. Investigation of the transition from local anodic oxidation to electrical breakdown during nanoscale atomic force microscopy electric lithography of highly oriented pyrolytic graphite. MICROSCOPY AND MICROANALYSIS,2016,22(2):432-439.
  • [1197] 杨晔. Direct etching of nano/microscale patterns with both few-layer graphene and high-depth graphite structures by the raster STM electric lithography in the ambient conditions. JOURNAL OF MICROSCOPY,2023,292(1):37-46.
  • [1198] 王飞,杨晔. 基于Stacking多模型融合的IGBT器件寿命的机器学习预测算法研究. 计算机科学,2022,49(6A):784-789.
  • [1199] 杨晔. Study of the electrode tool wear and the probe tip sharpening phenomena during the nanoscale STM electric discharge lithography of the bulk HOPG surface. JOURNAL OF MATERIALS PROCESSING TECHNOLOGY,2016,234(/):150-157.
  • [1200] 杨晔. Nanoscale electric discharge-induced FLG peeling off during the STM electric lithography. MICRO & NANO LETTERS,2017,12(10):793-798.
  • [1201] 杨晔. Fabrication of flexible microheater with tunable heating capabilities by direct laser writing and selective electrodeposition. Journal of Manufacturing Processes,2022,74(2022):88-99.
  • [1202] 杨晔. Direct etching of nano/microscale patterns with both few-layer graphene and high-depth graphite structures by the raster STM electric lithography in the ambient conditions. JOURNAL OF MICROSCOPY,2023,292(1):37-46.
  • [1203] 杨晔. Fabrication of flexible microheater with tunable heating capabilities by direct laser writing and selective electrodeposition. Journal of Manufacturing Processes,2022,74(2022):88-99.
  • [1204] 杨晔. Direct etching of nano/microscale patterns with both few-layer graphene and high-depth graphite structures by the raster STM electric lithography in the ambient conditions. JOURNAL OF MICROSCOPY,2023,292(1):37-46.
  • [1205] 杨晔. Comparison of the bias voltage effect and the force effect during the nanoscale AFM electric lithography on the copper thin film surface. SCANNING,2016,38(5):412–420.
  • [1206] 杨晔. Study of the electrode tool wear and the probe tip sharpening phenomena during the nanoscale STM electric discharge lithography of the bulk HOPG surface. JOURNAL OF MATERIALS PROCESSING TECHNOLOGY,2016,234(/):150-157.
  • [1207] 杨晔. Comparison of the bias voltage effect and the force effect during the nanoscale AFM electric lithography on the copper thin film surface. SCANNING,2016,38(5):412–420.
  • [1208] 杨晔. Nanoscale electric discharge-induced FLG peeling off during the STM electric lithography. MICRO & NANO LETTERS,2017,12(10):793-798.
  • [1209] 杨晔. Investigation of the transition from local anodic oxidation to electrical breakdown during nanoscale atomic force microscopy electric lithography of highly oriented pyrolytic graphite. MICROSCOPY AND MICROANALYSIS,2016,22(2):432-439.
  • [1210] 杨晔. Interpolation and difference optimized machine learning model for accurate prediction of silicon etching depth with small sample dataset. JOURNAL OF VACUUM SCIENCE & TECHNOLOGY B,2023,41(2023):052602.
  • [1211] 杨晔. Fabrication of nanoscale to microscale 2.5D square patterns on metallic films by the coupling AFM lithography. Journal of Manufacturing Processes,2019,46(/):129-138.
  • [1212] 杨晔. Fabrication of nanoscale to microscale 2.5D square patterns on metallic films by the coupling AFM lithography. Journal of Manufacturing Processes,2019,46(/):129-138.
  • [1213] 杨晔. Fabrication of flexible microheater with tunable heating capabilities by direct laser writing and selective electrodeposition. Journal of Manufacturing Processes,2022,74(2022):88-99.
  • [1214] 杨晔. Direct etching of nano/microscale patterns with both few-layer graphene and high-depth graphite structures by the raster STM electric lithography in the ambient conditions. JOURNAL OF MICROSCOPY,2023,292(1):37-46.
  • [1215] 杨晔. Study of the electrode tool wear and the probe tip sharpening phenomena during the nanoscale STM electric discharge lithography of the bulk HOPG surface. JOURNAL OF MATERIALS PROCESSING TECHNOLOGY,2016,234(/):150-157.
  • [1216] 杨晔. Study of the electrode tool wear and the probe tip sharpening phenomena during the nanoscale STM electric discharge lithography of the bulk HOPG surface. JOURNAL OF MATERIALS PROCESSING TECHNOLOGY,2016,234(/):150-157.
  • [1217] 杨晔. Direct etching of nano/microscale patterns with both few-layer graphene and high-depth graphite structures by the raster STM electric lithography in the ambient conditions. JOURNAL OF MICROSCOPY,2023,292(1):37-46.
  • [1218] 杨晔. Comparison of the bias voltage effect and the force effect during the nanoscale AFM electric lithography on the copper thin film surface. SCANNING,2016,38(5):412–420.
  • [1219] 杨晔. Interpolation and difference optimized machine learning model for accurate prediction of silicon etching depth with small sample dataset. JOURNAL OF VACUUM SCIENCE & TECHNOLOGY B,2023,41(2023):052602.
  • [1220] 杨晔. Fabrication of nanoscale to microscale 2.5D square patterns on metallic films by the coupling AFM lithography. Journal of Manufacturing Processes,2019,46(/):129-138.
  • [1221] 杨晔. Fabrication of flexible microheater with tunable heating capabilities by direct laser writing and selective electrodeposition. Journal of Manufacturing Processes,2022,74(2022):88-99.
  • [1222] 杨晔. Nanoscale electric discharge-induced FLG peeling off during the STM electric lithography. MICRO & NANO LETTERS,2017,12(10):793-798.
  • [1223] 杨晔. Investigation of the transition from local anodic oxidation to electrical breakdown during nanoscale atomic force microscopy electric lithography of highly oriented pyrolytic graphite. MICROSCOPY AND MICROANALYSIS,2016,22(2):432-439.
  • [1224] 杨晔. Direct etching of nano/microscale patterns with both few-layer graphene and high-depth graphite structures by the raster STM electric lithography in the ambient conditions. JOURNAL OF MICROSCOPY,2023,292(1):37-46.
  • [1225] 杨晔. Comparison of the bias voltage effect and the force effect during the nanoscale AFM electric lithography on the copper thin film surface. SCANNING,2016,38(5):412–420.
  • [1226] 杨晔. Study of the electrode tool wear and the probe tip sharpening phenomena during the nanoscale STM electric discharge lithography of the bulk HOPG surface. JOURNAL OF MATERIALS PROCESSING TECHNOLOGY,2016,234(/):150-157.
  • [1227] 杨晔. Fabrication of flexible microheater with tunable heating capabilities by direct laser writing and selective electrodeposition. Journal of Manufacturing Processes,2022,74(2022):88-99.
  • [1228] 杨晔. Study of the electrode tool wear and the probe tip sharpening phenomena during the nanoscale STM electric discharge lithography of the bulk HOPG surface. JOURNAL OF MATERIALS PROCESSING TECHNOLOGY,2016,234(/):150-157.
  • [1229] 杨晔. Nanoscale electric discharge-induced FLG peeling off during the STM electric lithography. MICRO & NANO LETTERS,2017,12(10):793-798.
  • [1230] 杨晔. Investigation of the transition from local anodic oxidation to electrical breakdown during nanoscale atomic force microscopy electric lithography of highly oriented pyrolytic graphite. MICROSCOPY AND MICROANALYSIS,2016,22(2):432-439.
  • [1231] 王飞,杨晔. 基于Stacking多模型融合的IGBT器件寿命的机器学习预测算法研究. 计算机科学,2022,49(6A):784-789.
  • [1232] 杨晔. Fabrication of flexible microheater with tunable heating capabilities by direct laser writing and selective electrodeposition. Journal of Manufacturing Processes,2022,74(2022):88-99.
  • [1233] 杨晔. Direct etching of nano/microscale patterns with both few-layer graphene and high-depth graphite structures by the raster STM electric lithography in the ambient conditions. JOURNAL OF MICROSCOPY,2023,292(1):37-46.
  • [1234] 杨晔. Comparison of the bias voltage effect and the force effect during the nanoscale AFM electric lithography on the copper thin film surface. SCANNING,2016,38(5):412–420.
  • [1235] 杨晔. Nanoscale electric discharge-induced FLG peeling off during the STM electric lithography. MICRO & NANO LETTERS,2017,12(10):793-798.
  • [1236] 杨晔. Interpolation and difference optimized machine learning model for accurate prediction of silicon etching depth with small sample dataset. JOURNAL OF VACUUM SCIENCE & TECHNOLOGY B,2023,41(2023):052602.
  • [1237] 王飞,杨晔. 基于Stacking多模型融合的IGBT器件寿命的机器学习预测算法研究. 计算机科学,2022,49(6A):784-789.
  • [1238] 杨晔. Direct etching of nano/microscale patterns with both few-layer graphene and high-depth graphite structures by the raster STM electric lithography in the ambient conditions. JOURNAL OF MICROSCOPY,2023,292(1):37-46.
  • [1239] 杨晔. Comparison of the bias voltage effect and the force effect during the nanoscale AFM electric lithography on the copper thin film surface. SCANNING,2016,38(5):412–420.
  • [1240] 王飞,杨晔. 基于Stacking多模型融合的IGBT器件寿命的机器学习预测算法研究. 计算机科学,2022,49(6A):784-789.
  • [1241] 杨晔. Fabrication of nanoscale to microscale 2.5D square patterns on metallic films by the coupling AFM lithography. Journal of Manufacturing Processes,2019,46(/):129-138.
  • [1242] 杨晔. Fabrication of flexible microheater with tunable heating capabilities by direct laser writing and selective electrodeposition. Journal of Manufacturing Processes,2022,74(2022):88-99.
  • [1243] 杨晔. Study of the electrode tool wear and the probe tip sharpening phenomena during the nanoscale STM electric discharge lithography of the bulk HOPG surface. JOURNAL OF MATERIALS PROCESSING TECHNOLOGY,2016,234(/):150-157.
  • [1244] 杨晔. Interpolation and difference optimized machine learning model for accurate prediction of silicon etching depth with small sample dataset. JOURNAL OF VACUUM SCIENCE & TECHNOLOGY B,2023,41(2023):052602.
  • [1245] 杨晔. Fabrication of nanoscale to microscale 2.5D square patterns on metallic films by the coupling AFM lithography. Journal of Manufacturing Processes,2019,46(/):129-138.
  • [1246] 杨晔. Fabrication of nanoscale to microscale 2.5D square patterns on metallic films by the coupling AFM lithography. Journal of Manufacturing Processes,2019,46(/):129-138.
  • [1247] 杨晔. Fabrication of flexible microheater with tunable heating capabilities by direct laser writing and selective electrodeposition. Journal of Manufacturing Processes,2022,74(2022):88-99.
  • [1248] 杨晔. Direct etching of nano/microscale patterns with both few-layer graphene and high-depth graphite structures by the raster STM electric lithography in the ambient conditions. JOURNAL OF MICROSCOPY,2023,292(1):37-46.
  • [1249] 杨晔. Comparison of the bias voltage effect and the force effect during the nanoscale AFM electric lithography on the copper thin film surface. SCANNING,2016,38(5):412–420.
  • [1250] 杨晔. Nanoscale electric discharge-induced FLG peeling off during the STM electric lithography. MICRO & NANO LETTERS,2017,12(10):793-798.
  • [1251] 杨晔. Investigation of the transition from local anodic oxidation to electrical breakdown during nanoscale atomic force microscopy electric lithography of highly oriented pyrolytic graphite. MICROSCOPY AND MICROANALYSIS,2016,22(2):432-439.
  • [1252] 杨晔. Comparison of the bias voltage effect and the force effect during the nanoscale AFM electric lithography on the copper thin film surface. SCANNING,2016,38(5):412–420.
  • [1253] 杨晔. Nanoscale electric discharge-induced FLG peeling off during the STM electric lithography. MICRO & NANO LETTERS,2017,12(10):793-798.
  • [1254] 杨晔. Fabrication of nanoscale to microscale 2.5D square patterns on metallic films by the coupling AFM lithography. Journal of Manufacturing Processes,2019,46(/):129-138.
  • [1255] 杨晔. Fabrication of flexible microheater with tunable heating capabilities by direct laser writing and selective electrodeposition. Journal of Manufacturing Processes,2022,74(2022):88-99.
  • [1256] 杨晔. Comparison of the bias voltage effect and the force effect during the nanoscale AFM electric lithography on the copper thin film surface. SCANNING,2016,38(5):412–420.
  • [1257] 王飞,杨晔. 基于Stacking多模型融合的IGBT器件寿命的机器学习预测算法研究. 计算机科学,2022,49(6A):784-789.
  • [1258] 杨晔. Comparison of the bias voltage effect and the force effect during the nanoscale AFM electric lithography on the copper thin film surface. SCANNING,2016,38(5):412–420.
  • [1259] 杨晔. Study of the electrode tool wear and the probe tip sharpening phenomena during the nanoscale STM electric discharge lithography of the bulk HOPG surface. JOURNAL OF MATERIALS PROCESSING TECHNOLOGY,2016,234(/):150-157.
  • [1260] 杨晔. Investigation of the transition from local anodic oxidation to electrical breakdown during nanoscale atomic force microscopy electric lithography of highly oriented pyrolytic graphite. MICROSCOPY AND MICROANALYSIS,2016,22(2):432-439.
  • [1261] 杨晔. Interpolation and difference optimized machine learning model for accurate prediction of silicon etching depth with small sample dataset. JOURNAL OF VACUUM SCIENCE & TECHNOLOGY B,2023,41(2023):052602.
  • [1262] 杨晔. Interpolation and difference optimized machine learning model for accurate prediction of silicon etching depth with small sample dataset. JOURNAL OF VACUUM SCIENCE & TECHNOLOGY B,2023,41(2023):052602.
  • [1263] 杨晔. Fabrication of nanoscale to microscale 2.5D square patterns on metallic films by the coupling AFM lithography. Journal of Manufacturing Processes,2019,46(/):129-138.
  • [1264] 杨晔. Fabrication of flexible microheater with tunable heating capabilities by direct laser writing and selective electrodeposition. Journal of Manufacturing Processes,2022,74(2022):88-99.
  • [1265] 杨晔. Direct etching of nano/microscale patterns with both few-layer graphene and high-depth graphite structures by the raster STM electric lithography in the ambient conditions. JOURNAL OF MICROSCOPY,2023,292(1):37-46.
  • [1266] 王飞,杨晔. 基于Stacking多模型融合的IGBT器件寿命的机器学习预测算法研究. 计算机科学,2022,49(6A):784-789.
  • [1267] 杨晔. Investigation of the transition from local anodic oxidation to electrical breakdown during nanoscale atomic force microscopy electric lithography of highly oriented pyrolytic graphite. MICROSCOPY AND MICROANALYSIS,2016,22(2):432-439.
  • [1268] 杨晔. Interpolation and difference optimized machine learning model for accurate prediction of silicon etching depth with small sample dataset. JOURNAL OF VACUUM SCIENCE & TECHNOLOGY B,2023,41(2023):052602.
  • [1269] 杨晔. Study of the electrode tool wear and the probe tip sharpening phenomena during the nanoscale STM electric discharge lithography of the bulk HOPG surface. JOURNAL OF MATERIALS PROCESSING TECHNOLOGY,2016,234(/):150-157.
  • [1270] 王飞,杨晔. 基于Stacking多模型融合的IGBT器件寿命的机器学习预测算法研究. 计算机科学,2022,49(6A):784-789.
  • [1271] 杨晔. Fabrication of nanoscale to microscale 2.5D square patterns on metallic films by the coupling AFM lithography. Journal of Manufacturing Processes,2019,46(/):129-138.
  • [1272] 杨晔. Comparison of the bias voltage effect and the force effect during the nanoscale AFM electric lithography on the copper thin film surface. SCANNING,2016,38(5):412–420.
  • [1273] 杨晔. Nanoscale electric discharge-induced FLG peeling off during the STM electric lithography. MICRO & NANO LETTERS,2017,12(10):793-798.
  • [1274] 杨晔. Investigation of the transition from local anodic oxidation to electrical breakdown during nanoscale atomic force microscopy electric lithography of highly oriented pyrolytic graphite. MICROSCOPY AND MICROANALYSIS,2016,22(2):432-439.
  • [1275] 杨晔. Interpolation and difference optimized machine learning model for accurate prediction of silicon etching depth with small sample dataset. JOURNAL OF VACUUM SCIENCE & TECHNOLOGY B,2023,41(2023):052602.
  • [1276] 杨晔. Fabrication of nanoscale to microscale 2.5D square patterns on metallic films by the coupling AFM lithography. Journal of Manufacturing Processes,2019,46(/):129-138.
  • [1277] 杨晔. Study of the electrode tool wear and the probe tip sharpening phenomena during the nanoscale STM electric discharge lithography of the bulk HOPG surface. JOURNAL OF MATERIALS PROCESSING TECHNOLOGY,2016,234(/):150-157.
  • [1278] 杨晔. Fabrication of nanoscale to microscale 2.5D square patterns on metallic films by the coupling AFM lithography. Journal of Manufacturing Processes,2019,46(/):129-138.
  • [1279] 杨晔. Fabrication of flexible microheater with tunable heating capabilities by direct laser writing and selective electrodeposition. Journal of Manufacturing Processes,2022,74(2022):88-99.
  • [1280] 王飞,杨晔. 基于Stacking多模型融合的IGBT器件寿命的机器学习预测算法研究. 计算机科学,2022,49(6A):784-789.
  • [1281] 杨晔. Investigation of the transition from local anodic oxidation to electrical breakdown during nanoscale atomic force microscopy electric lithography of highly oriented pyrolytic graphite. MICROSCOPY AND MICROANALYSIS,2016,22(2):432-439.
  • [1282] 杨晔. Interpolation and difference optimized machine learning model for accurate prediction of silicon etching depth with small sample dataset. JOURNAL OF VACUUM SCIENCE & TECHNOLOGY B,2023,41(2023):052602.
  • [1283] 杨晔. Study of the electrode tool wear and the probe tip sharpening phenomena during the nanoscale STM electric discharge lithography of the bulk HOPG surface. JOURNAL OF MATERIALS PROCESSING TECHNOLOGY,2016,234(/):150-157.
  • [1284] 杨晔. Investigation of the transition from local anodic oxidation to electrical breakdown during nanoscale atomic force microscopy electric lithography of highly oriented pyrolytic graphite. MICROSCOPY AND MICROANALYSIS,2016,22(2):432-439.
  • [1285] 杨晔. Interpolation and difference optimized machine learning model for accurate prediction of silicon etching depth with small sample dataset. JOURNAL OF VACUUM SCIENCE & TECHNOLOGY B,2023,41(2023):052602.
  • [1286] 杨晔. Comparison of the bias voltage effect and the force effect during the nanoscale AFM electric lithography on the copper thin film surface. SCANNING,2016,38(5):412–420.
  • [1287] 杨晔. Interpolation and difference optimized machine learning model for accurate prediction of silicon etching depth with small sample dataset. JOURNAL OF VACUUM SCIENCE & TECHNOLOGY B,2023,41(2023):052602.
  • [1288] 杨晔. Fabrication of nanoscale to microscale 2.5D square patterns on metallic films by the coupling AFM lithography. Journal of Manufacturing Processes,2019,46(/):129-138.
  • [1289] 王飞,杨晔. 基于Stacking多模型融合的IGBT器件寿命的机器学习预测算法研究. 计算机科学,2022,49(6A):784-789.
  • [1290] 杨晔. Investigation of the transition from local anodic oxidation to electrical breakdown during nanoscale atomic force microscopy electric lithography of highly oriented pyrolytic graphite. MICROSCOPY AND MICROANALYSIS,2016,22(2):432-439.
  • [1291] 杨晔. Comparison of the bias voltage effect and the force effect during the nanoscale AFM electric lithography on the copper thin film surface. SCANNING,2016,38(5):412–420.
  • [1292] 王飞,杨晔. 基于Stacking多模型融合的IGBT器件寿命的机器学习预测算法研究. 计算机科学,2022,49(6A):784-789.
  • [1293] 杨晔. Fabrication of flexible microheater with tunable heating capabilities by direct laser writing and selective electrodeposition. Journal of Manufacturing Processes,2022,74(2022):88-99.
  • [1294] 杨晔. Direct etching of nano/microscale patterns with both few-layer graphene and high-depth graphite structures by the raster STM electric lithography in the ambient conditions. JOURNAL OF MICROSCOPY,2023,292(1):37-46.
  • [1295] 杨晔. Comparison of the bias voltage effect and the force effect during the nanoscale AFM electric lithography on the copper thin film surface. SCANNING,2016,38(5):412–420.
  • [1296] 杨晔. Fabrication of nanoscale to microscale 2.5D square patterns on metallic films by the coupling AFM lithography. Journal of Manufacturing Processes,2019,46(/):129-138.
  • [1297] 杨晔. Investigation of the transition from local anodic oxidation to electrical breakdown during nanoscale atomic force microscopy electric lithography of highly oriented pyrolytic graphite. MICROSCOPY AND MICROANALYSIS,2016,22(2):432-439.
  • [1298] 杨晔. Fabrication of flexible microheater with tunable heating capabilities by direct laser writing and selective electrodeposition. Journal of Manufacturing Processes,2022,74(2022):88-99.
  • [1299] 杨晔. Direct etching of nano/microscale patterns with both few-layer graphene and high-depth graphite structures by the raster STM electric lithography in the ambient conditions. JOURNAL OF MICROSCOPY,2023,292(1):37-46.
  • [1300] 王飞,杨晔. 基于Stacking多模型融合的IGBT器件寿命的机器学习预测算法研究. 计算机科学,2022,49(6A):784-789.
  • [1301] 王飞,杨晔. 基于Stacking多模型融合的IGBT器件寿命的机器学习预测算法研究. 计算机科学,2022,49(6A):784-789.
  • [1302] 杨晔. Direct etching of nano/microscale patterns with both few-layer graphene and high-depth graphite structures by the raster STM electric lithography in the ambient conditions. JOURNAL OF MICROSCOPY,2023,292(1):37-46.
  • [1303] 杨晔. Comparison of the bias voltage effect and the force effect during the nanoscale AFM electric lithography on the copper thin film surface. SCANNING,2016,38(5):412–420.
  • [1304] 杨晔. Interpolation and difference optimized machine learning model for accurate prediction of silicon etching depth with small sample dataset. JOURNAL OF VACUUM SCIENCE & TECHNOLOGY B,2023,41(2023):052602.
  • [1305] 杨晔. Nanoscale electric discharge-induced FLG peeling off during the STM electric lithography. MICRO & NANO LETTERS,2017,12(10):793-798.
  • [1306] 杨晔. Investigation of the transition from local anodic oxidation to electrical breakdown during nanoscale atomic force microscopy electric lithography of highly oriented pyrolytic graphite. MICROSCOPY AND MICROANALYSIS,2016,22(2):432-439.
  • [1307] 杨晔. Interpolation and difference optimized machine learning model for accurate prediction of silicon etching depth with small sample dataset. JOURNAL OF VACUUM SCIENCE & TECHNOLOGY B,2023,41(2023):052602.
  • [1308] 杨晔. Direct etching of nano/microscale patterns with both few-layer graphene and high-depth graphite structures by the raster STM electric lithography in the ambient conditions. JOURNAL OF MICROSCOPY,2023,292(1):37-46.
  • [1309] 杨晔. Comparison of the bias voltage effect and the force effect during the nanoscale AFM electric lithography on the copper thin film surface. SCANNING,2016,38(5):412–420.
  • [1310] 杨晔. Nanoscale electric discharge-induced FLG peeling off during the STM electric lithography. MICRO & NANO LETTERS,2017,12(10):793-798.
  • [1311] 杨晔. Interpolation and difference optimized machine learning model for accurate prediction of silicon etching depth with small sample dataset. JOURNAL OF VACUUM SCIENCE & TECHNOLOGY B,2023,41(2023):052602.
  • [1312] 杨晔. Fabrication of nanoscale to microscale 2.5D square patterns on metallic films by the coupling AFM lithography. Journal of Manufacturing Processes,2019,46(/):129-138.
  • [1313] 杨晔. Study of the electrode tool wear and the probe tip sharpening phenomena during the nanoscale STM electric discharge lithography of the bulk HOPG surface. JOURNAL OF MATERIALS PROCESSING TECHNOLOGY,2016,234(/):150-157.
  • [1314] 杨晔. Investigation of the transition from local anodic oxidation to electrical breakdown during nanoscale atomic force microscopy electric lithography of highly oriented pyrolytic graphite. MICROSCOPY AND MICROANALYSIS,2016,22(2):432-439.
  • [1315] 杨晔. Comparison of the bias voltage effect and the force effect during the nanoscale AFM electric lithography on the copper thin film surface. SCANNING,2016,38(5):412–420.
  • [1316] 杨晔. Fabrication of nanoscale to microscale 2.5D square patterns on metallic films by the coupling AFM lithography. Journal of Manufacturing Processes,2019,46(/):129-138.
  • [1317] 杨晔. Fabrication of flexible microheater with tunable heating capabilities by direct laser writing and selective electrodeposition. Journal of Manufacturing Processes,2022,74(2022):88-99.
  • [1318] 杨晔. Comparison of the bias voltage effect and the force effect during the nanoscale AFM electric lithography on the copper thin film surface. SCANNING,2016,38(5):412–420.
  • [1319] 杨晔. Investigation of the transition from local anodic oxidation to electrical breakdown during nanoscale atomic force microscopy electric lithography of highly oriented pyrolytic graphite. MICROSCOPY AND MICROANALYSIS,2016,22(2):432-439.
  • [1320] 杨晔. Interpolation and difference optimized machine learning model for accurate prediction of silicon etching depth with small sample dataset. JOURNAL OF VACUUM SCIENCE & TECHNOLOGY B,2023,41(2023):052602.
  • [1321] 杨晔. Direct etching of nano/microscale patterns with both few-layer graphene and high-depth graphite structures by the raster STM electric lithography in the ambient conditions. JOURNAL OF MICROSCOPY,2023,292(1):37-46.
  • [1322] 杨晔. Comparison of the bias voltage effect and the force effect during the nanoscale AFM electric lithography on the copper thin film surface. SCANNING,2016,38(5):412–420.
  • [1323] 杨晔. Study of the electrode tool wear and the probe tip sharpening phenomena during the nanoscale STM electric discharge lithography of the bulk HOPG surface. JOURNAL OF MATERIALS PROCESSING TECHNOLOGY,2016,234(/):150-157.
  • [1324] 杨晔. Nanoscale electric discharge-induced FLG peeling off during the STM electric lithography. MICRO & NANO LETTERS,2017,12(10):793-798.
  • [1325] 杨晔. Comparison of the bias voltage effect and the force effect during the nanoscale AFM electric lithography on the copper thin film surface. SCANNING,2016,38(5):412–420.
  • [1326] 王飞,杨晔. 基于Stacking多模型融合的IGBT器件寿命的机器学习预测算法研究. 计算机科学,2022,49(6A):784-789.
  • [1327] 杨晔. Comparison of the bias voltage effect and the force effect during the nanoscale AFM electric lithography on the copper thin film surface. SCANNING,2016,38(5):412–420.
  • [1328] 王飞,杨晔. 基于Stacking多模型融合的IGBT器件寿命的机器学习预测算法研究. 计算机科学,2022,49(6A):784-789.
  • [1329] 杨晔. Fabrication of flexible microheater with tunable heating capabilities by direct laser writing and selective electrodeposition. Journal of Manufacturing Processes,2022,74(2022):88-99.
  • [1330] 杨晔. Direct etching of nano/microscale patterns with both few-layer graphene and high-depth graphite structures by the raster STM electric lithography in the ambient conditions. JOURNAL OF MICROSCOPY,2023,292(1):37-46.
  • [1331] 杨晔. Comparison of the bias voltage effect and the force effect during the nanoscale AFM electric lithography on the copper thin film surface. SCANNING,2016,38(5):412–420.
  • [1332] 杨晔. Study of the electrode tool wear and the probe tip sharpening phenomena during the nanoscale STM electric discharge lithography of the bulk HOPG surface. JOURNAL OF MATERIALS PROCESSING TECHNOLOGY,2016,234(/):150-157.
  • [1333] 杨晔. Study of the electrode tool wear and the probe tip sharpening phenomena during the nanoscale STM electric discharge lithography of the bulk HOPG surface. JOURNAL OF MATERIALS PROCESSING TECHNOLOGY,2016,234(/):150-157.
  • [1334] 杨晔. Interpolation and difference optimized machine learning model for accurate prediction of silicon etching depth with small sample dataset. JOURNAL OF VACUUM SCIENCE & TECHNOLOGY B,2023,41(2023):052602.
  • [1335] 杨晔. Study of the electrode tool wear and the probe tip sharpening phenomena during the nanoscale STM electric discharge lithography of the bulk HOPG surface. JOURNAL OF MATERIALS PROCESSING TECHNOLOGY,2016,234(/):150-157.
  • [1336] 杨晔. Investigation of the transition from local anodic oxidation to electrical breakdown during nanoscale atomic force microscopy electric lithography of highly oriented pyrolytic graphite. MICROSCOPY AND MICROANALYSIS,2016,22(2):432-439.
  • [1337] 杨晔. Study of the electrode tool wear and the probe tip sharpening phenomena during the nanoscale STM electric discharge lithography of the bulk HOPG surface. JOURNAL OF MATERIALS PROCESSING TECHNOLOGY,2016,234(/):150-157.
  • [1338] 杨晔. Fabrication of flexible microheater with tunable heating capabilities by direct laser writing and selective electrodeposition. Journal of Manufacturing Processes,2022,74(2022):88-99.
  • [1339] 杨晔. Direct etching of nano/microscale patterns with both few-layer graphene and high-depth graphite structures by the raster STM electric lithography in the ambient conditions. JOURNAL OF MICROSCOPY,2023,292(1):37-46.
  • [1340] 杨晔. Fabrication of nanoscale to microscale 2.5D square patterns on metallic films by the coupling AFM lithography. Journal of Manufacturing Processes,2019,46(/):129-138.
  • [1341] 杨晔. Fabrication of flexible microheater with tunable heating capabilities by direct laser writing and selective electrodeposition. Journal of Manufacturing Processes,2022,74(2022):88-99.
  • [1342] 王飞,杨晔. 基于Stacking多模型融合的IGBT器件寿命的机器学习预测算法研究. 计算机科学,2022,49(6A):784-789.
  • [1343] 王飞,杨晔. 基于Stacking多模型融合的IGBT器件寿命的机器学习预测算法研究. 计算机科学,2022,49(6A):784-789.
  • [1344] 杨晔. Nanoscale electric discharge-induced FLG peeling off during the STM electric lithography. MICRO & NANO LETTERS,2017,12(10):793-798.
  • [1345] 杨晔. Investigation of the transition from local anodic oxidation to electrical breakdown during nanoscale atomic force microscopy electric lithography of highly oriented pyrolytic graphite. MICROSCOPY AND MICROANALYSIS,2016,22(2):432-439.
  • [1346] 杨晔. Interpolation and difference optimized machine learning model for accurate prediction of silicon etching depth with small sample dataset. JOURNAL OF VACUUM SCIENCE & TECHNOLOGY B,2023,41(2023):052602.
  • [1347] 王飞,杨晔. 基于Stacking多模型融合的IGBT器件寿命的机器学习预测算法研究. 计算机科学,2022,49(6A):784-789.
  • [1348] 杨晔. Nanoscale electric discharge-induced FLG peeling off during the STM electric lithography. MICRO & NANO LETTERS,2017,12(10):793-798.
  • [1349] 杨晔. Investigation of the transition from local anodic oxidation to electrical breakdown during nanoscale atomic force microscopy electric lithography of highly oriented pyrolytic graphite. MICROSCOPY AND MICROANALYSIS,2016,22(2):432-439.
  • [1350] 杨晔. Interpolation and difference optimized machine learning model for accurate prediction of silicon etching depth with small sample dataset. JOURNAL OF VACUUM SCIENCE & TECHNOLOGY B,2023,41(2023):052602.
  • [1351] 杨晔. Nanoscale electric discharge-induced FLG peeling off during the STM electric lithography. MICRO & NANO LETTERS,2017,12(10):793-798.
  • [1352] 杨晔. Comparison of the bias voltage effect and the force effect during the nanoscale AFM electric lithography on the copper thin film surface. SCANNING,2016,38(5):412–420.
  • [1353] 王飞,杨晔. 基于Stacking多模型融合的IGBT器件寿命的机器学习预测算法研究. 计算机科学,2022,49(6A):784-789.
  • [1354] 杨晔. Study of the electrode tool wear and the probe tip sharpening phenomena during the nanoscale STM electric discharge lithography of the bulk HOPG surface. JOURNAL OF MATERIALS PROCESSING TECHNOLOGY,2016,234(/):150-157.
  • [1355] 杨晔. Fabrication of flexible microheater with tunable heating capabilities by direct laser writing and selective electrodeposition. Journal of Manufacturing Processes,2022,74(2022):88-99.
  • [1356] 杨晔. Comparison of the bias voltage effect and the force effect during the nanoscale AFM electric lithography on the copper thin film surface. SCANNING,2016,38(5):412–420.
  • [1357] 杨晔. Investigation of the transition from local anodic oxidation to electrical breakdown during nanoscale atomic force microscopy electric lithography of highly oriented pyrolytic graphite. MICROSCOPY AND MICROANALYSIS,2016,22(2):432-439.
  • [1358] 杨晔. Interpolation and difference optimized machine learning model for accurate prediction of silicon etching depth with small sample dataset. JOURNAL OF VACUUM SCIENCE & TECHNOLOGY B,2023,41(2023):052602.
  • [1359] 杨晔. Nanoscale electric discharge-induced FLG peeling off during the STM electric lithography. MICRO & NANO LETTERS,2017,12(10):793-798.
  • [1360] 杨晔. Fabrication of nanoscale to microscale 2.5D square patterns on metallic films by the coupling AFM lithography. Journal of Manufacturing Processes,2019,46(/):129-138.
  • [1361] 杨晔. Fabrication of flexible microheater with tunable heating capabilities by direct laser writing and selective electrodeposition. Journal of Manufacturing Processes,2022,74(2022):88-99.
  • [1362] 杨晔. Fabrication of nanoscale to microscale 2.5D square patterns on metallic films by the coupling AFM lithography. Journal of Manufacturing Processes,2019,46(/):129-138.
  • [1363] 杨晔. Fabrication of flexible microheater with tunable heating capabilities by direct laser writing and selective electrodeposition. Journal of Manufacturing Processes,2022,74(2022):88-99.
  • [1364] 杨晔. Direct etching of nano/microscale patterns with both few-layer graphene and high-depth graphite structures by the raster STM electric lithography in the ambient conditions. JOURNAL OF MICROSCOPY,2023,292(1):37-46.
  • [1365] 王飞,杨晔. 基于Stacking多模型融合的IGBT器件寿命的机器学习预测算法研究. 计算机科学,2022,49(6A):784-789.
  • [1366] 杨晔. Nanoscale electric discharge-induced FLG peeling off during the STM electric lithography. MICRO & NANO LETTERS,2017,12(10):793-798.
  • [1367] 杨晔. Fabrication of flexible microheater with tunable heating capabilities by direct laser writing and selective electrodeposition. Journal of Manufacturing Processes,2022,74(2022):88-99.
  • [1368] 杨晔. Comparison of the bias voltage effect and the force effect during the nanoscale AFM electric lithography on the copper thin film surface. SCANNING,2016,38(5):412–420.
  • [1369] 杨晔. Investigation of the transition from local anodic oxidation to electrical breakdown during nanoscale atomic force microscopy electric lithography of highly oriented pyrolytic graphite. MICROSCOPY AND MICROANALYSIS,2016,22(2):432-439.
  • [1370] 杨晔. Interpolation and difference optimized machine learning model for accurate prediction of silicon etching depth with small sample dataset. JOURNAL OF VACUUM SCIENCE & TECHNOLOGY B,2023,41(2023):052602.
  • [1371] 王飞,杨晔. 基于Stacking多模型融合的IGBT器件寿命的机器学习预测算法研究. 计算机科学,2022,49(6A):784-789.
  • [1372] 杨晔. Nanoscale electric discharge-induced FLG peeling off during the STM electric lithography. MICRO & NANO LETTERS,2017,12(10):793-798.
  • [1373] 杨晔. Investigation of the transition from local anodic oxidation to electrical breakdown during nanoscale atomic force microscopy electric lithography of highly oriented pyrolytic graphite. MICROSCOPY AND MICROANALYSIS,2016,22(2):432-439.
  • [1374] 杨晔. Interpolation and difference optimized machine learning model for accurate prediction of silicon etching depth with small sample dataset. JOURNAL OF VACUUM SCIENCE & TECHNOLOGY B,2023,41(2023):052602.
  • [1375] 杨晔. Fabrication of flexible microheater with tunable heating capabilities by direct laser writing and selective electrodeposition. Journal of Manufacturing Processes,2022,74(2022):88-99.
  • [1376] 王飞,杨晔. 基于Stacking多模型融合的IGBT器件寿命的机器学习预测算法研究. 计算机科学,2022,49(6A):784-789.
  • [1377] 杨晔. Interpolation and difference optimized machine learning model for accurate prediction of silicon etching depth with small sample dataset. JOURNAL OF VACUUM SCIENCE & TECHNOLOGY B,2023,41(2023):052602.
  • [1378] 王飞,杨晔. 基于Stacking多模型融合的IGBT器件寿命的机器学习预测算法研究. 计算机科学,2022,49(6A):784-789.
  • [1379] 杨晔. Study of the electrode tool wear and the probe tip sharpening phenomena during the nanoscale STM electric discharge lithography of the bulk HOPG surface. JOURNAL OF MATERIALS PROCESSING TECHNOLOGY,2016,234(/):150-157.
  • [1380] 杨晔. Fabrication of flexible microheater with tunable heating capabilities by direct laser writing and selective electrodeposition. Journal of Manufacturing Processes,2022,74(2022):88-99.
  • [1381] 杨晔. Direct etching of nano/microscale patterns with both few-layer graphene and high-depth graphite structures by the raster STM electric lithography in the ambient conditions. JOURNAL OF MICROSCOPY,2023,292(1):37-46.
  • [1382] 杨晔. Interpolation and difference optimized machine learning model for accurate prediction of silicon etching depth with small sample dataset. JOURNAL OF VACUUM SCIENCE & TECHNOLOGY B,2023,41(2023):052602.
  • [1383] 杨晔. Fabrication of flexible microheater with tunable heating capabilities by direct laser writing and selective electrodeposition. Journal of Manufacturing Processes,2022,74(2022):88-99.
  • [1384] 杨晔. Direct etching of nano/microscale patterns with both few-layer graphene and high-depth graphite structures by the raster STM electric lithography in the ambient conditions. JOURNAL OF MICROSCOPY,2023,292(1):37-46.
  • [1385] 杨晔. Comparison of the bias voltage effect and the force effect during the nanoscale AFM electric lithography on the copper thin film surface. SCANNING,2016,38(5):412–420.
  • [1386] 杨晔. Fabrication of nanoscale to microscale 2.5D square patterns on metallic films by the coupling AFM lithography. Journal of Manufacturing Processes,2019,46(/):129-138.
  • [1387] 王飞,杨晔. 基于Stacking多模型融合的IGBT器件寿命的机器学习预测算法研究. 计算机科学,2022,49(6A):784-789.
  • [1388] 杨晔. Direct etching of nano/microscale patterns with both few-layer graphene and high-depth graphite structures by the raster STM electric lithography in the ambient conditions. JOURNAL OF MICROSCOPY,2023,292(1):37-46.
  • [1389] 杨晔. Comparison of the bias voltage effect and the force effect during the nanoscale AFM electric lithography on the copper thin film surface. SCANNING,2016,38(5):412–420.
  • [1390] 杨晔. Comparison of the bias voltage effect and the force effect during the nanoscale AFM electric lithography on the copper thin film surface. SCANNING,2016,38(5):412–420.
  • [1391] 杨晔. Fabrication of nanoscale to microscale 2.5D square patterns on metallic films by the coupling AFM lithography. Journal of Manufacturing Processes,2019,46(/):129-138.
  • [1392] 杨晔. Fabrication of flexible microheater with tunable heating capabilities by direct laser writing and selective electrodeposition. Journal of Manufacturing Processes,2022,74(2022):88-99.
  • [1393] 杨晔. Direct etching of nano/microscale patterns with both few-layer graphene and high-depth graphite structures by the raster STM electric lithography in the ambient conditions. JOURNAL OF MICROSCOPY,2023,292(1):37-46.
  • [1394] 杨晔. Comparison of the bias voltage effect and the force effect during the nanoscale AFM electric lithography on the copper thin film surface. SCANNING,2016,38(5):412–420.
  • [1395] 杨晔. Nanoscale electric discharge-induced FLG peeling off during the STM electric lithography. MICRO & NANO LETTERS,2017,12(10):793-798.
  • [1396] 杨晔. Investigation of the transition from local anodic oxidation to electrical breakdown during nanoscale atomic force microscopy electric lithography of highly oriented pyrolytic graphite. MICROSCOPY AND MICROANALYSIS,2016,22(2):432-439.
  • [1397] 杨晔. Investigation of the transition from local anodic oxidation to electrical breakdown during nanoscale atomic force microscopy electric lithography of highly oriented pyrolytic graphite. MICROSCOPY AND MICROANALYSIS,2016,22(2):432-439.
  • [1398] 杨晔. Interpolation and difference optimized machine learning model for accurate prediction of silicon etching depth with small sample dataset. JOURNAL OF VACUUM SCIENCE & TECHNOLOGY B,2023,41(2023):052602.
  • [1399] 杨晔. Fabrication of nanoscale to microscale 2.5D square patterns on metallic films by the coupling AFM lithography. Journal of Manufacturing Processes,2019,46(/):129-138.
  • [1400] 杨晔. Study of the electrode tool wear and the probe tip sharpening phenomena during the nanoscale STM electric discharge lithography of the bulk HOPG surface. JOURNAL OF MATERIALS PROCESSING TECHNOLOGY,2016,234(/):150-157.
  • [1401] 杨晔. Nanoscale electric discharge-induced FLG peeling off during the STM electric lithography. MICRO & NANO LETTERS,2017,12(10):793-798.
  • [1402] 杨晔. Fabrication of nanoscale to microscale 2.5D square patterns on metallic films by the coupling AFM lithography. Journal of Manufacturing Processes,2019,46(/):129-138.
  • [1403] 杨晔. Fabrication of flexible microheater with tunable heating capabilities by direct laser writing and selective electrodeposition. Journal of Manufacturing Processes,2022,74(2022):88-99.
  • [1404] 杨晔. Investigation of the transition from local anodic oxidation to electrical breakdown during nanoscale atomic force microscopy electric lithography of highly oriented pyrolytic graphite. MICROSCOPY AND MICROANALYSIS,2016,22(2):432-439.
  • [1405] 杨晔. Interpolation and difference optimized machine learning model for accurate prediction of silicon etching depth with small sample dataset. JOURNAL OF VACUUM SCIENCE & TECHNOLOGY B,2023,41(2023):052602.
  • [1406] 杨晔. Fabrication of nanoscale to microscale 2.5D square patterns on metallic films by the coupling AFM lithography. Journal of Manufacturing Processes,2019,46(/):129-138.
  • [1407] 杨晔. Fabrication of nanoscale to microscale 2.5D square patterns on metallic films by the coupling AFM lithography. Journal of Manufacturing Processes,2019,46(/):129-138.
  • [1408] 杨晔. Fabrication of nanoscale to microscale 2.5D square patterns on metallic films by the coupling AFM lithography. Journal of Manufacturing Processes,2019,46(/):129-138.
  • [1409] 杨晔. Interpolation and difference optimized machine learning model for accurate prediction of silicon etching depth with small sample dataset. JOURNAL OF VACUUM SCIENCE & TECHNOLOGY B,2023,41(2023):052602.
  • [1410] 杨晔. Study of the electrode tool wear and the probe tip sharpening phenomena during the nanoscale STM electric discharge lithography of the bulk HOPG surface. JOURNAL OF MATERIALS PROCESSING TECHNOLOGY,2016,234(/):150-157.
  • [1411] 杨晔. Nanoscale electric discharge-induced FLG peeling off during the STM electric lithography. MICRO & NANO LETTERS,2017,12(10):793-798.
  • [1412] 杨晔. Investigation of the transition from local anodic oxidation to electrical breakdown during nanoscale atomic force microscopy electric lithography of highly oriented pyrolytic graphite. MICROSCOPY AND MICROANALYSIS,2016,22(2):432-439.
  • [1413] 杨晔. Fabrication of nanoscale to microscale 2.5D square patterns on metallic films by the coupling AFM lithography. Journal of Manufacturing Processes,2019,46(/):129-138.
  • [1414] 王飞,杨晔. 基于Stacking多模型融合的IGBT器件寿命的机器学习预测算法研究. 计算机科学,2022,49(6A):784-789.
  • [1415] 王飞,杨晔. 基于Stacking多模型融合的IGBT器件寿命的机器学习预测算法研究. 计算机科学,2022,49(6A):784-789.
  • [1416] 杨晔. Nanoscale electric discharge-induced FLG peeling off during the STM electric lithography. MICRO & NANO LETTERS,2017,12(10):793-798.
  • [1417] 杨晔. Investigation of the transition from local anodic oxidation to electrical breakdown during nanoscale atomic force microscopy electric lithography of highly oriented pyrolytic graphite. MICROSCOPY AND MICROANALYSIS,2016,22(2):432-439.
  • [1418] 杨晔. Interpolation and difference optimized machine learning model for accurate prediction of silicon etching depth with small sample dataset. JOURNAL OF VACUUM SCIENCE & TECHNOLOGY B,2023,41(2023):052602.
  • [1419] 杨晔. Nanoscale electric discharge-induced FLG peeling off during the STM electric lithography. MICRO & NANO LETTERS,2017,12(10):793-798.
  • [1420] 杨晔. Direct etching of nano/microscale patterns with both few-layer graphene and high-depth graphite structures by the raster STM electric lithography in the ambient conditions. JOURNAL OF MICROSCOPY,2023,292(1):37-46.
  • [1421] 杨晔. Investigation of the transition from local anodic oxidation to electrical breakdown during nanoscale atomic force microscopy electric lithography of highly oriented pyrolytic graphite. MICROSCOPY AND MICROANALYSIS,2016,22(2):432-439.
  • [1422] 杨晔. Fabrication of flexible microheater with tunable heating capabilities by direct laser writing and selective electrodeposition. Journal of Manufacturing Processes,2022,74(2022):88-99.
  • [1423] 杨晔. Investigation of the transition from local anodic oxidation to electrical breakdown during nanoscale atomic force microscopy electric lithography of highly oriented pyrolytic graphite. MICROSCOPY AND MICROANALYSIS,2016,22(2):432-439.
  • [1424] 杨晔. Direct etching of nano/microscale patterns with both few-layer graphene and high-depth graphite structures by the raster STM electric lithography in the ambient conditions. JOURNAL OF MICROSCOPY,2023,292(1):37-46.
  • [1425] 杨晔. Comparison of the bias voltage effect and the force effect during the nanoscale AFM electric lithography on the copper thin film surface. SCANNING,2016,38(5):412–420.
  • [1426] 杨晔. Fabrication of nanoscale to microscale 2.5D square patterns on metallic films by the coupling AFM lithography. Journal of Manufacturing Processes,2019,46(/):129-138.
  • [1427] 杨晔. Fabrication of flexible microheater with tunable heating capabilities by direct laser writing and selective electrodeposition. Journal of Manufacturing Processes,2022,74(2022):88-99.
  • [1428] 杨晔. Direct etching of nano/microscale patterns with both few-layer graphene and high-depth graphite structures by the raster STM electric lithography in the ambient conditions. JOURNAL OF MICROSCOPY,2023,292(1):37-46.
  • [1429] 杨晔. Investigation of the transition from local anodic oxidation to electrical breakdown during nanoscale atomic force microscopy electric lithography of highly oriented pyrolytic graphite. MICROSCOPY AND MICROANALYSIS,2016,22(2):432-439.
  • [1430] 杨晔. Interpolation and difference optimized machine learning model for accurate prediction of silicon etching depth with small sample dataset. JOURNAL OF VACUUM SCIENCE & TECHNOLOGY B,2023,41(2023):052602.
  • [1431] 杨晔. Investigation of the transition from local anodic oxidation to electrical breakdown during nanoscale atomic force microscopy electric lithography of highly oriented pyrolytic graphite. MICROSCOPY AND MICROANALYSIS,2016,22(2):432-439.
  • [1432] 杨晔. Interpolation and difference optimized machine learning model for accurate prediction of silicon etching depth with small sample dataset. JOURNAL OF VACUUM SCIENCE & TECHNOLOGY B,2023,41(2023):052602.
  • [1433] 杨晔. Fabrication of nanoscale to microscale 2.5D square patterns on metallic films by the coupling AFM lithography. Journal of Manufacturing Processes,2019,46(/):129-138.
  • [1434] 杨晔. Study of the electrode tool wear and the probe tip sharpening phenomena during the nanoscale STM electric discharge lithography of the bulk HOPG surface. JOURNAL OF MATERIALS PROCESSING TECHNOLOGY,2016,234(/):150-157.
  • [1435] 杨晔. Nanoscale electric discharge-induced FLG peeling off during the STM electric lithography. MICRO & NANO LETTERS,2017,12(10):793-798.
  • [1436] 杨晔. Nanoscale electric discharge-induced FLG peeling off during the STM electric lithography. MICRO & NANO LETTERS,2017,12(10):793-798.
  • [1437] 杨晔. Fabrication of flexible microheater with tunable heating capabilities by direct laser writing and selective electrodeposition. Journal of Manufacturing Processes,2022,74(2022):88-99.
  • [1438] 杨晔. Fabrication of nanoscale to microscale 2.5D square patterns on metallic films by the coupling AFM lithography. Journal of Manufacturing Processes,2019,46(/):129-138.
  • [1439] 杨晔. Fabrication of flexible microheater with tunable heating capabilities by direct laser writing and selective electrodeposition. Journal of Manufacturing Processes,2022,74(2022):88-99.
  • [1440] 杨晔. Direct etching of nano/microscale patterns with both few-layer graphene and high-depth graphite structures by the raster STM electric lithography in the ambient conditions. JOURNAL OF MICROSCOPY,2023,292(1):37-46.
  • [1441] 杨晔. Fabrication of nanoscale to microscale 2.5D square patterns on metallic films by the coupling AFM lithography. Journal of Manufacturing Processes,2019,46(/):129-138.
  • [1442] 杨晔. Fabrication of flexible microheater with tunable heating capabilities by direct laser writing and selective electrodeposition. Journal of Manufacturing Processes,2022,74(2022):88-99.
  • [1443] 杨晔. Direct etching of nano/microscale patterns with both few-layer graphene and high-depth graphite structures by the raster STM electric lithography in the ambient conditions. JOURNAL OF MICROSCOPY,2023,292(1):37-46.
  • [1444] 杨晔. Direct etching of nano/microscale patterns with both few-layer graphene and high-depth graphite structures by the raster STM electric lithography in the ambient conditions. JOURNAL OF MICROSCOPY,2023,292(1):37-46.
  • [1445] 杨晔. Nanoscale electric discharge-induced FLG peeling off during the STM electric lithography. MICRO & NANO LETTERS,2017,12(10):793-798.
  • [1446] 杨晔. Direct etching of nano/microscale patterns with both few-layer graphene and high-depth graphite structures by the raster STM electric lithography in the ambient conditions. JOURNAL OF MICROSCOPY,2023,292(1):37-46.
  • [1447] 杨晔. Comparison of the bias voltage effect and the force effect during the nanoscale AFM electric lithography on the copper thin film surface. SCANNING,2016,38(5):412–420.
  • [1448] 杨晔. Nanoscale electric discharge-induced FLG peeling off during the STM electric lithography. MICRO & NANO LETTERS,2017,12(10):793-798.
  • [1449] 王飞,杨晔. 基于Stacking多模型融合的IGBT器件寿命的机器学习预测算法研究. 计算机科学,2022,49(6A):784-789.
  • [1450] 杨晔. Direct etching of nano/microscale patterns with both few-layer graphene and high-depth graphite structures by the raster STM electric lithography in the ambient conditions. JOURNAL OF MICROSCOPY,2023,292(1):37-46.
  • [1451] 杨晔. Comparison of the bias voltage effect and the force effect during the nanoscale AFM electric lithography on the copper thin film surface. SCANNING,2016,38(5):412–420.
  • [1452] 杨晔. Study of the electrode tool wear and the probe tip sharpening phenomena during the nanoscale STM electric discharge lithography of the bulk HOPG surface. JOURNAL OF MATERIALS PROCESSING TECHNOLOGY,2016,234(/):150-157.
  • [1453] 杨晔. Investigation of the transition from local anodic oxidation to electrical breakdown during nanoscale atomic force microscopy electric lithography of highly oriented pyrolytic graphite. MICROSCOPY AND MICROANALYSIS,2016,22(2):432-439.
  • [1454] 杨晔. Fabrication of nanoscale to microscale 2.5D square patterns on metallic films by the coupling AFM lithography. Journal of Manufacturing Processes,2019,46(/):129-138.
  • [1455] 杨晔. Fabrication of flexible microheater with tunable heating capabilities by direct laser writing and selective electrodeposition. Journal of Manufacturing Processes,2022,74(2022):88-99.
  • [1456] 杨晔. Direct etching of nano/microscale patterns with both few-layer graphene and high-depth graphite structures by the raster STM electric lithography in the ambient conditions. JOURNAL OF MICROSCOPY,2023,292(1):37-46.
  • [1457] 王飞,杨晔. 基于Stacking多模型融合的IGBT器件寿命的机器学习预测算法研究. 计算机科学,2022,49(6A):784-789.
  • [1458] 杨晔. Interpolation and difference optimized machine learning model for accurate prediction of silicon etching depth with small sample dataset. JOURNAL OF VACUUM SCIENCE & TECHNOLOGY B,2023,41(2023):052602.
  • [1459] 杨晔. Fabrication of nanoscale to microscale 2.5D square patterns on metallic films by the coupling AFM lithography. Journal of Manufacturing Processes,2019,46(/):129-138.
  • [1460] 王飞,杨晔. 基于Stacking多模型融合的IGBT器件寿命的机器学习预测算法研究. 计算机科学,2022,49(6A):784-789.
  • [1461] 杨晔. Study of the electrode tool wear and the probe tip sharpening phenomena during the nanoscale STM electric discharge lithography of the bulk HOPG surface. JOURNAL OF MATERIALS PROCESSING TECHNOLOGY,2016,234(/):150-157.
  • [1462] 杨晔. Interpolation and difference optimized machine learning model for accurate prediction of silicon etching depth with small sample dataset. JOURNAL OF VACUUM SCIENCE & TECHNOLOGY B,2023,41(2023):052602.
  • [1463] 杨晔. Fabrication of nanoscale to microscale 2.5D square patterns on metallic films by the coupling AFM lithography. Journal of Manufacturing Processes,2019,46(/):129-138.
  • [1464] 杨晔. Study of the electrode tool wear and the probe tip sharpening phenomena during the nanoscale STM electric discharge lithography of the bulk HOPG surface. JOURNAL OF MATERIALS PROCESSING TECHNOLOGY,2016,234(/):150-157.
  • [1465] 杨晔. Nanoscale electric discharge-induced FLG peeling off during the STM electric lithography. MICRO & NANO LETTERS,2017,12(10):793-798.
  • [1466] 杨晔. Investigation of the transition from local anodic oxidation to electrical breakdown during nanoscale atomic force microscopy electric lithography of highly oriented pyrolytic graphite. MICROSCOPY AND MICROANALYSIS,2016,22(2):432-439.
  • [1467] 杨晔. Interpolation and difference optimized machine learning model for accurate prediction of silicon etching depth with small sample dataset. JOURNAL OF VACUUM SCIENCE & TECHNOLOGY B,2023,41(2023):052602.
  • [1468] 杨晔. Fabrication of flexible microheater with tunable heating capabilities by direct laser writing and selective electrodeposition. Journal of Manufacturing Processes,2022,74(2022):88-99.
  • [1469] 杨晔. Comparison of the bias voltage effect and the force effect during the nanoscale AFM electric lithography on the copper thin film surface. SCANNING,2016,38(5):412–420.
  • [1470] 杨晔. Investigation of the transition from local anodic oxidation to electrical breakdown during nanoscale atomic force microscopy electric lithography of highly oriented pyrolytic graphite. MICROSCOPY AND MICROANALYSIS,2016,22(2):432-439.
  • [1471] 杨晔. Interpolation and difference optimized machine learning model for accurate prediction of silicon etching depth with small sample dataset. JOURNAL OF VACUUM SCIENCE & TECHNOLOGY B,2023,41(2023):052602.
  • [1472] 杨晔. Fabrication of nanoscale to microscale 2.5D square patterns on metallic films by the coupling AFM lithography. Journal of Manufacturing Processes,2019,46(/):129-138.
  • [1473] 杨晔. Fabrication of flexible microheater with tunable heating capabilities by direct laser writing and selective electrodeposition. Journal of Manufacturing Processes,2022,74(2022):88-99.
  • [1474] 杨晔. Direct etching of nano/microscale patterns with both few-layer graphene and high-depth graphite structures by the raster STM electric lithography in the ambient conditions. JOURNAL OF MICROSCOPY,2023,292(1):37-46.
  • [1475] 杨晔. Comparison of the bias voltage effect and the force effect during the nanoscale AFM electric lithography on the copper thin film surface. SCANNING,2016,38(5):412–420.
  • [1476] 王飞,杨晔. 基于Stacking多模型融合的IGBT器件寿命的机器学习预测算法研究. 计算机科学,2022,49(6A):784-789.
  • [1477] 杨晔. Direct etching of nano/microscale patterns with both few-layer graphene and high-depth graphite structures by the raster STM electric lithography in the ambient conditions. JOURNAL OF MICROSCOPY,2023,292(1):37-46.
  • [1478] 杨晔. Study of the electrode tool wear and the probe tip sharpening phenomena during the nanoscale STM electric discharge lithography of the bulk HOPG surface. JOURNAL OF MATERIALS PROCESSING TECHNOLOGY,2016,234(/):150-157.
  • [1479] 杨晔. Fabrication of nanoscale to microscale 2.5D square patterns on metallic films by the coupling AFM lithography. Journal of Manufacturing Processes,2019,46(/):129-138.
  • [1480] 王飞,杨晔. 基于Stacking多模型融合的IGBT器件寿命的机器学习预测算法研究. 计算机科学,2022,49(6A):784-789.
  • [1481] 杨晔. Interpolation and difference optimized machine learning model for accurate prediction of silicon etching depth with small sample dataset. JOURNAL OF VACUUM SCIENCE & TECHNOLOGY B,2023,41(2023):052602.
  • [1482] 杨晔. Fabrication of flexible microheater with tunable heating capabilities by direct laser writing and selective electrodeposition. Journal of Manufacturing Processes,2022,74(2022):88-99.
  • [1483] 杨晔. Nanoscale electric discharge-induced FLG peeling off during the STM electric lithography. MICRO & NANO LETTERS,2017,12(10):793-798.
  • [1484] 杨晔. Interpolation and difference optimized machine learning model for accurate prediction of silicon etching depth with small sample dataset. JOURNAL OF VACUUM SCIENCE & TECHNOLOGY B,2023,41(2023):052602.
  • [1485] 杨晔. Comparison of the bias voltage effect and the force effect during the nanoscale AFM electric lithography on the copper thin film surface. SCANNING,2016,38(5):412–420.
  • [1486] 杨晔. Fabrication of nanoscale to microscale 2.5D square patterns on metallic films by the coupling AFM lithography. Journal of Manufacturing Processes,2019,46(/):129-138.
  • [1487] 杨晔. Fabrication of flexible microheater with tunable heating capabilities by direct laser writing and selective electrodeposition. Journal of Manufacturing Processes,2022,74(2022):88-99.
  • [1488] 杨晔. Comparison of the bias voltage effect and the force effect during the nanoscale AFM electric lithography on the copper thin film surface. SCANNING,2016,38(5):412–420.
  • [1489] 杨晔. Comparison of the bias voltage effect and the force effect during the nanoscale AFM electric lithography on the copper thin film surface. SCANNING,2016,38(5):412–420.
  • [1490] 杨晔. Nanoscale electric discharge-induced FLG peeling off during the STM electric lithography. MICRO & NANO LETTERS,2017,12(10):793-798.
  • [1491] 杨晔. Study of the electrode tool wear and the probe tip sharpening phenomena during the nanoscale STM electric discharge lithography of the bulk HOPG surface. JOURNAL OF MATERIALS PROCESSING TECHNOLOGY,2016,234(/):150-157.
  • [1492] 杨晔. Investigation of the transition from local anodic oxidation to electrical breakdown during nanoscale atomic force microscopy electric lithography of highly oriented pyrolytic graphite. MICROSCOPY AND MICROANALYSIS,2016,22(2):432-439.
  • [1493] 杨晔. Fabrication of nanoscale to microscale 2.5D square patterns on metallic films by the coupling AFM lithography. Journal of Manufacturing Processes,2019,46(/):129-138.
  • [1494] 杨晔. Study of the electrode tool wear and the probe tip sharpening phenomena during the nanoscale STM electric discharge lithography of the bulk HOPG surface. JOURNAL OF MATERIALS PROCESSING TECHNOLOGY,2016,234(/):150-157.
  • [1495] 杨晔. Nanoscale electric discharge-induced FLG peeling off during the STM electric lithography. MICRO & NANO LETTERS,2017,12(10):793-798.
  • [1496] 杨晔. Fabrication of flexible microheater with tunable heating capabilities by direct laser writing and selective electrodeposition. Journal of Manufacturing Processes,2022,74(2022):88-99.
  • [1497] 杨晔. Direct etching of nano/microscale patterns with both few-layer graphene and high-depth graphite structures by the raster STM electric lithography in the ambient conditions. JOURNAL OF MICROSCOPY,2023,292(1):37-46.
  • [1498] 杨晔. Comparison of the bias voltage effect and the force effect during the nanoscale AFM electric lithography on the copper thin film surface. SCANNING,2016,38(5):412–420.
  • [1499] 杨晔. Interpolation and difference optimized machine learning model for accurate prediction of silicon etching depth with small sample dataset. JOURNAL OF VACUUM SCIENCE & TECHNOLOGY B,2023,41(2023):052602.
  • [1500] 杨晔. Interpolation and difference optimized machine learning model for accurate prediction of silicon etching depth with small sample dataset. JOURNAL OF VACUUM SCIENCE & TECHNOLOGY B,2023,41(2023):052602.
  • [1501] 杨晔. Fabrication of nanoscale to microscale 2.5D square patterns on metallic films by the coupling AFM lithography. Journal of Manufacturing Processes,2019,46(/):129-138.
  • [1502] 杨晔. Fabrication of flexible microheater with tunable heating capabilities by direct laser writing and selective electrodeposition. Journal of Manufacturing Processes,2022,74(2022):88-99.
  • [1503] 王飞,杨晔. 基于Stacking多模型融合的IGBT器件寿命的机器学习预测算法研究. 计算机科学,2022,49(6A):784-789.
  • [1504] 王飞,杨晔. 基于Stacking多模型融合的IGBT器件寿命的机器学习预测算法研究. 计算机科学,2022,49(6A):784-789.
  • [1505] 杨晔. Fabrication of nanoscale to microscale 2.5D square patterns on metallic films by the coupling AFM lithography. Journal of Manufacturing Processes,2019,46(/):129-138.
  • [1506] 杨晔. Nanoscale electric discharge-induced FLG peeling off during the STM electric lithography. MICRO & NANO LETTERS,2017,12(10):793-798.
  • [1507] 杨晔. Investigation of the transition from local anodic oxidation to electrical breakdown during nanoscale atomic force microscopy electric lithography of highly oriented pyrolytic graphite. MICROSCOPY AND MICROANALYSIS,2016,22(2):432-439.
  • [1508] 杨晔. Interpolation and difference optimized machine learning model for accurate prediction of silicon etching depth with small sample dataset. JOURNAL OF VACUUM SCIENCE & TECHNOLOGY B,2023,41(2023):052602.
  • [1509] 杨晔. Study of the electrode tool wear and the probe tip sharpening phenomena during the nanoscale STM electric discharge lithography of the bulk HOPG surface. JOURNAL OF MATERIALS PROCESSING TECHNOLOGY,2016,234(/):150-157.
  • [1510] 杨晔. Fabrication of nanoscale to microscale 2.5D square patterns on metallic films by the coupling AFM lithography. Journal of Manufacturing Processes,2019,46(/):129-138.
  • [1511] 杨晔. Nanoscale electric discharge-induced FLG peeling off during the STM electric lithography. MICRO & NANO LETTERS,2017,12(10):793-798.
  • [1512] 杨晔. Fabrication of flexible microheater with tunable heating capabilities by direct laser writing and selective electrodeposition. Journal of Manufacturing Processes,2022,74(2022):88-99.
  • [1513] 杨晔. Fabrication of nanoscale to microscale 2.5D square patterns on metallic films by the coupling AFM lithography. Journal of Manufacturing Processes,2019,46(/):129-138.
  • [1514] 杨晔. Direct etching of nano/microscale patterns with both few-layer graphene and high-depth graphite structures by the raster STM electric lithography in the ambient conditions. JOURNAL OF MICROSCOPY,2023,292(1):37-46.
  • [1515] 杨晔. Investigation of the transition from local anodic oxidation to electrical breakdown during nanoscale atomic force microscopy electric lithography of highly oriented pyrolytic graphite. MICROSCOPY AND MICROANALYSIS,2016,22(2):432-439.
  • [1516] 杨晔. Interpolation and difference optimized machine learning model for accurate prediction of silicon etching depth with small sample dataset. JOURNAL OF VACUUM SCIENCE & TECHNOLOGY B,2023,41(2023):052602.
  • [1517] 王飞,杨晔. 基于Stacking多模型融合的IGBT器件寿命的机器学习预测算法研究. 计算机科学,2022,49(6A):784-789.
  • [1518] 杨晔. Nanoscale electric discharge-induced FLG peeling off during the STM electric lithography. MICRO & NANO LETTERS,2017,12(10):793-798.
  • [1519] 杨晔. Investigation of the transition from local anodic oxidation to electrical breakdown during nanoscale atomic force microscopy electric lithography of highly oriented pyrolytic graphite. MICROSCOPY AND MICROANALYSIS,2016,22(2):432-439.
  • [1520] 王飞,杨晔. 基于Stacking多模型融合的IGBT器件寿命的机器学习预测算法研究. 计算机科学,2022,49(6A):784-789.
  • [1521] 杨晔. Study of the electrode tool wear and the probe tip sharpening phenomena during the nanoscale STM electric discharge lithography of the bulk HOPG surface. JOURNAL OF MATERIALS PROCESSING TECHNOLOGY,2016,234(/):150-157.
  • [1522] 杨晔. Comparison of the bias voltage effect and the force effect during the nanoscale AFM electric lithography on the copper thin film surface. SCANNING,2016,38(5):412–420.
  • [1523] 杨晔. Study of the electrode tool wear and the probe tip sharpening phenomena during the nanoscale STM electric discharge lithography of the bulk HOPG surface. JOURNAL OF MATERIALS PROCESSING TECHNOLOGY,2016,234(/):150-157.
  • [1524] 杨晔. Nanoscale electric discharge-induced FLG peeling off during the STM electric lithography. MICRO & NANO LETTERS,2017,12(10):793-798.
  • [1525] 杨晔. Investigation of the transition from local anodic oxidation to electrical breakdown during nanoscale atomic force microscopy electric lithography of highly oriented pyrolytic graphite. MICROSCOPY AND MICROANALYSIS,2016,22(2):432-439.
  • [1526] 杨晔. Fabrication of flexible microheater with tunable heating capabilities by direct laser writing and selective electrodeposition. Journal of Manufacturing Processes,2022,74(2022):88-99.
  • [1527] 杨晔. Direct etching of nano/microscale patterns with both few-layer graphene and high-depth graphite structures by the raster STM electric lithography in the ambient conditions. JOURNAL OF MICROSCOPY,2023,292(1):37-46.
  • [1528] 杨晔. Direct etching of nano/microscale patterns with both few-layer graphene and high-depth graphite structures by the raster STM electric lithography in the ambient conditions. JOURNAL OF MICROSCOPY,2023,292(1):37-46.
  • [1529] 杨晔. Study of the electrode tool wear and the probe tip sharpening phenomena during the nanoscale STM electric discharge lithography of the bulk HOPG surface. JOURNAL OF MATERIALS PROCESSING TECHNOLOGY,2016,234(/):150-157.
  • [1530] 杨晔. Fabrication of nanoscale to microscale 2.5D square patterns on metallic films by the coupling AFM lithography. Journal of Manufacturing Processes,2019,46(/):129-138.
  • [1531] 杨晔. Fabrication of flexible microheater with tunable heating capabilities by direct laser writing and selective electrodeposition. Journal of Manufacturing Processes,2022,74(2022):88-99.
  • [1532] 杨晔. Direct etching of nano/microscale patterns with both few-layer graphene and high-depth graphite structures by the raster STM electric lithography in the ambient conditions. JOURNAL OF MICROSCOPY,2023,292(1):37-46.
  • [1533] 杨晔. Investigation of the transition from local anodic oxidation to electrical breakdown during nanoscale atomic force microscopy electric lithography of highly oriented pyrolytic graphite. MICROSCOPY AND MICROANALYSIS,2016,22(2):432-439.
  • [1534] 杨晔. Study of the electrode tool wear and the probe tip sharpening phenomena during the nanoscale STM electric discharge lithography of the bulk HOPG surface. JOURNAL OF MATERIALS PROCESSING TECHNOLOGY,2016,234(/):150-157.
  • [1535] 杨晔. Fabrication of flexible microheater with tunable heating capabilities by direct laser writing and selective electrodeposition. Journal of Manufacturing Processes,2022,74(2022):88-99.
  • [1536] 杨晔. Nanoscale electric discharge-induced FLG peeling off during the STM electric lithography. MICRO & NANO LETTERS,2017,12(10):793-798.
  • [1537] 杨晔. Fabrication of nanoscale to microscale 2.5D square patterns on metallic films by the coupling AFM lithography. Journal of Manufacturing Processes,2019,46(/):129-138.
  • [1538] 杨晔. Fabrication of flexible microheater with tunable heating capabilities by direct laser writing and selective electrodeposition. Journal of Manufacturing Processes,2022,74(2022):88-99.
  • [1539] 杨晔. Direct etching of nano/microscale patterns with both few-layer graphene and high-depth graphite structures by the raster STM electric lithography in the ambient conditions. JOURNAL OF MICROSCOPY,2023,292(1):37-46.
  • [1540] 杨晔. Nanoscale electric discharge-induced FLG peeling off during the STM electric lithography. MICRO & NANO LETTERS,2017,12(10):793-798.
  • [1541] 王飞,杨晔. 基于Stacking多模型融合的IGBT器件寿命的机器学习预测算法研究. 计算机科学,2022,49(6A):784-789.
  • [1542] 杨晔. Study of the electrode tool wear and the probe tip sharpening phenomena during the nanoscale STM electric discharge lithography of the bulk HOPG surface. JOURNAL OF MATERIALS PROCESSING TECHNOLOGY,2016,234(/):150-157.
  • [1543] 杨晔. Fabrication of nanoscale to microscale 2.5D square patterns on metallic films by the coupling AFM lithography. Journal of Manufacturing Processes,2019,46(/):129-138.
  • [1544] 王飞,杨晔. 基于Stacking多模型融合的IGBT器件寿命的机器学习预测算法研究. 计算机科学,2022,49(6A):784-789.
  • [1545] 杨晔. Fabrication of nanoscale to microscale 2.5D square patterns on metallic films by the coupling AFM lithography. Journal of Manufacturing Processes,2019,46(/):129-138.
  • [1546] 杨晔. Fabrication of flexible microheater with tunable heating capabilities by direct laser writing and selective electrodeposition. Journal of Manufacturing Processes,2022,74(2022):88-99.
  • [1547] 杨晔. Direct etching of nano/microscale patterns with both few-layer graphene and high-depth graphite structures by the raster STM electric lithography in the ambient conditions. JOURNAL OF MICROSCOPY,2023,292(1):37-46.
  • [1548] 杨晔. Study of the electrode tool wear and the probe tip sharpening phenomena during the nanoscale STM electric discharge lithography of the bulk HOPG surface. JOURNAL OF MATERIALS PROCESSING TECHNOLOGY,2016,234(/):150-157.
  • [1549] 杨晔. Investigation of the transition from local anodic oxidation to electrical breakdown during nanoscale atomic force microscopy electric lithography of highly oriented pyrolytic graphite. MICROSCOPY AND MICROANALYSIS,2016,22(2):432-439.
  • [1550] 杨晔. Interpolation and difference optimized machine learning model for accurate prediction of silicon etching depth with small sample dataset. JOURNAL OF VACUUM SCIENCE & TECHNOLOGY B,2023,41(2023):052602.
  • [1551] 杨晔. Direct etching of nano/microscale patterns with both few-layer graphene and high-depth graphite structures by the raster STM electric lithography in the ambient conditions. JOURNAL OF MICROSCOPY,2023,292(1):37-46.
  • [1552] 杨晔. Nanoscale electric discharge-induced FLG peeling off during the STM electric lithography. MICRO & NANO LETTERS,2017,12(10):793-798.
  • [1553] 王飞,杨晔. 基于Stacking多模型融合的IGBT器件寿命的机器学习预测算法研究. 计算机科学,2022,49(6A):784-789.
  • [1554] 杨晔. Fabrication of flexible microheater with tunable heating capabilities by direct laser writing and selective electrodeposition. Journal of Manufacturing Processes,2022,74(2022):88-99.
  • [1555] 杨晔. Direct etching of nano/microscale patterns with both few-layer graphene and high-depth graphite structures by the raster STM electric lithography in the ambient conditions. JOURNAL OF MICROSCOPY,2023,292(1):37-46.
  • [1556] 杨晔. Comparison of the bias voltage effect and the force effect during the nanoscale AFM electric lithography on the copper thin film surface. SCANNING,2016,38(5):412–420.
  • [1557] 杨晔. Fabrication of nanoscale to microscale 2.5D square patterns on metallic films by the coupling AFM lithography. Journal of Manufacturing Processes,2019,46(/):129-138.
  • [1558] 杨晔. Fabrication of flexible microheater with tunable heating capabilities by direct laser writing and selective electrodeposition. Journal of Manufacturing Processes,2022,74(2022):88-99.
  • [1559] 杨晔. Direct etching of nano/microscale patterns with both few-layer graphene and high-depth graphite structures by the raster STM electric lithography in the ambient conditions. JOURNAL OF MICROSCOPY,2023,292(1):37-46.
  • [1560] 杨晔. Comparison of the bias voltage effect and the force effect during the nanoscale AFM electric lithography on the copper thin film surface. SCANNING,2016,38(5):412–420.
  • [1561] 王飞,杨晔. 基于Stacking多模型融合的IGBT器件寿命的机器学习预测算法研究. 计算机科学,2022,49(6A):784-789.
  • [1562] 杨晔. Interpolation and difference optimized machine learning model for accurate prediction of silicon etching depth with small sample dataset. JOURNAL OF VACUUM SCIENCE & TECHNOLOGY B,2023,41(2023):052602.
  • [1563] 杨晔. Fabrication of nanoscale to microscale 2.5D square patterns on metallic films by the coupling AFM lithography. Journal of Manufacturing Processes,2019,46(/):129-138.
  • [1564] 杨晔. Fabrication of flexible microheater with tunable heating capabilities by direct laser writing and selective electrodeposition. Journal of Manufacturing Processes,2022,74(2022):88-99.
  • [1565] 杨晔. Study of the electrode tool wear and the probe tip sharpening phenomena during the nanoscale STM electric discharge lithography of the bulk HOPG surface. JOURNAL OF MATERIALS PROCESSING TECHNOLOGY,2016,234(/):150-157.
  • [1566] 杨晔. Investigation of the transition from local anodic oxidation to electrical breakdown during nanoscale atomic force microscopy electric lithography of highly oriented pyrolytic graphite. MICROSCOPY AND MICROANALYSIS,2016,22(2):432-439.
  • [1567] 王飞,杨晔. 基于Stacking多模型融合的IGBT器件寿命的机器学习预测算法研究. 计算机科学,2022,49(6A):784-789.
  • [1568] 杨晔. Study of the electrode tool wear and the probe tip sharpening phenomena during the nanoscale STM electric discharge lithography of the bulk HOPG surface. JOURNAL OF MATERIALS PROCESSING TECHNOLOGY,2016,234(/):150-157.
  • [1569] 杨晔. Investigation of the transition from local anodic oxidation to electrical breakdown during nanoscale atomic force microscopy electric lithography of highly oriented pyrolytic graphite. MICROSCOPY AND MICROANALYSIS,2016,22(2):432-439.
  • [1570] 杨晔. Interpolation and difference optimized machine learning model for accurate prediction of silicon etching depth with small sample dataset. JOURNAL OF VACUUM SCIENCE & TECHNOLOGY B,2023,41(2023):052602.
  • [1571] 杨晔. Nanoscale electric discharge-induced FLG peeling off during the STM electric lithography. MICRO & NANO LETTERS,2017,12(10):793-798.
  • [1572] 杨晔. Fabrication of flexible microheater with tunable heating capabilities by direct laser writing and selective electrodeposition. Journal of Manufacturing Processes,2022,74(2022):88-99.
  • [1573] 杨晔. Direct etching of nano/microscale patterns with both few-layer graphene and high-depth graphite structures by the raster STM electric lithography in the ambient conditions. JOURNAL OF MICROSCOPY,2023,292(1):37-46.
  • [1574] 杨晔. Study of the electrode tool wear and the probe tip sharpening phenomena during the nanoscale STM electric discharge lithography of the bulk HOPG surface. JOURNAL OF MATERIALS PROCESSING TECHNOLOGY,2016,234(/):150-157.
  • [1575] 杨晔. Comparison of the bias voltage effect and the force effect during the nanoscale AFM electric lithography on the copper thin film surface. SCANNING,2016,38(5):412–420.
  • [1576] 杨晔. Study of the electrode tool wear and the probe tip sharpening phenomena during the nanoscale STM electric discharge lithography of the bulk HOPG surface. JOURNAL OF MATERIALS PROCESSING TECHNOLOGY,2016,234(/):150-157.
  • [1577] 杨晔. Comparison of the bias voltage effect and the force effect during the nanoscale AFM electric lithography on the copper thin film surface. SCANNING,2016,38(5):412–420.
  • [1578] 杨晔. Direct etching of nano/microscale patterns with both few-layer graphene and high-depth graphite structures by the raster STM electric lithography in the ambient conditions. JOURNAL OF MICROSCOPY,2023,292(1):37-46.
  • [1579] 杨晔. Interpolation and difference optimized machine learning model for accurate prediction of silicon etching depth with small sample dataset. JOURNAL OF VACUUM SCIENCE & TECHNOLOGY B,2023,41(2023):052602.
  • [1580] 杨晔. Fabrication of nanoscale to microscale 2.5D square patterns on metallic films by the coupling AFM lithography. Journal of Manufacturing Processes,2019,46(/):129-138.
  • [1581] 王飞,杨晔. 基于Stacking多模型融合的IGBT器件寿命的机器学习预测算法研究. 计算机科学,2022,49(6A):784-789.
  • [1582] 杨晔. Study of the electrode tool wear and the probe tip sharpening phenomena during the nanoscale STM electric discharge lithography of the bulk HOPG surface. JOURNAL OF MATERIALS PROCESSING TECHNOLOGY,2016,234(/):150-157.
  • [1583] 杨晔. Nanoscale electric discharge-induced FLG peeling off during the STM electric lithography. MICRO & NANO LETTERS,2017,12(10):793-798.
  • [1584] 杨晔. Nanoscale electric discharge-induced FLG peeling off during the STM electric lithography. MICRO & NANO LETTERS,2017,12(10):793-798.
  • [1585] 杨晔. Interpolation and difference optimized machine learning model for accurate prediction of silicon etching depth with small sample dataset. JOURNAL OF VACUUM SCIENCE & TECHNOLOGY B,2023,41(2023):052602.
  • [1586] 杨晔. Interpolation and difference optimized machine learning model for accurate prediction of silicon etching depth with small sample dataset. JOURNAL OF VACUUM SCIENCE & TECHNOLOGY B,2023,41(2023):052602.
  • [1587] 杨晔. Fabrication of nanoscale to microscale 2.5D square patterns on metallic films by the coupling AFM lithography. Journal of Manufacturing Processes,2019,46(/):129-138.
  • [1588] 杨晔. Fabrication of flexible microheater with tunable heating capabilities by direct laser writing and selective electrodeposition. Journal of Manufacturing Processes,2022,74(2022):88-99.
  • [1589] 杨晔. Study of the electrode tool wear and the probe tip sharpening phenomena during the nanoscale STM electric discharge lithography of the bulk HOPG surface. JOURNAL OF MATERIALS PROCESSING TECHNOLOGY,2016,234(/):150-157.
  • [1590] 杨晔. Nanoscale electric discharge-induced FLG peeling off during the STM electric lithography. MICRO & NANO LETTERS,2017,12(10):793-798.
  • [1591] 杨晔. Investigation of the transition from local anodic oxidation to electrical breakdown during nanoscale atomic force microscopy electric lithography of highly oriented pyrolytic graphite. MICROSCOPY AND MICROANALYSIS,2016,22(2):432-439.
  • [1592] 杨晔. Study of the electrode tool wear and the probe tip sharpening phenomena during the nanoscale STM electric discharge lithography of the bulk HOPG surface. JOURNAL OF MATERIALS PROCESSING TECHNOLOGY,2016,234(/):150-157.
  • [1593] 杨晔. Investigation of the transition from local anodic oxidation to electrical breakdown during nanoscale atomic force microscopy electric lithography of highly oriented pyrolytic graphite. MICROSCOPY AND MICROANALYSIS,2016,22(2):432-439.
  • [1594] 杨晔. Study of the electrode tool wear and the probe tip sharpening phenomena during the nanoscale STM electric discharge lithography of the bulk HOPG surface. JOURNAL OF MATERIALS PROCESSING TECHNOLOGY,2016,234(/):150-157.
  • [1595] 杨晔. Nanoscale electric discharge-induced FLG peeling off during the STM electric lithography. MICRO & NANO LETTERS,2017,12(10):793-798.
  • [1596] 杨晔. Study of the electrode tool wear and the probe tip sharpening phenomena during the nanoscale STM electric discharge lithography of the bulk HOPG surface. JOURNAL OF MATERIALS PROCESSING TECHNOLOGY,2016,234(/):150-157.
  • [1597] 杨晔. Investigation of the transition from local anodic oxidation to electrical breakdown during nanoscale atomic force microscopy electric lithography of highly oriented pyrolytic graphite. MICROSCOPY AND MICROANALYSIS,2016,22(2):432-439.
  • [1598] 杨晔. Fabrication of nanoscale to microscale 2.5D square patterns on metallic films by the coupling AFM lithography. Journal of Manufacturing Processes,2019,46(/):129-138.
  • [1599] 杨晔. Study of the electrode tool wear and the probe tip sharpening phenomena during the nanoscale STM electric discharge lithography of the bulk HOPG surface. JOURNAL OF MATERIALS PROCESSING TECHNOLOGY,2016,234(/):150-157.
  • [1600] 杨晔. Nanoscale electric discharge-induced FLG peeling off during the STM electric lithography. MICRO & NANO LETTERS,2017,12(10):793-798.
  • [1601] 杨晔. Comparison of the bias voltage effect and the force effect during the nanoscale AFM electric lithography on the copper thin film surface. SCANNING,2016,38(5):412–420.
  • [1602] 王飞,杨晔. 基于Stacking多模型融合的IGBT器件寿命的机器学习预测算法研究. 计算机科学,2022,49(6A):784-789.
  • [1603] 杨晔. Fabrication of flexible microheater with tunable heating capabilities by direct laser writing and selective electrodeposition. Journal of Manufacturing Processes,2022,74(2022):88-99.
  • [1604] 杨晔. Direct etching of nano/microscale patterns with both few-layer graphene and high-depth graphite structures by the raster STM electric lithography in the ambient conditions. JOURNAL OF MICROSCOPY,2023,292(1):37-46.
  • [1605] 杨晔. Comparison of the bias voltage effect and the force effect during the nanoscale AFM electric lithography on the copper thin film surface. SCANNING,2016,38(5):412–420.
  • [1606] 杨晔. Study of the electrode tool wear and the probe tip sharpening phenomena during the nanoscale STM electric discharge lithography of the bulk HOPG surface. JOURNAL OF MATERIALS PROCESSING TECHNOLOGY,2016,234(/):150-157.
  • [1607] 杨晔. Nanoscale electric discharge-induced FLG peeling off during the STM electric lithography. MICRO & NANO LETTERS,2017,12(10):793-798.
  • [1608] 杨晔. Investigation of the transition from local anodic oxidation to electrical breakdown during nanoscale atomic force microscopy electric lithography of highly oriented pyrolytic graphite. MICROSCOPY AND MICROANALYSIS,2016,22(2):432-439.
  • [1609] 杨晔. Interpolation and difference optimized machine learning model for accurate prediction of silicon etching depth with small sample dataset. JOURNAL OF VACUUM SCIENCE & TECHNOLOGY B,2023,41(2023):052602.
  • [1610] 杨晔. Fabrication of nanoscale to microscale 2.5D square patterns on metallic films by the coupling AFM lithography. Journal of Manufacturing Processes,2019,46(/):129-138.
  • [1611] 杨晔. Study of the electrode tool wear and the probe tip sharpening phenomena during the nanoscale STM electric discharge lithography of the bulk HOPG surface. JOURNAL OF MATERIALS PROCESSING TECHNOLOGY,2016,234(/):150-157.
  • [1612] 杨晔. Nanoscale electric discharge-induced FLG peeling off during the STM electric lithography. MICRO & NANO LETTERS,2017,12(10):793-798.
  • [1613] 杨晔. Comparison of the bias voltage effect and the force effect during the nanoscale AFM electric lithography on the copper thin film surface. SCANNING,2016,38(5):412–420.
  • [1614] 杨晔. Investigation of the transition from local anodic oxidation to electrical breakdown during nanoscale atomic force microscopy electric lithography of highly oriented pyrolytic graphite. MICROSCOPY AND MICROANALYSIS,2016,22(2):432-439.
  • [1615] 杨晔. Interpolation and difference optimized machine learning model for accurate prediction of silicon etching depth with small sample dataset. JOURNAL OF VACUUM SCIENCE & TECHNOLOGY B,2023,41(2023):052602.
  • [1616] 杨晔. Fabrication of flexible microheater with tunable heating capabilities by direct laser writing and selective electrodeposition. Journal of Manufacturing Processes,2022,74(2022):88-99.
  • [1617] 杨晔. Direct etching of nano/microscale patterns with both few-layer graphene and high-depth graphite structures by the raster STM electric lithography in the ambient conditions. JOURNAL OF MICROSCOPY,2023,292(1):37-46.
  • [1618] 杨晔. Comparison of the bias voltage effect and the force effect during the nanoscale AFM electric lithography on the copper thin film surface. SCANNING,2016,38(5):412–420.
  • [1619] 王飞,杨晔. 基于Stacking多模型融合的IGBT器件寿命的机器学习预测算法研究. 计算机科学,2022,49(6A):784-789.
  • [1620] 杨晔. Nanoscale electric discharge-induced FLG peeling off during the STM electric lithography. MICRO & NANO LETTERS,2017,12(10):793-798.
  • [1621] 杨晔. Direct etching of nano/microscale patterns with both few-layer graphene and high-depth graphite structures by the raster STM electric lithography in the ambient conditions. JOURNAL OF MICROSCOPY,2023,292(1):37-46.
  • [1622] 杨晔. Nanoscale electric discharge-induced FLG peeling off during the STM electric lithography. MICRO & NANO LETTERS,2017,12(10):793-798.
  • [1623] 杨晔. Study of the electrode tool wear and the probe tip sharpening phenomena during the nanoscale STM electric discharge lithography of the bulk HOPG surface. JOURNAL OF MATERIALS PROCESSING TECHNOLOGY,2016,234(/):150-157.
  • [1624] 杨晔. Investigation of the transition from local anodic oxidation to electrical breakdown during nanoscale atomic force microscopy electric lithography of highly oriented pyrolytic graphite. MICROSCOPY AND MICROANALYSIS,2016,22(2):432-439.
  • [1625] 杨晔. Interpolation and difference optimized machine learning model for accurate prediction of silicon etching depth with small sample dataset. JOURNAL OF VACUUM SCIENCE & TECHNOLOGY B,2023,41(2023):052602.
  • [1626] 杨晔. Nanoscale electric discharge-induced FLG peeling off during the STM electric lithography. MICRO & NANO LETTERS,2017,12(10):793-798.
  • [1627] 杨晔. Investigation of the transition from local anodic oxidation to electrical breakdown during nanoscale atomic force microscopy electric lithography of highly oriented pyrolytic graphite. MICROSCOPY AND MICROANALYSIS,2016,22(2):432-439.
  • [1628] 杨晔. Interpolation and difference optimized machine learning model for accurate prediction of silicon etching depth with small sample dataset. JOURNAL OF VACUUM SCIENCE & TECHNOLOGY B,2023,41(2023):052602.
  • [1629] 杨晔. Study of the electrode tool wear and the probe tip sharpening phenomena during the nanoscale STM electric discharge lithography of the bulk HOPG surface. JOURNAL OF MATERIALS PROCESSING TECHNOLOGY,2016,234(/):150-157.
  • [1630] 杨晔. Investigation of the transition from local anodic oxidation to electrical breakdown during nanoscale atomic force microscopy electric lithography of highly oriented pyrolytic graphite. MICROSCOPY AND MICROANALYSIS,2016,22(2):432-439.
  • [1631] 杨晔. Direct etching of nano/microscale patterns with both few-layer graphene and high-depth graphite structures by the raster STM electric lithography in the ambient conditions. JOURNAL OF MICROSCOPY,2023,292(1):37-46.
  • [1632] 杨晔. Direct etching of nano/microscale patterns with both few-layer graphene and high-depth graphite structures by the raster STM electric lithography in the ambient conditions. JOURNAL OF MICROSCOPY,2023,292(1):37-46.
  • [1633] 杨晔. Study of the electrode tool wear and the probe tip sharpening phenomena during the nanoscale STM electric discharge lithography of the bulk HOPG surface. JOURNAL OF MATERIALS PROCESSING TECHNOLOGY,2016,234(/):150-157.
  • [1634] 杨晔. Study of the electrode tool wear and the probe tip sharpening phenomena during the nanoscale STM electric discharge lithography of the bulk HOPG surface. JOURNAL OF MATERIALS PROCESSING TECHNOLOGY,2016,234(/):150-157.
  • [1635] 杨晔. Study of the electrode tool wear and the probe tip sharpening phenomena during the nanoscale STM electric discharge lithography of the bulk HOPG surface. JOURNAL OF MATERIALS PROCESSING TECHNOLOGY,2016,234(/):150-157.
  • [1636] 杨晔. Investigation of the transition from local anodic oxidation to electrical breakdown during nanoscale atomic force microscopy electric lithography of highly oriented pyrolytic graphite. MICROSCOPY AND MICROANALYSIS,2016,22(2):432-439.
  • [1637] 杨晔. Direct etching of nano/microscale patterns with both few-layer graphene and high-depth graphite structures by the raster STM electric lithography in the ambient conditions. JOURNAL OF MICROSCOPY,2023,292(1):37-46.
  • [1638] 杨晔. Comparison of the bias voltage effect and the force effect during the nanoscale AFM electric lithography on the copper thin film surface. SCANNING,2016,38(5):412–420.
  • [1639] 王飞,杨晔. 基于Stacking多模型融合的IGBT器件寿命的机器学习预测算法研究. 计算机科学,2022,49(6A):784-789.
  • [1640] 杨晔. Study of the electrode tool wear and the probe tip sharpening phenomena during the nanoscale STM electric discharge lithography of the bulk HOPG surface. JOURNAL OF MATERIALS PROCESSING TECHNOLOGY,2016,234(/):150-157.
  • [1641] 杨晔. Nanoscale electric discharge-induced FLG peeling off during the STM electric lithography. MICRO & NANO LETTERS,2017,12(10):793-798.
  • [1642] 杨晔. Investigation of the transition from local anodic oxidation to electrical breakdown during nanoscale atomic force microscopy electric lithography of highly oriented pyrolytic graphite. MICROSCOPY AND MICROANALYSIS,2016,22(2):432-439.
  • [1643] 王飞,杨晔. 基于Stacking多模型融合的IGBT器件寿命的机器学习预测算法研究. 计算机科学,2022,49(6A):784-789.
  • [1644] 杨晔. Study of the electrode tool wear and the probe tip sharpening phenomena during the nanoscale STM electric discharge lithography of the bulk HOPG surface. JOURNAL OF MATERIALS PROCESSING TECHNOLOGY,2016,234(/):150-157.
  • [1645] 杨晔. Investigation of the transition from local anodic oxidation to electrical breakdown during nanoscale atomic force microscopy electric lithography of highly oriented pyrolytic graphite. MICROSCOPY AND MICROANALYSIS,2016,22(2):432-439.
  • [1646] 杨晔. Interpolation and difference optimized machine learning model for accurate prediction of silicon etching depth with small sample dataset. JOURNAL OF VACUUM SCIENCE & TECHNOLOGY B,2023,41(2023):052602.
  • [1647] 王飞,杨晔. 基于Stacking多模型融合的IGBT器件寿命的机器学习预测算法研究. 计算机科学,2022,49(6A):784-789.
  • [1648] 杨晔. Study of the electrode tool wear and the probe tip sharpening phenomena during the nanoscale STM electric discharge lithography of the bulk HOPG surface. JOURNAL OF MATERIALS PROCESSING TECHNOLOGY,2016,234(/):150-157.
  • [1649] 杨晔. Fabrication of flexible microheater with tunable heating capabilities by direct laser writing and selective electrodeposition. Journal of Manufacturing Processes,2022,74(2022):88-99.
  • [1650] 王飞,杨晔. 基于Stacking多模型融合的IGBT器件寿命的机器学习预测算法研究. 计算机科学,2022,49(6A):784-789.
  • [1651] 杨晔. Nanoscale electric discharge-induced FLG peeling off during the STM electric lithography. MICRO & NANO LETTERS,2017,12(10):793-798.
  • [1652] 杨晔. Nanoscale electric discharge-induced FLG peeling off during the STM electric lithography. MICRO & NANO LETTERS,2017,12(10):793-798.
  • [1653] 杨晔. Investigation of the transition from local anodic oxidation to electrical breakdown during nanoscale atomic force microscopy electric lithography of highly oriented pyrolytic graphite. MICROSCOPY AND MICROANALYSIS,2016,22(2):432-439.
  • [1654] 杨晔. Interpolation and difference optimized machine learning model for accurate prediction of silicon etching depth with small sample dataset. JOURNAL OF VACUUM SCIENCE & TECHNOLOGY B,2023,41(2023):052602.
  • [1655] 杨晔. Comparison of the bias voltage effect and the force effect during the nanoscale AFM electric lithography on the copper thin film surface. SCANNING,2016,38(5):412–420.
  • [1656] 杨晔. Nanoscale electric discharge-induced FLG peeling off during the STM electric lithography. MICRO & NANO LETTERS,2017,12(10):793-798.
  • [1657] 杨晔. Investigation of the transition from local anodic oxidation to electrical breakdown during nanoscale atomic force microscopy electric lithography of highly oriented pyrolytic graphite. MICROSCOPY AND MICROANALYSIS,2016,22(2):432-439.
  • [1658] 杨晔. Interpolation and difference optimized machine learning model for accurate prediction of silicon etching depth with small sample dataset. JOURNAL OF VACUUM SCIENCE & TECHNOLOGY B,2023,41(2023):052602.
  • [1659] 杨晔. Study of the electrode tool wear and the probe tip sharpening phenomena during the nanoscale STM electric discharge lithography of the bulk HOPG surface. JOURNAL OF MATERIALS PROCESSING TECHNOLOGY,2016,234(/):150-157.
  • [1660] 王飞,杨晔. 基于Stacking多模型融合的IGBT器件寿命的机器学习预测算法研究. 计算机科学,2022,49(6A):784-789.
  • [1661] 王飞,杨晔. 基于Stacking多模型融合的IGBT器件寿命的机器学习预测算法研究. 计算机科学,2022,49(6A):784-789.
  • [1662] 杨晔. Comparison of the bias voltage effect and the force effect during the nanoscale AFM electric lithography on the copper thin film surface. SCANNING,2016,38(5):412–420.
  • [1663] 杨晔. Study of the electrode tool wear and the probe tip sharpening phenomena during the nanoscale STM electric discharge lithography of the bulk HOPG surface. JOURNAL OF MATERIALS PROCESSING TECHNOLOGY,2016,234(/):150-157.
  • [1664] 杨晔. Nanoscale electric discharge-induced FLG peeling off during the STM electric lithography. MICRO & NANO LETTERS,2017,12(10):793-798.
  • [1665] 杨晔. Comparison of the bias voltage effect and the force effect during the nanoscale AFM electric lithography on the copper thin film surface. SCANNING,2016,38(5):412–420.
  • [1666] 杨晔. Study of the electrode tool wear and the probe tip sharpening phenomena during the nanoscale STM electric discharge lithography of the bulk HOPG surface. JOURNAL OF MATERIALS PROCESSING TECHNOLOGY,2016,234(/):150-157.
  • [1667] 王飞,杨晔. 基于Stacking多模型融合的IGBT器件寿命的机器学习预测算法研究. 计算机科学,2022,49(6A):784-789.
  • [1668] 杨晔. Investigation of the transition from local anodic oxidation to electrical breakdown during nanoscale atomic force microscopy electric lithography of highly oriented pyrolytic graphite. MICROSCOPY AND MICROANALYSIS,2016,22(2):432-439.
  • [1669] 杨晔. Interpolation and difference optimized machine learning model for accurate prediction of silicon etching depth with small sample dataset. JOURNAL OF VACUUM SCIENCE & TECHNOLOGY B,2023,41(2023):052602.
  • [1670] 杨晔. Fabrication of nanoscale to microscale 2.5D square patterns on metallic films by the coupling AFM lithography. Journal of Manufacturing Processes,2019,46(/):129-138.
  • [1671] 王飞,杨晔. 基于Stacking多模型融合的IGBT器件寿命的机器学习预测算法研究. 计算机科学,2022,49(6A):784-789.
  • [1672] 杨晔. Study of the electrode tool wear and the probe tip sharpening phenomena during the nanoscale STM electric discharge lithography of the bulk HOPG surface. JOURNAL OF MATERIALS PROCESSING TECHNOLOGY,2016,234(/):150-157.
  • [1673] 王飞,杨晔. 基于Stacking多模型融合的IGBT器件寿命的机器学习预测算法研究. 计算机科学,2022,49(6A):784-789.
  • [1674] 杨晔. Study of the electrode tool wear and the probe tip sharpening phenomena during the nanoscale STM electric discharge lithography of the bulk HOPG surface. JOURNAL OF MATERIALS PROCESSING TECHNOLOGY,2016,234(/):150-157.
  • [1675] 杨晔. Nanoscale electric discharge-induced FLG peeling off during the STM electric lithography. MICRO & NANO LETTERS,2017,12(10):793-798.
  • [1676] 杨晔. Investigation of the transition from local anodic oxidation to electrical breakdown during nanoscale atomic force microscopy electric lithography of highly oriented pyrolytic graphite. MICROSCOPY AND MICROANALYSIS,2016,22(2):432-439.
  • [1677] 杨晔. Interpolation and difference optimized machine learning model for accurate prediction of silicon etching depth with small sample dataset. JOURNAL OF VACUUM SCIENCE & TECHNOLOGY B,2023,41(2023):052602.
  • [1678] 杨晔. Study of the electrode tool wear and the probe tip sharpening phenomena during the nanoscale STM electric discharge lithography of the bulk HOPG surface. JOURNAL OF MATERIALS PROCESSING TECHNOLOGY,2016,234(/):150-157.
  • [1679] 杨晔. Study of the electrode tool wear and the probe tip sharpening phenomena during the nanoscale STM electric discharge lithography of the bulk HOPG surface. JOURNAL OF MATERIALS PROCESSING TECHNOLOGY,2016,234(/):150-157.
  • [1680] 王飞,杨晔. 基于Stacking多模型融合的IGBT器件寿命的机器学习预测算法研究. 计算机科学,2022,49(6A):784-789.
  • [1681] 杨晔. Direct etching of nano/microscale patterns with both few-layer graphene and high-depth graphite structures by the raster STM electric lithography in the ambient conditions. JOURNAL OF MICROSCOPY,2023,292(1):37-46.
  • [1682] 杨晔. Comparison of the bias voltage effect and the force effect during the nanoscale AFM electric lithography on the copper thin film surface. SCANNING,2016,38(5):412–420.
  • [1683] 王飞,杨晔. 基于Stacking多模型融合的IGBT器件寿命的机器学习预测算法研究. 计算机科学,2022,49(6A):784-789.
  • [1684] 杨晔. Study of the electrode tool wear and the probe tip sharpening phenomena during the nanoscale STM electric discharge lithography of the bulk HOPG surface. JOURNAL OF MATERIALS PROCESSING TECHNOLOGY,2016,234(/):150-157.
  • [1685] 杨晔. Fabrication of flexible microheater with tunable heating capabilities by direct laser writing and selective electrodeposition. Journal of Manufacturing Processes,2022,74(2022):88-99.
  • [1686] 杨晔. Nanoscale electric discharge-induced FLG peeling off during the STM electric lithography. MICRO & NANO LETTERS,2017,12(10):793-798.
  • [1687] 杨晔. Fabrication of flexible microheater with tunable heating capabilities by direct laser writing and selective electrodeposition. Journal of Manufacturing Processes,2022,74(2022):88-99.
  • [1688] 杨晔. Comparison of the bias voltage effect and the force effect during the nanoscale AFM electric lithography on the copper thin film surface. SCANNING,2016,38(5):412–420.
  • [1689] 杨晔. Fabrication of flexible microheater with tunable heating capabilities by direct laser writing and selective electrodeposition. Journal of Manufacturing Processes,2022,74(2022):88-99.
  • [1690] 杨晔. Direct etching of nano/microscale patterns with both few-layer graphene and high-depth graphite structures by the raster STM electric lithography in the ambient conditions. JOURNAL OF MICROSCOPY,2023,292(1):37-46.
  • [1691] 杨晔. Nanoscale electric discharge-induced FLG peeling off during the STM electric lithography. MICRO & NANO LETTERS,2017,12(10):793-798.
  • [1692] 杨晔. Interpolation and difference optimized machine learning model for accurate prediction of silicon etching depth with small sample dataset. JOURNAL OF VACUUM SCIENCE & TECHNOLOGY B,2023,41(2023):052602.
  • [1693] 杨晔. Fabrication of nanoscale to microscale 2.5D square patterns on metallic films by the coupling AFM lithography. Journal of Manufacturing Processes,2019,46(/):129-138.
  • [1694] 杨晔. Fabrication of flexible microheater with tunable heating capabilities by direct laser writing and selective electrodeposition. Journal of Manufacturing Processes,2022,74(2022):88-99.
  • [1695] 杨晔. Interpolation and difference optimized machine learning model for accurate prediction of silicon etching depth with small sample dataset. JOURNAL OF VACUUM SCIENCE & TECHNOLOGY B,2023,41(2023):052602.
  • [1696] 杨晔. Study of the electrode tool wear and the probe tip sharpening phenomena during the nanoscale STM electric discharge lithography of the bulk HOPG surface. JOURNAL OF MATERIALS PROCESSING TECHNOLOGY,2016,234(/):150-157.
  • [1697] 杨晔. Study of the electrode tool wear and the probe tip sharpening phenomena during the nanoscale STM electric discharge lithography of the bulk HOPG surface. JOURNAL OF MATERIALS PROCESSING TECHNOLOGY,2016,234(/):150-157.
  • [1698] 杨晔. Fabrication of flexible microheater with tunable heating capabilities by direct laser writing and selective electrodeposition. Journal of Manufacturing Processes,2022,74(2022):88-99.
  • [1699] 杨晔. Study of the electrode tool wear and the probe tip sharpening phenomena during the nanoscale STM electric discharge lithography of the bulk HOPG surface. JOURNAL OF MATERIALS PROCESSING TECHNOLOGY,2016,234(/):150-157.
  • [1700] 杨晔. Investigation of the transition from local anodic oxidation to electrical breakdown during nanoscale atomic force microscopy electric lithography of highly oriented pyrolytic graphite. MICROSCOPY AND MICROANALYSIS,2016,22(2):432-439.
  • [1701] 杨晔. Direct etching of nano/microscale patterns with both few-layer graphene and high-depth graphite structures by the raster STM electric lithography in the ambient conditions. JOURNAL OF MICROSCOPY,2023,292(1):37-46.
  • [1702] 杨晔. Direct etching of nano/microscale patterns with both few-layer graphene and high-depth graphite structures by the raster STM electric lithography in the ambient conditions. JOURNAL OF MICROSCOPY,2023,292(1):37-46.
  • [1703] 王飞,杨晔. 基于Stacking多模型融合的IGBT器件寿命的机器学习预测算法研究. 计算机科学,2022,49(6A):784-789.
  • [1704] 杨晔. Nanoscale electric discharge-induced FLG peeling off during the STM electric lithography. MICRO & NANO LETTERS,2017,12(10):793-798.
  • [1705] 杨晔. Study of the electrode tool wear and the probe tip sharpening phenomena during the nanoscale STM electric discharge lithography of the bulk HOPG surface. JOURNAL OF MATERIALS PROCESSING TECHNOLOGY,2016,234(/):150-157.
  • [1706] 杨晔. Nanoscale electric discharge-induced FLG peeling off during the STM electric lithography. MICRO & NANO LETTERS,2017,12(10):793-798.
  • [1707] 杨晔. Investigation of the transition from local anodic oxidation to electrical breakdown during nanoscale atomic force microscopy electric lithography of highly oriented pyrolytic graphite. MICROSCOPY AND MICROANALYSIS,2016,22(2):432-439.
  • [1708] 杨晔. Interpolation and difference optimized machine learning model for accurate prediction of silicon etching depth with small sample dataset. JOURNAL OF VACUUM SCIENCE & TECHNOLOGY B,2023,41(2023):052602.
  • [1709] 杨晔. Fabrication of nanoscale to microscale 2.5D square patterns on metallic films by the coupling AFM lithography. Journal of Manufacturing Processes,2019,46(/):129-138.
  • [1710] 杨晔. Nanoscale electric discharge-induced FLG peeling off during the STM electric lithography. MICRO & NANO LETTERS,2017,12(10):793-798.
  • [1711] 杨晔. Investigation of the transition from local anodic oxidation to electrical breakdown during nanoscale atomic force microscopy electric lithography of highly oriented pyrolytic graphite. MICROSCOPY AND MICROANALYSIS,2016,22(2):432-439.
  • [1712] 杨晔. Interpolation and difference optimized machine learning model for accurate prediction of silicon etching depth with small sample dataset. JOURNAL OF VACUUM SCIENCE & TECHNOLOGY B,2023,41(2023):052602.
  • [1713] 杨晔. Study of the electrode tool wear and the probe tip sharpening phenomena during the nanoscale STM electric discharge lithography of the bulk HOPG surface. JOURNAL OF MATERIALS PROCESSING TECHNOLOGY,2016,234(/):150-157.
  • [1714] 杨晔. Nanoscale electric discharge-induced FLG peeling off during the STM electric lithography. MICRO & NANO LETTERS,2017,12(10):793-798.
  • [1715] 王飞,杨晔. 基于Stacking多模型融合的IGBT器件寿命的机器学习预测算法研究. 计算机科学,2022,49(6A):784-789.
  • [1716] 杨晔. Interpolation and difference optimized machine learning model for accurate prediction of silicon etching depth with small sample dataset. JOURNAL OF VACUUM SCIENCE & TECHNOLOGY B,2023,41(2023):052602.
  • [1717] 杨晔. Fabrication of nanoscale to microscale 2.5D square patterns on metallic films by the coupling AFM lithography. Journal of Manufacturing Processes,2019,46(/):129-138.
  • [1718] 杨晔. Fabrication of flexible microheater with tunable heating capabilities by direct laser writing and selective electrodeposition. Journal of Manufacturing Processes,2022,74(2022):88-99.
  • [1719] 杨晔. Nanoscale electric discharge-induced FLG peeling off during the STM electric lithography. MICRO & NANO LETTERS,2017,12(10):793-798.
  • [1720] 王飞,杨晔. 基于Stacking多模型融合的IGBT器件寿命的机器学习预测算法研究. 计算机科学,2022,49(6A):784-789.
  • [1721] 杨晔. Nanoscale electric discharge-induced FLG peeling off during the STM electric lithography. MICRO & NANO LETTERS,2017,12(10):793-798.
  • [1722] 杨晔. Fabrication of flexible microheater with tunable heating capabilities by direct laser writing and selective electrodeposition. Journal of Manufacturing Processes,2022,74(2022):88-99.
  • [1723] 杨晔. Nanoscale electric discharge-induced FLG peeling off during the STM electric lithography. MICRO & NANO LETTERS,2017,12(10):793-798.
  • [1724] 杨晔. Investigation of the transition from local anodic oxidation to electrical breakdown during nanoscale atomic force microscopy electric lithography of highly oriented pyrolytic graphite. MICROSCOPY AND MICROANALYSIS,2016,22(2):432-439.
  • [1725] 杨晔. Interpolation and difference optimized machine learning model for accurate prediction of silicon etching depth with small sample dataset. JOURNAL OF VACUUM SCIENCE & TECHNOLOGY B,2023,41(2023):052602.
  • [1726] 杨晔. Study of the electrode tool wear and the probe tip sharpening phenomena during the nanoscale STM electric discharge lithography of the bulk HOPG surface. JOURNAL OF MATERIALS PROCESSING TECHNOLOGY,2016,234(/):150-157.
  • [1727] 杨晔. Direct etching of nano/microscale patterns with both few-layer graphene and high-depth graphite structures by the raster STM electric lithography in the ambient conditions. JOURNAL OF MICROSCOPY,2023,292(1):37-46.
  • [1728] 杨晔. Fabrication of flexible microheater with tunable heating capabilities by direct laser writing and selective electrodeposition. Journal of Manufacturing Processes,2022,74(2022):88-99.
  • [1729] 杨晔. Direct etching of nano/microscale patterns with both few-layer graphene and high-depth graphite structures by the raster STM electric lithography in the ambient conditions. JOURNAL OF MICROSCOPY,2023,292(1):37-46.
  • [1730] 杨晔. Comparison of the bias voltage effect and the force effect during the nanoscale AFM electric lithography on the copper thin film surface. SCANNING,2016,38(5):412–420.
  • [1731] 杨晔. Study of the electrode tool wear and the probe tip sharpening phenomena during the nanoscale STM electric discharge lithography of the bulk HOPG surface. JOURNAL OF MATERIALS PROCESSING TECHNOLOGY,2016,234(/):150-157.
  • [1732] 杨晔. Nanoscale electric discharge-induced FLG peeling off during the STM electric lithography. MICRO & NANO LETTERS,2017,12(10):793-798.
  • [1733] 杨晔. Fabrication of nanoscale to microscale 2.5D square patterns on metallic films by the coupling AFM lithography. Journal of Manufacturing Processes,2019,46(/):129-138.
  • [1734] 杨晔. Study of the electrode tool wear and the probe tip sharpening phenomena during the nanoscale STM electric discharge lithography of the bulk HOPG surface. JOURNAL OF MATERIALS PROCESSING TECHNOLOGY,2016,234(/):150-157.
  • [1735] 杨晔. Interpolation and difference optimized machine learning model for accurate prediction of silicon etching depth with small sample dataset. JOURNAL OF VACUUM SCIENCE & TECHNOLOGY B,2023,41(2023):052602.
  • [1736] 杨晔. Fabrication of flexible microheater with tunable heating capabilities by direct laser writing and selective electrodeposition. Journal of Manufacturing Processes,2022,74(2022):88-99.
  • [1737] 杨晔. Direct etching of nano/microscale patterns with both few-layer graphene and high-depth graphite structures by the raster STM electric lithography in the ambient conditions. JOURNAL OF MICROSCOPY,2023,292(1):37-46.
  • [1738] 王飞,杨晔. 基于Stacking多模型融合的IGBT器件寿命的机器学习预测算法研究. 计算机科学,2022,49(6A):784-789.
  • [1739] 杨晔. Study of the electrode tool wear and the probe tip sharpening phenomena during the nanoscale STM electric discharge lithography of the bulk HOPG surface. JOURNAL OF MATERIALS PROCESSING TECHNOLOGY,2016,234(/):150-157.
  • [1740] 杨晔. Nanoscale electric discharge-induced FLG peeling off during the STM electric lithography. MICRO & NANO LETTERS,2017,12(10):793-798.
  • [1741] 杨晔. Investigation of the transition from local anodic oxidation to electrical breakdown during nanoscale atomic force microscopy electric lithography of highly oriented pyrolytic graphite. MICROSCOPY AND MICROANALYSIS,2016,22(2):432-439.
  • [1742] 杨晔. Interpolation and difference optimized machine learning model for accurate prediction of silicon etching depth with small sample dataset. JOURNAL OF VACUUM SCIENCE & TECHNOLOGY B,2023,41(2023):052602.
  • [1743] 杨晔. Study of the electrode tool wear and the probe tip sharpening phenomena during the nanoscale STM electric discharge lithography of the bulk HOPG surface. JOURNAL OF MATERIALS PROCESSING TECHNOLOGY,2016,234(/):150-157.
  • [1744] 杨晔. Investigation of the transition from local anodic oxidation to electrical breakdown during nanoscale atomic force microscopy electric lithography of highly oriented pyrolytic graphite. MICROSCOPY AND MICROANALYSIS,2016,22(2):432-439.
  • [1745] 杨晔. Interpolation and difference optimized machine learning model for accurate prediction of silicon etching depth with small sample dataset. JOURNAL OF VACUUM SCIENCE & TECHNOLOGY B,2023,41(2023):052602.
  • [1746] 杨晔. Direct etching of nano/microscale patterns with both few-layer graphene and high-depth graphite structures by the raster STM electric lithography in the ambient conditions. JOURNAL OF MICROSCOPY,2023,292(1):37-46.
  • [1747] 杨晔. Comparison of the bias voltage effect and the force effect during the nanoscale AFM electric lithography on the copper thin film surface. SCANNING,2016,38(5):412–420.
  • [1748] 杨晔. Fabrication of nanoscale to microscale 2.5D square patterns on metallic films by the coupling AFM lithography. Journal of Manufacturing Processes,2019,46(/):129-138.
  • [1749] 杨晔. Fabrication of flexible microheater with tunable heating capabilities by direct laser writing and selective electrodeposition. Journal of Manufacturing Processes,2022,74(2022):88-99.
  • [1750] 杨晔. Direct etching of nano/microscale patterns with both few-layer graphene and high-depth graphite structures by the raster STM electric lithography in the ambient conditions. JOURNAL OF MICROSCOPY,2023,292(1):37-46.
  • [1751] 杨晔. Comparison of the bias voltage effect and the force effect during the nanoscale AFM electric lithography on the copper thin film surface. SCANNING,2016,38(5):412–420.
  • [1752] 杨晔. Study of the electrode tool wear and the probe tip sharpening phenomena during the nanoscale STM electric discharge lithography of the bulk HOPG surface. JOURNAL OF MATERIALS PROCESSING TECHNOLOGY,2016,234(/):150-157.
  • [1753] 杨晔. Nanoscale electric discharge-induced FLG peeling off during the STM electric lithography. MICRO & NANO LETTERS,2017,12(10):793-798.
  • [1754] 杨晔. Investigation of the transition from local anodic oxidation to electrical breakdown during nanoscale atomic force microscopy electric lithography of highly oriented pyrolytic graphite. MICROSCOPY AND MICROANALYSIS,2016,22(2):432-439.
  • [1755] 杨晔. Nanoscale electric discharge-induced FLG peeling off during the STM electric lithography. MICRO & NANO LETTERS,2017,12(10):793-798.
  • [1756] 杨晔. Direct etching of nano/microscale patterns with both few-layer graphene and high-depth graphite structures by the raster STM electric lithography in the ambient conditions. JOURNAL OF MICROSCOPY,2023,292(1):37-46.
  • [1757] 杨晔. Comparison of the bias voltage effect and the force effect during the nanoscale AFM electric lithography on the copper thin film surface. SCANNING,2016,38(5):412–420.
  • [1758] 杨晔. Fabrication of nanoscale to microscale 2.5D square patterns on metallic films by the coupling AFM lithography. Journal of Manufacturing Processes,2019,46(/):129-138.
  • [1759] 杨晔. Fabrication of flexible microheater with tunable heating capabilities by direct laser writing and selective electrodeposition. Journal of Manufacturing Processes,2022,74(2022):88-99.
  • [1760] 杨晔. Direct etching of nano/microscale patterns with both few-layer graphene and high-depth graphite structures by the raster STM electric lithography in the ambient conditions. JOURNAL OF MICROSCOPY,2023,292(1):37-46.
  • [1761] 杨晔. Fabrication of nanoscale to microscale 2.5D square patterns on metallic films by the coupling AFM lithography. Journal of Manufacturing Processes,2019,46(/):129-138.
  • [1762] 杨晔. Fabrication of flexible microheater with tunable heating capabilities by direct laser writing and selective electrodeposition. Journal of Manufacturing Processes,2022,74(2022):88-99.
  • [1763] 杨晔. Direct etching of nano/microscale patterns with both few-layer graphene and high-depth graphite structures by the raster STM electric lithography in the ambient conditions. JOURNAL OF MICROSCOPY,2023,292(1):37-46.
  • [1764] 杨晔. Comparison of the bias voltage effect and the force effect during the nanoscale AFM electric lithography on the copper thin film surface. SCANNING,2016,38(5):412–420.
  • [1765] 杨晔. Investigation of the transition from local anodic oxidation to electrical breakdown during nanoscale atomic force microscopy electric lithography of highly oriented pyrolytic graphite. MICROSCOPY AND MICROANALYSIS,2016,22(2):432-439.
  • [1766] 杨晔. Comparison of the bias voltage effect and the force effect during the nanoscale AFM electric lithography on the copper thin film surface. SCANNING,2016,38(5):412–420.
  • [1767] 杨晔. Interpolation and difference optimized machine learning model for accurate prediction of silicon etching depth with small sample dataset. JOURNAL OF VACUUM SCIENCE & TECHNOLOGY B,2023,41(2023):052602.
  • [1768] 杨晔. Fabrication of nanoscale to microscale 2.5D square patterns on metallic films by the coupling AFM lithography. Journal of Manufacturing Processes,2019,46(/):129-138.
  • [1769] 杨晔. Fabrication of flexible microheater with tunable heating capabilities by direct laser writing and selective electrodeposition. Journal of Manufacturing Processes,2022,74(2022):88-99.
  • [1770] 杨晔. Direct etching of nano/microscale patterns with both few-layer graphene and high-depth graphite structures by the raster STM electric lithography in the ambient conditions. JOURNAL OF MICROSCOPY,2023,292(1):37-46.
  • [1771] 王飞,杨晔. 基于Stacking多模型融合的IGBT器件寿命的机器学习预测算法研究. 计算机科学,2022,49(6A):784-789.
  • [1772] 杨晔. Comparison of the bias voltage effect and the force effect during the nanoscale AFM electric lithography on the copper thin film surface. SCANNING,2016,38(5):412–420.
  • [1773] 杨晔. Fabrication of flexible microheater with tunable heating capabilities by direct laser writing and selective electrodeposition. Journal of Manufacturing Processes,2022,74(2022):88-99.
  • [1774] 杨晔. Direct etching of nano/microscale patterns with both few-layer graphene and high-depth graphite structures by the raster STM electric lithography in the ambient conditions. JOURNAL OF MICROSCOPY,2023,292(1):37-46.
  • [1775] 杨晔. Study of the electrode tool wear and the probe tip sharpening phenomena during the nanoscale STM electric discharge lithography of the bulk HOPG surface. JOURNAL OF MATERIALS PROCESSING TECHNOLOGY,2016,234(/):150-157.
  • [1776] 杨晔. Fabrication of nanoscale to microscale 2.5D square patterns on metallic films by the coupling AFM lithography. Journal of Manufacturing Processes,2019,46(/):129-138.
  • [1777] 杨晔. Fabrication of flexible microheater with tunable heating capabilities by direct laser writing and selective electrodeposition. Journal of Manufacturing Processes,2022,74(2022):88-99.
  • [1778] 杨晔. Fabrication of nanoscale to microscale 2.5D square patterns on metallic films by the coupling AFM lithography. Journal of Manufacturing Processes,2019,46(/):129-138.
  • [1779] 杨晔. Nanoscale electric discharge-induced FLG peeling off during the STM electric lithography. MICRO & NANO LETTERS,2017,12(10):793-798.
  • [1780] 杨晔. Investigation of the transition from local anodic oxidation to electrical breakdown during nanoscale atomic force microscopy electric lithography of highly oriented pyrolytic graphite. MICROSCOPY AND MICROANALYSIS,2016,22(2):432-439.
  • [1781] 杨晔. Interpolation and difference optimized machine learning model for accurate prediction of silicon etching depth with small sample dataset. JOURNAL OF VACUUM SCIENCE & TECHNOLOGY B,2023,41(2023):052602.
  • [1782] 杨晔. Comparison of the bias voltage effect and the force effect during the nanoscale AFM electric lithography on the copper thin film surface. SCANNING,2016,38(5):412–420.
  • [1783] 杨晔. Nanoscale electric discharge-induced FLG peeling off during the STM electric lithography. MICRO & NANO LETTERS,2017,12(10):793-798.
  • [1784] 杨晔. Investigation of the transition from local anodic oxidation to electrical breakdown during nanoscale atomic force microscopy electric lithography of highly oriented pyrolytic graphite. MICROSCOPY AND MICROANALYSIS,2016,22(2):432-439.
  • [1785] 杨晔. Interpolation and difference optimized machine learning model for accurate prediction of silicon etching depth with small sample dataset. JOURNAL OF VACUUM SCIENCE & TECHNOLOGY B,2023,41(2023):052602.
  • [1786] 杨晔. Comparison of the bias voltage effect and the force effect during the nanoscale AFM electric lithography on the copper thin film surface. SCANNING,2016,38(5):412–420.
  • [1787] 杨晔. Interpolation and difference optimized machine learning model for accurate prediction of silicon etching depth with small sample dataset. JOURNAL OF VACUUM SCIENCE & TECHNOLOGY B,2023,41(2023):052602.
  • [1788] 杨晔. Fabrication of nanoscale to microscale 2.5D square patterns on metallic films by the coupling AFM lithography. Journal of Manufacturing Processes,2019,46(/):129-138.
  • [1789] 杨晔. Fabrication of flexible microheater with tunable heating capabilities by direct laser writing and selective electrodeposition. Journal of Manufacturing Processes,2022,74(2022):88-99.
  • [1790] 王飞,杨晔. 基于Stacking多模型融合的IGBT器件寿命的机器学习预测算法研究. 计算机科学,2022,49(6A):784-789.
  • [1791] 杨晔. Nanoscale electric discharge-induced FLG peeling off during the STM electric lithography. MICRO & NANO LETTERS,2017,12(10):793-798.
  • [1792] 杨晔. Investigation of the transition from local anodic oxidation to electrical breakdown during nanoscale atomic force microscopy electric lithography of highly oriented pyrolytic graphite. MICROSCOPY AND MICROANALYSIS,2016,22(2):432-439.
  • [1793] 杨晔. Interpolation and difference optimized machine learning model for accurate prediction of silicon etching depth with small sample dataset. JOURNAL OF VACUUM SCIENCE & TECHNOLOGY B,2023,41(2023):052602.
  • [1794] 杨晔. Fabrication of nanoscale to microscale 2.5D square patterns on metallic films by the coupling AFM lithography. Journal of Manufacturing Processes,2019,46(/):129-138.
  • [1795] 杨晔. Comparison of the bias voltage effect and the force effect during the nanoscale AFM electric lithography on the copper thin film surface. SCANNING,2016,38(5):412–420.
  • [1796] 杨晔. Fabrication of flexible microheater with tunable heating capabilities by direct laser writing and selective electrodeposition. Journal of Manufacturing Processes,2022,74(2022):88-99.
  • [1797] 杨晔. Study of the electrode tool wear and the probe tip sharpening phenomena during the nanoscale STM electric discharge lithography of the bulk HOPG surface. JOURNAL OF MATERIALS PROCESSING TECHNOLOGY,2016,234(/):150-157.
  • [1798] 杨晔. Investigation of the transition from local anodic oxidation to electrical breakdown during nanoscale atomic force microscopy electric lithography of highly oriented pyrolytic graphite. MICROSCOPY AND MICROANALYSIS,2016,22(2):432-439.
  • [1799] 杨晔. Interpolation and difference optimized machine learning model for accurate prediction of silicon etching depth with small sample dataset. JOURNAL OF VACUUM SCIENCE & TECHNOLOGY B,2023,41(2023):052602.
  • [1800] 王飞,杨晔. 基于Stacking多模型融合的IGBT器件寿命的机器学习预测算法研究. 计算机科学,2022,49(6A):784-789.
  • [1801] 杨晔. Nanoscale electric discharge-induced FLG peeling off during the STM electric lithography. MICRO & NANO LETTERS,2017,12(10):793-798.
  • [1802] 杨晔. Interpolation and difference optimized machine learning model for accurate prediction of silicon etching depth with small sample dataset. JOURNAL OF VACUUM SCIENCE & TECHNOLOGY B,2023,41(2023):052602.
  • [1803] 杨晔. Fabrication of nanoscale to microscale 2.5D square patterns on metallic films by the coupling AFM lithography. Journal of Manufacturing Processes,2019,46(/):129-138.
  • [1804] 杨晔. Fabrication of flexible microheater with tunable heating capabilities by direct laser writing and selective electrodeposition. Journal of Manufacturing Processes,2022,74(2022):88-99.
  • [1805] 杨晔. Fabrication of flexible microheater with tunable heating capabilities by direct laser writing and selective electrodeposition. Journal of Manufacturing Processes,2022,74(2022):88-99.
  • [1806] 杨晔. Direct etching of nano/microscale patterns with both few-layer graphene and high-depth graphite structures by the raster STM electric lithography in the ambient conditions. JOURNAL OF MICROSCOPY,2023,292(1):37-46.
  • [1807] 杨晔. Comparison of the bias voltage effect and the force effect during the nanoscale AFM electric lithography on the copper thin film surface. SCANNING,2016,38(5):412–420.
  • [1808] 杨晔. Fabrication of flexible microheater with tunable heating capabilities by direct laser writing and selective electrodeposition. Journal of Manufacturing Processes,2022,74(2022):88-99.
  • [1809] 杨晔. Comparison of the bias voltage effect and the force effect during the nanoscale AFM electric lithography on the copper thin film surface. SCANNING,2016,38(5):412–420.
  • [1810] 杨晔. Study of the electrode tool wear and the probe tip sharpening phenomena during the nanoscale STM electric discharge lithography of the bulk HOPG surface. JOURNAL OF MATERIALS PROCESSING TECHNOLOGY,2016,234(/):150-157.
  • [1811] 杨晔. Investigation of the transition from local anodic oxidation to electrical breakdown during nanoscale atomic force microscopy electric lithography of highly oriented pyrolytic graphite. MICROSCOPY AND MICROANALYSIS,2016,22(2):432-439.
  • [1812] 杨晔. Interpolation and difference optimized machine learning model for accurate prediction of silicon etching depth with small sample dataset. JOURNAL OF VACUUM SCIENCE & TECHNOLOGY B,2023,41(2023):052602.
  • [1813] 杨晔. Interpolation and difference optimized machine learning model for accurate prediction of silicon etching depth with small sample dataset. JOURNAL OF VACUUM SCIENCE & TECHNOLOGY B,2023,41(2023):052602.
  • [1814] 杨晔. Fabrication of nanoscale to microscale 2.5D square patterns on metallic films by the coupling AFM lithography. Journal of Manufacturing Processes,2019,46(/):129-138.
  • [1815] 杨晔. Fabrication of flexible microheater with tunable heating capabilities by direct laser writing and selective electrodeposition. Journal of Manufacturing Processes,2022,74(2022):88-99.
  • [1816] 杨晔. Fabrication of nanoscale to microscale 2.5D square patterns on metallic films by the coupling AFM lithography. Journal of Manufacturing Processes,2019,46(/):129-138.
  • [1817] 杨晔. Comparison of the bias voltage effect and the force effect during the nanoscale AFM electric lithography on the copper thin film surface. SCANNING,2016,38(5):412–420.
  • [1818] 杨晔. Fabrication of nanoscale to microscale 2.5D square patterns on metallic films by the coupling AFM lithography. Journal of Manufacturing Processes,2019,46(/):129-138.
  • [1819] 杨晔. Study of the electrode tool wear and the probe tip sharpening phenomena during the nanoscale STM electric discharge lithography of the bulk HOPG surface. JOURNAL OF MATERIALS PROCESSING TECHNOLOGY,2016,234(/):150-157.
  • [1820] 杨晔. Comparison of the bias voltage effect and the force effect during the nanoscale AFM electric lithography on the copper thin film surface. SCANNING,2016,38(5):412–420.
  • [1821] 杨晔. Study of the electrode tool wear and the probe tip sharpening phenomena during the nanoscale STM electric discharge lithography of the bulk HOPG surface. JOURNAL OF MATERIALS PROCESSING TECHNOLOGY,2016,234(/):150-157.
  • [1822] 杨晔. Comparison of the bias voltage effect and the force effect during the nanoscale AFM electric lithography on the copper thin film surface. SCANNING,2016,38(5):412–420.
  • [1823] 杨晔. Interpolation and difference optimized machine learning model for accurate prediction of silicon etching depth with small sample dataset. JOURNAL OF VACUUM SCIENCE & TECHNOLOGY B,2023,41(2023):052602.
  • [1824] 杨晔. Study of the electrode tool wear and the probe tip sharpening phenomena during the nanoscale STM electric discharge lithography of the bulk HOPG surface. JOURNAL OF MATERIALS PROCESSING TECHNOLOGY,2016,234(/):150-157.
  • [1825] 杨晔. Fabrication of nanoscale to microscale 2.5D square patterns on metallic films by the coupling AFM lithography. Journal of Manufacturing Processes,2019,46(/):129-138.
  • [1826] 杨晔. Fabrication of flexible microheater with tunable heating capabilities by direct laser writing and selective electrodeposition. Journal of Manufacturing Processes,2022,74(2022):88-99.
  • [1827] 王飞,杨晔. 基于Stacking多模型融合的IGBT器件寿命的机器学习预测算法研究. 计算机科学,2022,49(6A):784-789.
  • [1828] 杨晔. Fabrication of nanoscale to microscale 2.5D square patterns on metallic films by the coupling AFM lithography. Journal of Manufacturing Processes,2019,46(/):129-138.
  • [1829] 杨晔. Nanoscale electric discharge-induced FLG peeling off during the STM electric lithography. MICRO & NANO LETTERS,2017,12(10):793-798.
  • [1830] 王飞,杨晔. 基于Stacking多模型融合的IGBT器件寿命的机器学习预测算法研究. 计算机科学,2022,49(6A):784-789.
  • [1831] 王飞,杨晔. 基于Stacking多模型融合的IGBT器件寿命的机器学习预测算法研究. 计算机科学,2022,49(6A):784-789.
  • [1832] 杨晔. Interpolation and difference optimized machine learning model for accurate prediction of silicon etching depth with small sample dataset. JOURNAL OF VACUUM SCIENCE & TECHNOLOGY B,2023,41(2023):052602.
  • [1833] 杨晔. Fabrication of nanoscale to microscale 2.5D square patterns on metallic films by the coupling AFM lithography. Journal of Manufacturing Processes,2019,46(/):129-138.
  • [1834] 杨晔. Fabrication of flexible microheater with tunable heating capabilities by direct laser writing and selective electrodeposition. Journal of Manufacturing Processes,2022,74(2022):88-99.
  • [1835] 杨晔. Fabrication of nanoscale to microscale 2.5D square patterns on metallic films by the coupling AFM lithography. Journal of Manufacturing Processes,2019,46(/):129-138.
  • [1836] 杨晔. Fabrication of flexible microheater with tunable heating capabilities by direct laser writing and selective electrodeposition. Journal of Manufacturing Processes,2022,74(2022):88-99.
  • [1837] 杨晔. Direct etching of nano/microscale patterns with both few-layer graphene and high-depth graphite structures by the raster STM electric lithography in the ambient conditions. JOURNAL OF MICROSCOPY,2023,292(1):37-46.
  • [1838] 杨晔. Comparison of the bias voltage effect and the force effect during the nanoscale AFM electric lithography on the copper thin film surface. SCANNING,2016,38(5):412–420.
  • [1839] 王飞,杨晔. 基于Stacking多模型融合的IGBT器件寿命的机器学习预测算法研究. 计算机科学,2022,49(6A):784-789.
  • [1840] 王飞,杨晔. 基于Stacking多模型融合的IGBT器件寿命的机器学习预测算法研究. 计算机科学,2022,49(6A):784-789.
  • [1841] 杨晔. Interpolation and difference optimized machine learning model for accurate prediction of silicon etching depth with small sample dataset. JOURNAL OF VACUUM SCIENCE & TECHNOLOGY B,2023,41(2023):052602.
  • [1842] 杨晔. Fabrication of nanoscale to microscale 2.5D square patterns on metallic films by the coupling AFM lithography. Journal of Manufacturing Processes,2019,46(/):129-138.
  • [1843] 杨晔. Fabrication of flexible microheater with tunable heating capabilities by direct laser writing and selective electrodeposition. Journal of Manufacturing Processes,2022,74(2022):88-99.
  • [1844] 王飞,杨晔. 基于Stacking多模型融合的IGBT器件寿命的机器学习预测算法研究. 计算机科学,2022,49(6A):784-789.
  • [1845] 杨晔. Study of the electrode tool wear and the probe tip sharpening phenomena during the nanoscale STM electric discharge lithography of the bulk HOPG surface. JOURNAL OF MATERIALS PROCESSING TECHNOLOGY,2016,234(/):150-157.
  • [1846] 杨晔. Nanoscale electric discharge-induced FLG peeling off during the STM electric lithography. MICRO & NANO LETTERS,2017,12(10):793-798.
  • [1847] 杨晔. Investigation of the transition from local anodic oxidation to electrical breakdown during nanoscale atomic force microscopy electric lithography of highly oriented pyrolytic graphite. MICROSCOPY AND MICROANALYSIS,2016,22(2):432-439.
  • [1848] 杨晔. Interpolation and difference optimized machine learning model for accurate prediction of silicon etching depth with small sample dataset. JOURNAL OF VACUUM SCIENCE & TECHNOLOGY B,2023,41(2023):052602.
  • [1849] 杨晔. Fabrication of nanoscale to microscale 2.5D square patterns on metallic films by the coupling AFM lithography. Journal of Manufacturing Processes,2019,46(/):129-138.
  • [1850] 杨晔. Direct etching of nano/microscale patterns with both few-layer graphene and high-depth graphite structures by the raster STM electric lithography in the ambient conditions. JOURNAL OF MICROSCOPY,2023,292(1):37-46.
  • [1851] 杨晔. Comparison of the bias voltage effect and the force effect during the nanoscale AFM electric lithography on the copper thin film surface. SCANNING,2016,38(5):412–420.
  • [1852] 杨晔. Study of the electrode tool wear and the probe tip sharpening phenomena during the nanoscale STM electric discharge lithography of the bulk HOPG surface. JOURNAL OF MATERIALS PROCESSING TECHNOLOGY,2016,234(/):150-157.
  • [1853] 王飞,杨晔. 基于Stacking多模型融合的IGBT器件寿命的机器学习预测算法研究. 计算机科学,2022,49(6A):784-789.
  • [1854] 杨晔. Fabrication of nanoscale to microscale 2.5D square patterns on metallic films by the coupling AFM lithography. Journal of Manufacturing Processes,2019,46(/):129-138.
  • [1855] 杨晔. Fabrication of flexible microheater with tunable heating capabilities by direct laser writing and selective electrodeposition. Journal of Manufacturing Processes,2022,74(2022):88-99.
  • [1856] 杨晔. Direct etching of nano/microscale patterns with both few-layer graphene and high-depth graphite structures by the raster STM electric lithography in the ambient conditions. JOURNAL OF MICROSCOPY,2023,292(1):37-46.
  • [1857] 王飞,杨晔. 基于Stacking多模型融合的IGBT器件寿命的机器学习预测算法研究. 计算机科学,2022,49(6A):784-789.
  • [1858] 王飞,杨晔. 基于Stacking多模型融合的IGBT器件寿命的机器学习预测算法研究. 计算机科学,2022,49(6A):784-789.
  • [1859] 杨晔. Study of the electrode tool wear and the probe tip sharpening phenomena during the nanoscale STM electric discharge lithography of the bulk HOPG surface. JOURNAL OF MATERIALS PROCESSING TECHNOLOGY,2016,234(/):150-157.
  • [1860] 杨晔. Nanoscale electric discharge-induced FLG peeling off during the STM electric lithography. MICRO & NANO LETTERS,2017,12(10):793-798.
  • [1861] 杨晔. Investigation of the transition from local anodic oxidation to electrical breakdown during nanoscale atomic force microscopy electric lithography of highly oriented pyrolytic graphite. MICROSCOPY AND MICROANALYSIS,2016,22(2):432-439.
  • [1862] 杨晔. Study of the electrode tool wear and the probe tip sharpening phenomena during the nanoscale STM electric discharge lithography of the bulk HOPG surface. JOURNAL OF MATERIALS PROCESSING TECHNOLOGY,2016,234(/):150-157.
  • [1863] 杨晔. Nanoscale electric discharge-induced FLG peeling off during the STM electric lithography. MICRO & NANO LETTERS,2017,12(10):793-798.
  • [1864] 杨晔. Investigation of the transition from local anodic oxidation to electrical breakdown during nanoscale atomic force microscopy electric lithography of highly oriented pyrolytic graphite. MICROSCOPY AND MICROANALYSIS,2016,22(2):432-439.
  • [1865] 杨晔. Interpolation and difference optimized machine learning model for accurate prediction of silicon etching depth with small sample dataset. JOURNAL OF VACUUM SCIENCE & TECHNOLOGY B,2023,41(2023):052602.
  • [1866] 杨晔. Study of the electrode tool wear and the probe tip sharpening phenomena during the nanoscale STM electric discharge lithography of the bulk HOPG surface. JOURNAL OF MATERIALS PROCESSING TECHNOLOGY,2016,234(/):150-157.
  • [1867] 杨晔. Interpolation and difference optimized machine learning model for accurate prediction of silicon etching depth with small sample dataset. JOURNAL OF VACUUM SCIENCE & TECHNOLOGY B,2023,41(2023):052602.
  • [1868] 杨晔. Interpolation and difference optimized machine learning model for accurate prediction of silicon etching depth with small sample dataset. JOURNAL OF VACUUM SCIENCE & TECHNOLOGY B,2023,41(2023):052602.
  • [1869] 杨晔. Fabrication of nanoscale to microscale 2.5D square patterns on metallic films by the coupling AFM lithography. Journal of Manufacturing Processes,2019,46(/):129-138.
  • [1870] 杨晔. Fabrication of flexible microheater with tunable heating capabilities by direct laser writing and selective electrodeposition. Journal of Manufacturing Processes,2022,74(2022):88-99.
  • [1871] 杨晔. Investigation of the transition from local anodic oxidation to electrical breakdown during nanoscale atomic force microscopy electric lithography of highly oriented pyrolytic graphite. MICROSCOPY AND MICROANALYSIS,2016,22(2):432-439.
  • [1872] 杨晔. Interpolation and difference optimized machine learning model for accurate prediction of silicon etching depth with small sample dataset. JOURNAL OF VACUUM SCIENCE & TECHNOLOGY B,2023,41(2023):052602.
  • [1873] 王飞,杨晔. 基于Stacking多模型融合的IGBT器件寿命的机器学习预测算法研究. 计算机科学,2022,49(6A):784-789.
  • [1874] 杨晔. Investigation of the transition from local anodic oxidation to electrical breakdown during nanoscale atomic force microscopy electric lithography of highly oriented pyrolytic graphite. MICROSCOPY AND MICROANALYSIS,2016,22(2):432-439.
  • [1875] 杨晔. Interpolation and difference optimized machine learning model for accurate prediction of silicon etching depth with small sample dataset. JOURNAL OF VACUUM SCIENCE & TECHNOLOGY B,2023,41(2023):052602.
  • [1876] 杨晔. Comparison of the bias voltage effect and the force effect during the nanoscale AFM electric lithography on the copper thin film surface. SCANNING,2016,38(5):412–420.
  • [1877] 杨晔. Direct etching of nano/microscale patterns with both few-layer graphene and high-depth graphite structures by the raster STM electric lithography in the ambient conditions. JOURNAL OF MICROSCOPY,2023,292(1):37-46.
  • [1878] 杨晔. Comparison of the bias voltage effect and the force effect during the nanoscale AFM electric lithography on the copper thin film surface. SCANNING,2016,38(5):412–420.
  • [1879] 杨晔. Nanoscale electric discharge-induced FLG peeling off during the STM electric lithography. MICRO & NANO LETTERS,2017,12(10):793-798.
  • [1880] 杨晔. Investigation of the transition from local anodic oxidation to electrical breakdown during nanoscale atomic force microscopy electric lithography of highly oriented pyrolytic graphite. MICROSCOPY AND MICROANALYSIS,2016,22(2):432-439.
  • [1881] 杨晔. Interpolation and difference optimized machine learning model for accurate prediction of silicon etching depth with small sample dataset. JOURNAL OF VACUUM SCIENCE & TECHNOLOGY B,2023,41(2023):052602.
  • [1882] 杨晔. Study of the electrode tool wear and the probe tip sharpening phenomena during the nanoscale STM electric discharge lithography of the bulk HOPG surface. JOURNAL OF MATERIALS PROCESSING TECHNOLOGY,2016,234(/):150-157.
  • [1883] 杨晔. Nanoscale electric discharge-induced FLG peeling off during the STM electric lithography. MICRO & NANO LETTERS,2017,12(10):793-798.
  • [1884] 杨晔. Investigation of the transition from local anodic oxidation to electrical breakdown during nanoscale atomic force microscopy electric lithography of highly oriented pyrolytic graphite. MICROSCOPY AND MICROANALYSIS,2016,22(2):432-439.
  • [1885] 杨晔. Study of the electrode tool wear and the probe tip sharpening phenomena during the nanoscale STM electric discharge lithography of the bulk HOPG surface. JOURNAL OF MATERIALS PROCESSING TECHNOLOGY,2016,234(/):150-157.
  • [1886] 王飞,杨晔. 基于Stacking多模型融合的IGBT器件寿命的机器学习预测算法研究. 计算机科学,2022,49(6A):784-789.
  • [1887] 杨晔. Nanoscale electric discharge-induced FLG peeling off during the STM electric lithography. MICRO & NANO LETTERS,2017,12(10):793-798.
  • [1888] 杨晔. Investigation of the transition from local anodic oxidation to electrical breakdown during nanoscale atomic force microscopy electric lithography of highly oriented pyrolytic graphite. MICROSCOPY AND MICROANALYSIS,2016,22(2):432-439.
  • [1889] 杨晔. Interpolation and difference optimized machine learning model for accurate prediction of silicon etching depth with small sample dataset. JOURNAL OF VACUUM SCIENCE & TECHNOLOGY B,2023,41(2023):052602.
  • [1890] 王飞,杨晔. 基于Stacking多模型融合的IGBT器件寿命的机器学习预测算法研究. 计算机科学,2022,49(6A):784-789.
  • [1891] 杨晔. Study of the electrode tool wear and the probe tip sharpening phenomena during the nanoscale STM electric discharge lithography of the bulk HOPG surface. JOURNAL OF MATERIALS PROCESSING TECHNOLOGY,2016,234(/):150-157.
  • [1892] 杨晔. Study of the electrode tool wear and the probe tip sharpening phenomena during the nanoscale STM electric discharge lithography of the bulk HOPG surface. JOURNAL OF MATERIALS PROCESSING TECHNOLOGY,2016,234(/):150-157.
  • [1893] 杨晔. Investigation of the transition from local anodic oxidation to electrical breakdown during nanoscale atomic force microscopy electric lithography of highly oriented pyrolytic graphite. MICROSCOPY AND MICROANALYSIS,2016,22(2):432-439.
  • [1894] 杨晔. Investigation of the transition from local anodic oxidation to electrical breakdown during nanoscale atomic force microscopy electric lithography of highly oriented pyrolytic graphite. MICROSCOPY AND MICROANALYSIS,2016,22(2):432-439.
  • [1895] 杨晔. Interpolation and difference optimized machine learning model for accurate prediction of silicon etching depth with small sample dataset. JOURNAL OF VACUUM SCIENCE & TECHNOLOGY B,2023,41(2023):052602.
  • [1896] 王飞,杨晔. 基于Stacking多模型融合的IGBT器件寿命的机器学习预测算法研究. 计算机科学,2022,49(6A):784-789.
  • [1897] 杨晔. Nanoscale electric discharge-induced FLG peeling off during the STM electric lithography. MICRO & NANO LETTERS,2017,12(10):793-798.
  • [1898] 杨晔. Direct etching of nano/microscale patterns with both few-layer graphene and high-depth graphite structures by the raster STM electric lithography in the ambient conditions. JOURNAL OF MICROSCOPY,2023,292(1):37-46.
  • [1899] 杨晔. Comparison of the bias voltage effect and the force effect during the nanoscale AFM electric lithography on the copper thin film surface. SCANNING,2016,38(5):412–420.
  • [1900] 杨晔. Nanoscale electric discharge-induced FLG peeling off during the STM electric lithography. MICRO & NANO LETTERS,2017,12(10):793-798.
  • [1901] 王飞,杨晔. 基于Stacking多模型融合的IGBT器件寿命的机器学习预测算法研究. 计算机科学,2022,49(6A):784-789.
  • [1902] 杨晔. Fabrication of nanoscale to microscale 2.5D square patterns on metallic films by the coupling AFM lithography. Journal of Manufacturing Processes,2019,46(/):129-138.
  • [1903] 杨晔. Fabrication of flexible microheater with tunable heating capabilities by direct laser writing and selective electrodeposition. Journal of Manufacturing Processes,2022,74(2022):88-99.
  • [1904] 杨晔. Direct etching of nano/microscale patterns with both few-layer graphene and high-depth graphite structures by the raster STM electric lithography in the ambient conditions. JOURNAL OF MICROSCOPY,2023,292(1):37-46.
  • [1905] 王飞,杨晔. 基于Stacking多模型融合的IGBT器件寿命的机器学习预测算法研究. 计算机科学,2022,49(6A):784-789.
  • [1906] 杨晔. Interpolation and difference optimized machine learning model for accurate prediction of silicon etching depth with small sample dataset. JOURNAL OF VACUUM SCIENCE & TECHNOLOGY B,2023,41(2023):052602.
  • [1907] 杨晔. Nanoscale electric discharge-induced FLG peeling off during the STM electric lithography. MICRO & NANO LETTERS,2017,12(10):793-798.
  • [1908] 杨晔. Interpolation and difference optimized machine learning model for accurate prediction of silicon etching depth with small sample dataset. JOURNAL OF VACUUM SCIENCE & TECHNOLOGY B,2023,41(2023):052602.
  • [1909] 杨晔. Fabrication of nanoscale to microscale 2.5D square patterns on metallic films by the coupling AFM lithography. Journal of Manufacturing Processes,2019,46(/):129-138.
  • [1910] 杨晔. Fabrication of flexible microheater with tunable heating capabilities by direct laser writing and selective electrodeposition. Journal of Manufacturing Processes,2022,74(2022):88-99.
  • [1911] 王飞,杨晔. 基于Stacking多模型融合的IGBT器件寿命的机器学习预测算法研究. 计算机科学,2022,49(6A):784-789.
  • [1912] 杨晔. Fabrication of flexible microheater with tunable heating capabilities by direct laser writing and selective electrodeposition. Journal of Manufacturing Processes,2022,74(2022):88-99.
  • [1913] 杨晔. Direct etching of nano/microscale patterns with both few-layer graphene and high-depth graphite structures by the raster STM electric lithography in the ambient conditions. JOURNAL OF MICROSCOPY,2023,292(1):37-46.
  • [1914] 杨晔. Comparison of the bias voltage effect and the force effect during the nanoscale AFM electric lithography on the copper thin film surface. SCANNING,2016,38(5):412–420.
  • [1915] 杨晔. Fabrication of flexible microheater with tunable heating capabilities by direct laser writing and selective electrodeposition. Journal of Manufacturing Processes,2022,74(2022):88-99.
  • [1916] 杨晔. Direct etching of nano/microscale patterns with both few-layer graphene and high-depth graphite structures by the raster STM electric lithography in the ambient conditions. JOURNAL OF MICROSCOPY,2023,292(1):37-46.
  • [1917] 杨晔. Comparison of the bias voltage effect and the force effect during the nanoscale AFM electric lithography on the copper thin film surface. SCANNING,2016,38(5):412–420.
  • [1918] 杨晔. Investigation of the transition from local anodic oxidation to electrical breakdown during nanoscale atomic force microscopy electric lithography of highly oriented pyrolytic graphite. MICROSCOPY AND MICROANALYSIS,2016,22(2):432-439.
  • [1919] 杨晔. Interpolation and difference optimized machine learning model for accurate prediction of silicon etching depth with small sample dataset. JOURNAL OF VACUUM SCIENCE & TECHNOLOGY B,2023,41(2023):052602.
  • [1920] 杨晔. Study of the electrode tool wear and the probe tip sharpening phenomena during the nanoscale STM electric discharge lithography of the bulk HOPG surface. JOURNAL OF MATERIALS PROCESSING TECHNOLOGY,2016,234(/):150-157.
  • [1921] 杨晔. Investigation of the transition from local anodic oxidation to electrical breakdown during nanoscale atomic force microscopy electric lithography of highly oriented pyrolytic graphite. MICROSCOPY AND MICROANALYSIS,2016,22(2):432-439.
  • [1922] 杨晔. Study of the electrode tool wear and the probe tip sharpening phenomena during the nanoscale STM electric discharge lithography of the bulk HOPG surface. JOURNAL OF MATERIALS PROCESSING TECHNOLOGY,2016,234(/):150-157.
  • [1923] 杨晔. Nanoscale electric discharge-induced FLG peeling off during the STM electric lithography. MICRO & NANO LETTERS,2017,12(10):793-798.
  • [1924] 杨晔. Fabrication of nanoscale to microscale 2.5D square patterns on metallic films by the coupling AFM lithography. Journal of Manufacturing Processes,2019,46(/):129-138.
  • [1925] 杨晔. Direct etching of nano/microscale patterns with both few-layer graphene and high-depth graphite structures by the raster STM electric lithography in the ambient conditions. JOURNAL OF MICROSCOPY,2023,292(1):37-46.
  • [1926] 杨晔. Comparison of the bias voltage effect and the force effect during the nanoscale AFM electric lithography on the copper thin film surface. SCANNING,2016,38(5):412–420.
  • [1927] 杨晔. Fabrication of nanoscale to microscale 2.5D square patterns on metallic films by the coupling AFM lithography. Journal of Manufacturing Processes,2019,46(/):129-138.
  • [1928] 杨晔. Fabrication of flexible microheater with tunable heating capabilities by direct laser writing and selective electrodeposition. Journal of Manufacturing Processes,2022,74(2022):88-99.
  • [1929] 杨晔. Direct etching of nano/microscale patterns with both few-layer graphene and high-depth graphite structures by the raster STM electric lithography in the ambient conditions. JOURNAL OF MICROSCOPY,2023,292(1):37-46.
  • [1930] 杨晔. Comparison of the bias voltage effect and the force effect during the nanoscale AFM electric lithography on the copper thin film surface. SCANNING,2016,38(5):412–420.
  • [1931] 杨晔. Comparison of the bias voltage effect and the force effect during the nanoscale AFM electric lithography on the copper thin film surface. SCANNING,2016,38(5):412–420.
  • [1932] 杨晔. Study of the electrode tool wear and the probe tip sharpening phenomena during the nanoscale STM electric discharge lithography of the bulk HOPG surface. JOURNAL OF MATERIALS PROCESSING TECHNOLOGY,2016,234(/):150-157.
  • [1933] 杨晔. Nanoscale electric discharge-induced FLG peeling off during the STM electric lithography. MICRO & NANO LETTERS,2017,12(10):793-798.
  • [1934] 杨晔. Investigation of the transition from local anodic oxidation to electrical breakdown during nanoscale atomic force microscopy electric lithography of highly oriented pyrolytic graphite. MICROSCOPY AND MICROANALYSIS,2016,22(2):432-439.
  • [1935] 王飞,杨晔. 基于Stacking多模型融合的IGBT器件寿命的机器学习预测算法研究. 计算机科学,2022,49(6A):784-789.
  • [1936] 杨晔. Comparison of the bias voltage effect and the force effect during the nanoscale AFM electric lithography on the copper thin film surface. SCANNING,2016,38(5):412–420.
  • [1937] 王飞,杨晔. 基于Stacking多模型融合的IGBT器件寿命的机器学习预测算法研究. 计算机科学,2022,49(6A):784-789.
  • [1938] 杨晔. Fabrication of flexible microheater with tunable heating capabilities by direct laser writing and selective electrodeposition. Journal of Manufacturing Processes,2022,74(2022):88-99.
  • [1939] 杨晔. Direct etching of nano/microscale patterns with both few-layer graphene and high-depth graphite structures by the raster STM electric lithography in the ambient conditions. JOURNAL OF MICROSCOPY,2023,292(1):37-46.
  • [1940] 杨晔. Comparison of the bias voltage effect and the force effect during the nanoscale AFM electric lithography on the copper thin film surface. SCANNING,2016,38(5):412–420.
  • [1941] 杨晔. Comparison of the bias voltage effect and the force effect during the nanoscale AFM electric lithography on the copper thin film surface. SCANNING,2016,38(5):412–420.
  • [1942] 杨晔. Fabrication of nanoscale to microscale 2.5D square patterns on metallic films by the coupling AFM lithography. Journal of Manufacturing Processes,2019,46(/):129-138.
  • [1943] 杨晔. Fabrication of flexible microheater with tunable heating capabilities by direct laser writing and selective electrodeposition. Journal of Manufacturing Processes,2022,74(2022):88-99.
  • [1944] 杨晔. Direct etching of nano/microscale patterns with both few-layer graphene and high-depth graphite structures by the raster STM electric lithography in the ambient conditions. JOURNAL OF MICROSCOPY,2023,292(1):37-46.
  • [1945] 杨晔. Comparison of the bias voltage effect and the force effect during the nanoscale AFM electric lithography on the copper thin film surface. SCANNING,2016,38(5):412–420.
  • [1946] 杨晔. Nanoscale electric discharge-induced FLG peeling off during the STM electric lithography. MICRO & NANO LETTERS,2017,12(10):793-798.
  • [1947] 杨晔. Fabrication of nanoscale to microscale 2.5D square patterns on metallic films by the coupling AFM lithography. Journal of Manufacturing Processes,2019,46(/):129-138.
  • [1948] 杨晔. Fabrication of flexible microheater with tunable heating capabilities by direct laser writing and selective electrodeposition. Journal of Manufacturing Processes,2022,74(2022):88-99.
  • [1949] 杨晔. Direct etching of nano/microscale patterns with both few-layer graphene and high-depth graphite structures by the raster STM electric lithography in the ambient conditions. JOURNAL OF MICROSCOPY,2023,292(1):37-46.
  • [1950] 王飞,杨晔. 基于Stacking多模型融合的IGBT器件寿命的机器学习预测算法研究. 计算机科学,2022,49(6A):784-789.
  • [1951] 杨晔. Nanoscale electric discharge-induced FLG peeling off during the STM electric lithography. MICRO & NANO LETTERS,2017,12(10):793-798.
  • [1952] 杨晔. Fabrication of nanoscale to microscale 2.5D square patterns on metallic films by the coupling AFM lithography. Journal of Manufacturing Processes,2019,46(/):129-138.
  • [1953] 杨晔. Direct etching of nano/microscale patterns with both few-layer graphene and high-depth graphite structures by the raster STM electric lithography in the ambient conditions. JOURNAL OF MICROSCOPY,2023,292(1):37-46.
  • [1954] 杨晔. Study of the electrode tool wear and the probe tip sharpening phenomena during the nanoscale STM electric discharge lithography of the bulk HOPG surface. JOURNAL OF MATERIALS PROCESSING TECHNOLOGY,2016,234(/):150-157.
  • [1955] 杨晔. Nanoscale electric discharge-induced FLG peeling off during the STM electric lithography. MICRO & NANO LETTERS,2017,12(10):793-798.
  • [1956] 杨晔. Investigation of the transition from local anodic oxidation to electrical breakdown during nanoscale atomic force microscopy electric lithography of highly oriented pyrolytic graphite. MICROSCOPY AND MICROANALYSIS,2016,22(2):432-439.
  • [1957] 杨晔. Comparison of the bias voltage effect and the force effect during the nanoscale AFM electric lithography on the copper thin film surface. SCANNING,2016,38(5):412–420.
  • [1958] 杨晔. Nanoscale electric discharge-induced FLG peeling off during the STM electric lithography. MICRO & NANO LETTERS,2017,12(10):793-798.
  • [1959] 杨晔. Interpolation and difference optimized machine learning model for accurate prediction of silicon etching depth with small sample dataset. JOURNAL OF VACUUM SCIENCE & TECHNOLOGY B,2023,41(2023):052602.
  • [1960] 杨晔. Fabrication of nanoscale to microscale 2.5D square patterns on metallic films by the coupling AFM lithography. Journal of Manufacturing Processes,2019,46(/):129-138.
  • [1961] 杨晔. Fabrication of flexible microheater with tunable heating capabilities by direct laser writing and selective electrodeposition. Journal of Manufacturing Processes,2022,74(2022):88-99.
  • [1962] 杨晔. Nanoscale electric discharge-induced FLG peeling off during the STM electric lithography. MICRO & NANO LETTERS,2017,12(10):793-798.
  • [1963] 杨晔. Investigation of the transition from local anodic oxidation to electrical breakdown during nanoscale atomic force microscopy electric lithography of highly oriented pyrolytic graphite. MICROSCOPY AND MICROANALYSIS,2016,22(2):432-439.
  • [1964] 王飞,杨晔. 基于Stacking多模型融合的IGBT器件寿命的机器学习预测算法研究. 计算机科学,2022,49(6A):784-789.
  • [1965] 杨晔. Nanoscale electric discharge-induced FLG peeling off during the STM electric lithography. MICRO & NANO LETTERS,2017,12(10):793-798.
  • [1966] 杨晔. Interpolation and difference optimized machine learning model for accurate prediction of silicon etching depth with small sample dataset. JOURNAL OF VACUUM SCIENCE & TECHNOLOGY B,2023,41(2023):052602.
  • [1967] 杨晔. Fabrication of nanoscale to microscale 2.5D square patterns on metallic films by the coupling AFM lithography. Journal of Manufacturing Processes,2019,46(/):129-138.
  • [1968] 杨晔. Nanoscale electric discharge-induced FLG peeling off during the STM electric lithography. MICRO & NANO LETTERS,2017,12(10):793-798.
  • [1969] 杨晔. Interpolation and difference optimized machine learning model for accurate prediction of silicon etching depth with small sample dataset. JOURNAL OF VACUUM SCIENCE & TECHNOLOGY B,2023,41(2023):052602.
  • [1970] 杨晔. Comparison of the bias voltage effect and the force effect during the nanoscale AFM electric lithography on the copper thin film surface. SCANNING,2016,38(5):412–420.
  • [1971] 王飞,杨晔. 基于Stacking多模型融合的IGBT器件寿命的机器学习预测算法研究. 计算机科学,2022,49(6A):784-789.
  • [1972] 杨晔. Study of the electrode tool wear and the probe tip sharpening phenomena during the nanoscale STM electric discharge lithography of the bulk HOPG surface. JOURNAL OF MATERIALS PROCESSING TECHNOLOGY,2016,234(/):150-157.
  • [1973] 杨晔. Comparison of the bias voltage effect and the force effect during the nanoscale AFM electric lithography on the copper thin film surface. SCANNING,2016,38(5):412–420.
  • [1974] 杨晔. Study of the electrode tool wear and the probe tip sharpening phenomena during the nanoscale STM electric discharge lithography of the bulk HOPG surface. JOURNAL OF MATERIALS PROCESSING TECHNOLOGY,2016,234(/):150-157.
  • [1975] 杨晔. Nanoscale electric discharge-induced FLG peeling off during the STM electric lithography. MICRO & NANO LETTERS,2017,12(10):793-798.
  • [1976] 杨晔. Direct etching of nano/microscale patterns with both few-layer graphene and high-depth graphite structures by the raster STM electric lithography in the ambient conditions. JOURNAL OF MICROSCOPY,2023,292(1):37-46.
  • [1977] 杨晔. Comparison of the bias voltage effect and the force effect during the nanoscale AFM electric lithography on the copper thin film surface. SCANNING,2016,38(5):412–420.
  • [1978] 王飞,杨晔. 基于Stacking多模型融合的IGBT器件寿命的机器学习预测算法研究. 计算机科学,2022,49(6A):784-789.
  • [1979] 王飞,杨晔. 基于Stacking多模型融合的IGBT器件寿命的机器学习预测算法研究. 计算机科学,2022,49(6A):784-789.
  • [1980] 杨晔. Study of the electrode tool wear and the probe tip sharpening phenomena during the nanoscale STM electric discharge lithography of the bulk HOPG surface. JOURNAL OF MATERIALS PROCESSING TECHNOLOGY,2016,234(/):150-157.
  • [1981] 杨晔. Fabrication of nanoscale to microscale 2.5D square patterns on metallic films by the coupling AFM lithography. Journal of Manufacturing Processes,2019,46(/):129-138.
  • [1982] 杨晔. Fabrication of flexible microheater with tunable heating capabilities by direct laser writing and selective electrodeposition. Journal of Manufacturing Processes,2022,74(2022):88-99.
  • [1983] 杨晔. Study of the electrode tool wear and the probe tip sharpening phenomena during the nanoscale STM electric discharge lithography of the bulk HOPG surface. JOURNAL OF MATERIALS PROCESSING TECHNOLOGY,2016,234(/):150-157.
  • [1984] 王飞,杨晔. 基于Stacking多模型融合的IGBT器件寿命的机器学习预测算法研究. 计算机科学,2022,49(6A):784-789.
  • [1985] 杨晔. Nanoscale electric discharge-induced FLG peeling off during the STM electric lithography. MICRO & NANO LETTERS,2017,12(10):793-798.
  • [1986] 杨晔. Nanoscale electric discharge-induced FLG peeling off during the STM electric lithography. MICRO & NANO LETTERS,2017,12(10):793-798.
  • [1987] 杨晔. Interpolation and difference optimized machine learning model for accurate prediction of silicon etching depth with small sample dataset. JOURNAL OF VACUUM SCIENCE & TECHNOLOGY B,2023,41(2023):052602.
  • [1988] 杨晔. Fabrication of nanoscale to microscale 2.5D square patterns on metallic films by the coupling AFM lithography. Journal of Manufacturing Processes,2019,46(/):129-138.
  • [1989] 杨晔. Fabrication of flexible microheater with tunable heating capabilities by direct laser writing and selective electrodeposition. Journal of Manufacturing Processes,2022,74(2022):88-99.
  • [1990] 杨晔. Nanoscale electric discharge-induced FLG peeling off during the STM electric lithography. MICRO & NANO LETTERS,2017,12(10):793-798.
  • [1991] 杨晔. Fabrication of nanoscale to microscale 2.5D square patterns on metallic films by the coupling AFM lithography. Journal of Manufacturing Processes,2019,46(/):129-138.
  • [1992] 杨晔. Fabrication of flexible microheater with tunable heating capabilities by direct laser writing and selective electrodeposition. Journal of Manufacturing Processes,2022,74(2022):88-99.
  • [1993] 杨晔. Direct etching of nano/microscale patterns with both few-layer graphene and high-depth graphite structures by the raster STM electric lithography in the ambient conditions. JOURNAL OF MICROSCOPY,2023,292(1):37-46.
  • [1994] 王飞,杨晔. 基于Stacking多模型融合的IGBT器件寿命的机器学习预测算法研究. 计算机科学,2022,49(6A):784-789.
  • [1995] 杨晔. Study of the electrode tool wear and the probe tip sharpening phenomena during the nanoscale STM electric discharge lithography of the bulk HOPG surface. JOURNAL OF MATERIALS PROCESSING TECHNOLOGY,2016,234(/):150-157.
  • [1996] 杨晔. Nanoscale electric discharge-induced FLG peeling off during the STM electric lithography. MICRO & NANO LETTERS,2017,12(10):793-798.
  • [1997] 杨晔. Investigation of the transition from local anodic oxidation to electrical breakdown during nanoscale atomic force microscopy electric lithography of highly oriented pyrolytic graphite. MICROSCOPY AND MICROANALYSIS,2016,22(2):432-439.
  • [1998] 杨晔. Comparison of the bias voltage effect and the force effect during the nanoscale AFM electric lithography on the copper thin film surface. SCANNING,2016,38(5):412–420.
  • [1999] 杨晔. Nanoscale electric discharge-induced FLG peeling off during the STM electric lithography. MICRO & NANO LETTERS,2017,12(10):793-798.
  • [2000] 杨晔. Direct etching of nano/microscale patterns with both few-layer graphene and high-depth graphite structures by the raster STM electric lithography in the ambient conditions. JOURNAL OF MICROSCOPY,2023,292(1):37-46.
  • [2001] 杨晔. Comparison of the bias voltage effect and the force effect during the nanoscale AFM electric lithography on the copper thin film surface. SCANNING,2016,38(5):412–420.
  • [2002] 杨晔. Investigation of the transition from local anodic oxidation to electrical breakdown during nanoscale atomic force microscopy electric lithography of highly oriented pyrolytic graphite. MICROSCOPY AND MICROANALYSIS,2016,22(2):432-439.
  • [2003] 杨晔. Interpolation and difference optimized machine learning model for accurate prediction of silicon etching depth with small sample dataset. JOURNAL OF VACUUM SCIENCE & TECHNOLOGY B,2023,41(2023):052602.
  • [2004] 杨晔. Fabrication of nanoscale to microscale 2.5D square patterns on metallic films by the coupling AFM lithography. Journal of Manufacturing Processes,2019,46(/):129-138.
  • [2005] 杨晔. Comparison of the bias voltage effect and the force effect during the nanoscale AFM electric lithography on the copper thin film surface. SCANNING,2016,38(5):412–420.
  • [2006] 王飞,杨晔. 基于Stacking多模型融合的IGBT器件寿命的机器学习预测算法研究. 计算机科学,2022,49(6A):784-789.
  • [2007] 杨晔. Nanoscale electric discharge-induced FLG peeling off during the STM electric lithography. MICRO & NANO LETTERS,2017,12(10):793-798.
  • [2008] 杨晔. Interpolation and difference optimized machine learning model for accurate prediction of silicon etching depth with small sample dataset. JOURNAL OF VACUUM SCIENCE & TECHNOLOGY B,2023,41(2023):052602.
  • [2009] 杨晔. Fabrication of nanoscale to microscale 2.5D square patterns on metallic films by the coupling AFM lithography. Journal of Manufacturing Processes,2019,46(/):129-138.
  • [2010] 杨晔. Fabrication of flexible microheater with tunable heating capabilities by direct laser writing and selective electrodeposition. Journal of Manufacturing Processes,2022,74(2022):88-99.
  • [2011] 杨晔. Nanoscale electric discharge-induced FLG peeling off during the STM electric lithography. MICRO & NANO LETTERS,2017,12(10):793-798.
  • [2012] 杨晔. Interpolation and difference optimized machine learning model for accurate prediction of silicon etching depth with small sample dataset. JOURNAL OF VACUUM SCIENCE & TECHNOLOGY B,2023,41(2023):052602.
  • [2013] 杨晔. Fabrication of nanoscale to microscale 2.5D square patterns on metallic films by the coupling AFM lithography. Journal of Manufacturing Processes,2019,46(/):129-138.
  • [2014] 杨晔. Fabrication of flexible microheater with tunable heating capabilities by direct laser writing and selective electrodeposition. Journal of Manufacturing Processes,2022,74(2022):88-99.
  • [2015] 杨晔. Interpolation and difference optimized machine learning model for accurate prediction of silicon etching depth with small sample dataset. JOURNAL OF VACUUM SCIENCE & TECHNOLOGY B,2023,41(2023):052602.
  • [2016] 杨晔. Fabrication of nanoscale to microscale 2.5D square patterns on metallic films by the coupling AFM lithography. Journal of Manufacturing Processes,2019,46(/):129-138.
  • [2017] 杨晔. Direct etching of nano/microscale patterns with both few-layer graphene and high-depth graphite structures by the raster STM electric lithography in the ambient conditions. JOURNAL OF MICROSCOPY,2023,292(1):37-46.
  • [2018] 杨晔. Comparison of the bias voltage effect and the force effect during the nanoscale AFM electric lithography on the copper thin film surface. SCANNING,2016,38(5):412–420.
  • [2019] 杨晔. Direct etching of nano/microscale patterns with both few-layer graphene and high-depth graphite structures by the raster STM electric lithography in the ambient conditions. JOURNAL OF MICROSCOPY,2023,292(1):37-46.
  • [2020] 王飞,杨晔. 基于Stacking多模型融合的IGBT器件寿命的机器学习预测算法研究. 计算机科学,2022,49(6A):784-789.
  • [2021] 杨晔. Investigation of the transition from local anodic oxidation to electrical breakdown during nanoscale atomic force microscopy electric lithography of highly oriented pyrolytic graphite. MICROSCOPY AND MICROANALYSIS,2016,22(2):432-439.
  • [2022] 杨晔. Interpolation and difference optimized machine learning model for accurate prediction of silicon etching depth with small sample dataset. JOURNAL OF VACUUM SCIENCE & TECHNOLOGY B,2023,41(2023):052602.
  • [2023] 杨晔. Fabrication of nanoscale to microscale 2.5D square patterns on metallic films by the coupling AFM lithography. Journal of Manufacturing Processes,2019,46(/):129-138.
  • [2024] 杨晔. Direct etching of nano/microscale patterns with both few-layer graphene and high-depth graphite structures by the raster STM electric lithography in the ambient conditions. JOURNAL OF MICROSCOPY,2023,292(1):37-46.
  • [2025] 杨晔. Comparison of the bias voltage effect and the force effect during the nanoscale AFM electric lithography on the copper thin film surface. SCANNING,2016,38(5):412–420.
  • [2026] 王飞,杨晔. 基于Stacking多模型融合的IGBT器件寿命的机器学习预测算法研究. 计算机科学,2022,49(6A):784-789.
  • [2027] 杨晔. Interpolation and difference optimized machine learning model for accurate prediction of silicon etching depth with small sample dataset. JOURNAL OF VACUUM SCIENCE & TECHNOLOGY B,2023,41(2023):052602.
  • [2028] 杨晔. Fabrication of nanoscale to microscale 2.5D square patterns on metallic films by the coupling AFM lithography. Journal of Manufacturing Processes,2019,46(/):129-138.
  • [2029] 杨晔. Fabrication of flexible microheater with tunable heating capabilities by direct laser writing and selective electrodeposition. Journal of Manufacturing Processes,2022,74(2022):88-99.
  • [2030] 王飞,杨晔. 基于Stacking多模型融合的IGBT器件寿命的机器学习预测算法研究. 计算机科学,2022,49(6A):784-789.
  • [2031] 王飞,杨晔. 基于Stacking多模型融合的IGBT器件寿命的机器学习预测算法研究. 计算机科学,2022,49(6A):784-789.
  • [2032] 杨晔. Nanoscale electric discharge-induced FLG peeling off during the STM electric lithography. MICRO & NANO LETTERS,2017,12(10):793-798.
  • [2033] 杨晔. Interpolation and difference optimized machine learning model for accurate prediction of silicon etching depth with small sample dataset. JOURNAL OF VACUUM SCIENCE & TECHNOLOGY B,2023,41(2023):052602.
  • [2034] 杨晔. Fabrication of nanoscale to microscale 2.5D square patterns on metallic films by the coupling AFM lithography. Journal of Manufacturing Processes,2019,46(/):129-138.
  • [2035] 杨晔. Fabrication of flexible microheater with tunable heating capabilities by direct laser writing and selective electrodeposition. Journal of Manufacturing Processes,2022,74(2022):88-99.
  • [2036] 杨晔. Fabrication of flexible microheater with tunable heating capabilities by direct laser writing and selective electrodeposition. Journal of Manufacturing Processes,2022,74(2022):88-99.
  • [2037] 杨晔. Comparison of the bias voltage effect and the force effect during the nanoscale AFM electric lithography on the copper thin film surface. SCANNING,2016,38(5):412–420.
  • [2038] 杨晔. Study of the electrode tool wear and the probe tip sharpening phenomena during the nanoscale STM electric discharge lithography of the bulk HOPG surface. JOURNAL OF MATERIALS PROCESSING TECHNOLOGY,2016,234(/):150-157.
  • [2039] 王飞,杨晔. 基于Stacking多模型融合的IGBT器件寿命的机器学习预测算法研究. 计算机科学,2022,49(6A):784-789.
  • [2040] 杨晔. Fabrication of flexible microheater with tunable heating capabilities by direct laser writing and selective electrodeposition. Journal of Manufacturing Processes,2022,74(2022):88-99.
  • [2041] 杨晔. Comparison of the bias voltage effect and the force effect during the nanoscale AFM electric lithography on the copper thin film surface. SCANNING,2016,38(5):412–420.
  • [2042] 王飞,杨晔. 基于Stacking多模型融合的IGBT器件寿命的机器学习预测算法研究. 计算机科学,2022,49(6A):784-789.
  • [2043] 王飞,杨晔. 基于Stacking多模型融合的IGBT器件寿命的机器学习预测算法研究. 计算机科学,2022,49(6A):784-789.
  • [2044] 王飞,杨晔. 基于Stacking多模型融合的IGBT器件寿命的机器学习预测算法研究. 计算机科学,2022,49(6A):784-789.
  • [2045] 杨晔. Study of the electrode tool wear and the probe tip sharpening phenomena during the nanoscale STM electric discharge lithography of the bulk HOPG surface. JOURNAL OF MATERIALS PROCESSING TECHNOLOGY,2016,234(/):150-157.
  • [2046] 杨晔. Fabrication of nanoscale to microscale 2.5D square patterns on metallic films by the coupling AFM lithography. Journal of Manufacturing Processes,2019,46(/):129-138.
  • [2047] 杨晔. Direct etching of nano/microscale patterns with both few-layer graphene and high-depth graphite structures by the raster STM electric lithography in the ambient conditions. JOURNAL OF MICROSCOPY,2023,292(1):37-46.
  • [2048] 杨晔. Comparison of the bias voltage effect and the force effect during the nanoscale AFM electric lithography on the copper thin film surface. SCANNING,2016,38(5):412–420.
  • [2049] 杨晔. Study of the electrode tool wear and the probe tip sharpening phenomena during the nanoscale STM electric discharge lithography of the bulk HOPG surface. JOURNAL OF MATERIALS PROCESSING TECHNOLOGY,2016,234(/):150-157.
  • [2050] 王飞,杨晔. 基于Stacking多模型融合的IGBT器件寿命的机器学习预测算法研究. 计算机科学,2022,49(6A):784-789.
  • [2051] 王飞,杨晔. 基于Stacking多模型融合的IGBT器件寿命的机器学习预测算法研究. 计算机科学,2022,49(6A):784-789.
  • [2052] 杨晔. Study of the electrode tool wear and the probe tip sharpening phenomena during the nanoscale STM electric discharge lithography of the bulk HOPG surface. JOURNAL OF MATERIALS PROCESSING TECHNOLOGY,2016,234(/):150-157.
  • [2053] 杨晔. Nanoscale electric discharge-induced FLG peeling off during the STM electric lithography. MICRO & NANO LETTERS,2017,12(10):793-798.
  • [2054] 杨晔. Investigation of the transition from local anodic oxidation to electrical breakdown during nanoscale atomic force microscopy electric lithography of highly oriented pyrolytic graphite. MICROSCOPY AND MICROANALYSIS,2016,22(2):432-439.
  • [2055] 杨晔. Nanoscale electric discharge-induced FLG peeling off during the STM electric lithography. MICRO & NANO LETTERS,2017,12(10):793-798.
  • [2056] 杨晔. Fabrication of nanoscale to microscale 2.5D square patterns on metallic films by the coupling AFM lithography. Journal of Manufacturing Processes,2019,46(/):129-138.
  • [2057] 杨晔. Fabrication of flexible microheater with tunable heating capabilities by direct laser writing and selective electrodeposition. Journal of Manufacturing Processes,2022,74(2022):88-99.
  • [2058] 杨晔. Direct etching of nano/microscale patterns with both few-layer graphene and high-depth graphite structures by the raster STM electric lithography in the ambient conditions. JOURNAL OF MICROSCOPY,2023,292(1):37-46.
  • [2059] 杨晔. Comparison of the bias voltage effect and the force effect during the nanoscale AFM electric lithography on the copper thin film surface. SCANNING,2016,38(5):412–420.
  • [2060] 王飞,杨晔. 基于Stacking多模型融合的IGBT器件寿命的机器学习预测算法研究. 计算机科学,2022,49(6A):784-789.
  • [2061] 杨晔. Nanoscale electric discharge-induced FLG peeling off during the STM electric lithography. MICRO & NANO LETTERS,2017,12(10):793-798.
  • [2062] 杨晔. Nanoscale electric discharge-induced FLG peeling off during the STM electric lithography. MICRO & NANO LETTERS,2017,12(10):793-798.
  • [2063] 杨晔. Investigation of the transition from local anodic oxidation to electrical breakdown during nanoscale atomic force microscopy electric lithography of highly oriented pyrolytic graphite. MICROSCOPY AND MICROANALYSIS,2016,22(2):432-439.
  • [2064] 杨晔. Interpolation and difference optimized machine learning model for accurate prediction of silicon etching depth with small sample dataset. JOURNAL OF VACUUM SCIENCE & TECHNOLOGY B,2023,41(2023):052602.
  • [2065] 杨晔. Comparison of the bias voltage effect and the force effect during the nanoscale AFM electric lithography on the copper thin film surface. SCANNING,2016,38(5):412–420.
  • [2066] 杨晔. Fabrication of nanoscale to microscale 2.5D square patterns on metallic films by the coupling AFM lithography. Journal of Manufacturing Processes,2019,46(/):129-138.
  • [2067] 杨晔. Fabrication of flexible microheater with tunable heating capabilities by direct laser writing and selective electrodeposition. Journal of Manufacturing Processes,2022,74(2022):88-99.
  • [2068] 杨晔. Direct etching of nano/microscale patterns with both few-layer graphene and high-depth graphite structures by the raster STM electric lithography in the ambient conditions. JOURNAL OF MICROSCOPY,2023,292(1):37-46.
  • [2069] 杨晔. Nanoscale electric discharge-induced FLG peeling off during the STM electric lithography. MICRO & NANO LETTERS,2017,12(10):793-798.
  • [2070] 杨晔. Nanoscale electric discharge-induced FLG peeling off during the STM electric lithography. MICRO & NANO LETTERS,2017,12(10):793-798.
  • [2071] 杨晔. Investigation of the transition from local anodic oxidation to electrical breakdown during nanoscale atomic force microscopy electric lithography of highly oriented pyrolytic graphite. MICROSCOPY AND MICROANALYSIS,2016,22(2):432-439.
  • [2072] 杨晔. Interpolation and difference optimized machine learning model for accurate prediction of silicon etching depth with small sample dataset. JOURNAL OF VACUUM SCIENCE & TECHNOLOGY B,2023,41(2023):052602.
  • [2073] 杨晔. Comparison of the bias voltage effect and the force effect during the nanoscale AFM electric lithography on the copper thin film surface. SCANNING,2016,38(5):412–420.
  • [2074] 杨晔. Fabrication of nanoscale to microscale 2.5D square patterns on metallic films by the coupling AFM lithography. Journal of Manufacturing Processes,2019,46(/):129-138.
  • [2075] 杨晔. Fabrication of flexible microheater with tunable heating capabilities by direct laser writing and selective electrodeposition. Journal of Manufacturing Processes,2022,74(2022):88-99.
  • [2076] 杨晔. Direct etching of nano/microscale patterns with both few-layer graphene and high-depth graphite structures by the raster STM electric lithography in the ambient conditions. JOURNAL OF MICROSCOPY,2023,292(1):37-46.
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  • [2078] 杨晔. Fabrication of flexible microheater with tunable heating capabilities by direct laser writing and selective electrodeposition. Journal of Manufacturing Processes,2022,74(2022):88-99.
  • [2079] 王飞,杨晔. 基于Stacking多模型融合的IGBT器件寿命的机器学习预测算法研究. 计算机科学,2022,49(6A):784-789.
  • [2080] 杨晔. Fabrication of flexible microheater with tunable heating capabilities by direct laser writing and selective electrodeposition. Journal of Manufacturing Processes,2022,74(2022):88-99.
  • [2081] 杨晔. Direct etching of nano/microscale patterns with both few-layer graphene and high-depth graphite structures by the raster STM electric lithography in the ambient conditions. JOURNAL OF MICROSCOPY,2023,292(1):37-46.
  • [2082] 杨晔. Comparison of the bias voltage effect and the force effect during the nanoscale AFM electric lithography on the copper thin film surface. SCANNING,2016,38(5):412–420.
  • [2083] 王飞,杨晔. 基于Stacking多模型融合的IGBT器件寿命的机器学习预测算法研究. 计算机科学,2022,49(6A):784-789.
  • [2084] 杨晔. Fabrication of flexible microheater with tunable heating capabilities by direct laser writing and selective electrodeposition. Journal of Manufacturing Processes,2022,74(2022):88-99.
  • [2085] 杨晔. Direct etching of nano/microscale patterns with both few-layer graphene and high-depth graphite structures by the raster STM electric lithography in the ambient conditions. JOURNAL OF MICROSCOPY,2023,292(1):37-46.
  • [2086] 杨晔. Comparison of the bias voltage effect and the force effect during the nanoscale AFM electric lithography on the copper thin film surface. SCANNING,2016,38(5):412–420.
  • [2087] 杨晔. Study of the electrode tool wear and the probe tip sharpening phenomena during the nanoscale STM electric discharge lithography of the bulk HOPG surface. JOURNAL OF MATERIALS PROCESSING TECHNOLOGY,2016,234(/):150-157.
  • [2088] 杨晔. Nanoscale electric discharge-induced FLG peeling off during the STM electric lithography. MICRO & NANO LETTERS,2017,12(10):793-798.
  • [2089] 杨晔. Investigation of the transition from local anodic oxidation to electrical breakdown during nanoscale atomic force microscopy electric lithography of highly oriented pyrolytic graphite. MICROSCOPY AND MICROANALYSIS,2016,22(2):432-439.
  • [2090] 王飞,杨晔. 基于Stacking多模型融合的IGBT器件寿命的机器学习预测算法研究. 计算机科学,2022,49(6A):784-789.
  • [2091] 杨晔. Study of the electrode tool wear and the probe tip sharpening phenomena during the nanoscale STM electric discharge lithography of the bulk HOPG surface. JOURNAL OF MATERIALS PROCESSING TECHNOLOGY,2016,234(/):150-157.
  • [2092] 杨晔. Nanoscale electric discharge-induced FLG peeling off during the STM electric lithography. MICRO & NANO LETTERS,2017,12(10):793-798.
  • [2093] 杨晔. Investigation of the transition from local anodic oxidation to electrical breakdown during nanoscale atomic force microscopy electric lithography of highly oriented pyrolytic graphite. MICROSCOPY AND MICROANALYSIS,2016,22(2):432-439.
  • [2094] 王飞,杨晔. 基于Stacking多模型融合的IGBT器件寿命的机器学习预测算法研究. 计算机科学,2022,49(6A):784-789.
  • [2095] 杨晔. Nanoscale electric discharge-induced FLG peeling off during the STM electric lithography. MICRO & NANO LETTERS,2017,12(10):793-798.
  • [2096] 杨晔. Investigation of the transition from local anodic oxidation to electrical breakdown during nanoscale atomic force microscopy electric lithography of highly oriented pyrolytic graphite. MICROSCOPY AND MICROANALYSIS,2016,22(2):432-439.
  • [2097] 杨晔. Study of the electrode tool wear and the probe tip sharpening phenomena during the nanoscale STM electric discharge lithography of the bulk HOPG surface. JOURNAL OF MATERIALS PROCESSING TECHNOLOGY,2016,234(/):150-157.
  • [2098] 杨晔. Nanoscale electric discharge-induced FLG peeling off during the STM electric lithography. MICRO & NANO LETTERS,2017,12(10):793-798.
  • [2099] 王飞,杨晔. 基于Stacking多模型融合的IGBT器件寿命的机器学习预测算法研究. 计算机科学,2022,49(6A):784-789.
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  • [2101] 杨晔. Nanoscale electric discharge-induced FLG peeling off during the STM electric lithography. MICRO & NANO LETTERS,2017,12(10):793-798.
  • [2102] 杨晔. Fabrication of nanoscale to microscale 2.5D square patterns on metallic films by the coupling AFM lithography. Journal of Manufacturing Processes,2019,46(/):129-138.
  • [2103] 杨晔. Fabrication of flexible microheater with tunable heating capabilities by direct laser writing and selective electrodeposition. Journal of Manufacturing Processes,2022,74(2022):88-99.
  • [2104] 杨晔. Direct etching of nano/microscale patterns with both few-layer graphene and high-depth graphite structures by the raster STM electric lithography in the ambient conditions. JOURNAL OF MICROSCOPY,2023,292(1):37-46.
  • [2105] 杨晔. Nanoscale electric discharge-induced FLG peeling off during the STM electric lithography. MICRO & NANO LETTERS,2017,12(10):793-798.
  • [2106] 杨晔. Investigation of the transition from local anodic oxidation to electrical breakdown during nanoscale atomic force microscopy electric lithography of highly oriented pyrolytic graphite. MICROSCOPY AND MICROANALYSIS,2016,22(2):432-439.
  • [2107] 杨晔. Interpolation and difference optimized machine learning model for accurate prediction of silicon etching depth with small sample dataset. JOURNAL OF VACUUM SCIENCE & TECHNOLOGY B,2023,41(2023):052602.
  • [2108] 杨晔. Study of the electrode tool wear and the probe tip sharpening phenomena during the nanoscale STM electric discharge lithography of the bulk HOPG surface. JOURNAL OF MATERIALS PROCESSING TECHNOLOGY,2016,234(/):150-157.
  • [2109] 杨晔. Investigation of the transition from local anodic oxidation to electrical breakdown during nanoscale atomic force microscopy electric lithography of highly oriented pyrolytic graphite. MICROSCOPY AND MICROANALYSIS,2016,22(2):432-439.
  • [2110] 杨晔. Interpolation and difference optimized machine learning model for accurate prediction of silicon etching depth with small sample dataset. JOURNAL OF VACUUM SCIENCE & TECHNOLOGY B,2023,41(2023):052602.
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  • [2112] 杨晔. Nanoscale electric discharge-induced FLG peeling off during the STM electric lithography. MICRO & NANO LETTERS,2017,12(10):793-798.
  • [2113] 杨晔. Investigation of the transition from local anodic oxidation to electrical breakdown during nanoscale atomic force microscopy electric lithography of highly oriented pyrolytic graphite. MICROSCOPY AND MICROANALYSIS,2016,22(2):432-439.
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  • [2115] 杨晔. Fabrication of nanoscale to microscale 2.5D square patterns on metallic films by the coupling AFM lithography. Journal of Manufacturing Processes,2019,46(/):129-138.
  • [2116] 杨晔. Fabrication of flexible microheater with tunable heating capabilities by direct laser writing and selective electrodeposition. Journal of Manufacturing Processes,2022,74(2022):88-99.
  • [2117] 杨晔. Direct etching of nano/microscale patterns with both few-layer graphene and high-depth graphite structures by the raster STM electric lithography in the ambient conditions. JOURNAL OF MICROSCOPY,2023,292(1):37-46.
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  • [2119] 杨晔. Fabrication of nanoscale to microscale 2.5D square patterns on metallic films by the coupling AFM lithography. Journal of Manufacturing Processes,2019,46(/):129-138.
  • [2120] 杨晔. Fabrication of flexible microheater with tunable heating capabilities by direct laser writing and selective electrodeposition. Journal of Manufacturing Processes,2022,74(2022):88-99.
  • [2121] 杨晔. Direct etching of nano/microscale patterns with both few-layer graphene and high-depth graphite structures by the raster STM electric lithography in the ambient conditions. JOURNAL OF MICROSCOPY,2023,292(1):37-46.
  • [2122] 杨晔. Study of the electrode tool wear and the probe tip sharpening phenomena during the nanoscale STM electric discharge lithography of the bulk HOPG surface. JOURNAL OF MATERIALS PROCESSING TECHNOLOGY,2016,234(/):150-157.
  • [2123] 杨晔. Nanoscale electric discharge-induced FLG peeling off during the STM electric lithography. MICRO & NANO LETTERS,2017,12(10):793-798.
  • [2124] 杨晔. Fabrication of nanoscale to microscale 2.5D square patterns on metallic films by the coupling AFM lithography. Journal of Manufacturing Processes,2019,46(/):129-138.
  • [2125] 杨晔. Fabrication of flexible microheater with tunable heating capabilities by direct laser writing and selective electrodeposition. Journal of Manufacturing Processes,2022,74(2022):88-99.
  • [2126] 杨晔. Direct etching of nano/microscale patterns with both few-layer graphene and high-depth graphite structures by the raster STM electric lithography in the ambient conditions. JOURNAL OF MICROSCOPY,2023,292(1):37-46.
  • [2127] 杨晔. Study of the electrode tool wear and the probe tip sharpening phenomena during the nanoscale STM electric discharge lithography of the bulk HOPG surface. JOURNAL OF MATERIALS PROCESSING TECHNOLOGY,2016,234(/):150-157.
  • [2128] 杨晔. Nanoscale electric discharge-induced FLG peeling off during the STM electric lithography. MICRO & NANO LETTERS,2017,12(10):793-798.
  • [2129] 杨晔. Direct etching of nano/microscale patterns with both few-layer graphene and high-depth graphite structures by the raster STM electric lithography in the ambient conditions. JOURNAL OF MICROSCOPY,2023,292(1):37-46.
  • [2130] 杨晔. Fabrication of flexible microheater with tunable heating capabilities by direct laser writing and selective electrodeposition. Journal of Manufacturing Processes,2022,74(2022):88-99.
  • [2131] 杨晔. Direct etching of nano/microscale patterns with both few-layer graphene and high-depth graphite structures by the raster STM electric lithography in the ambient conditions. JOURNAL OF MICROSCOPY,2023,292(1):37-46.
  • [2132] 杨晔. Comparison of the bias voltage effect and the force effect during the nanoscale AFM electric lithography on the copper thin film surface. SCANNING,2016,38(5):412–420.
  • [2133] 杨晔. Nanoscale electric discharge-induced FLG peeling off during the STM electric lithography. MICRO & NANO LETTERS,2017,12(10):793-798.
  • [2134] 杨晔. Investigation of the transition from local anodic oxidation to electrical breakdown during nanoscale atomic force microscopy electric lithography of highly oriented pyrolytic graphite. MICROSCOPY AND MICROANALYSIS,2016,22(2):432-439.
  • [2135] 杨晔. Interpolation and difference optimized machine learning model for accurate prediction of silicon etching depth with small sample dataset. JOURNAL OF VACUUM SCIENCE & TECHNOLOGY B,2023,41(2023):052602.
  • [2136] 杨晔. Study of the electrode tool wear and the probe tip sharpening phenomena during the nanoscale STM electric discharge lithography of the bulk HOPG surface. JOURNAL OF MATERIALS PROCESSING TECHNOLOGY,2016,234(/):150-157.
  • [2137] 杨晔. Investigation of the transition from local anodic oxidation to electrical breakdown during nanoscale atomic force microscopy electric lithography of highly oriented pyrolytic graphite. MICROSCOPY AND MICROANALYSIS,2016,22(2):432-439.
  • [2138] 杨晔. Comparison of the bias voltage effect and the force effect during the nanoscale AFM electric lithography on the copper thin film surface. SCANNING,2016,38(5):412–420.
  • [2139] 杨晔. Comparison of the bias voltage effect and the force effect during the nanoscale AFM electric lithography on the copper thin film surface. SCANNING,2016,38(5):412–420.
  • [2140] 杨晔. Direct etching of nano/microscale patterns with both few-layer graphene and high-depth graphite structures by the raster STM electric lithography in the ambient conditions. JOURNAL OF MICROSCOPY,2023,292(1):37-46.
  • [2141] 杨晔. Comparison of the bias voltage effect and the force effect during the nanoscale AFM electric lithography on the copper thin film surface. SCANNING,2016,38(5):412–420.
  • [2142] 杨晔. Fabrication of flexible microheater with tunable heating capabilities by direct laser writing and selective electrodeposition. Journal of Manufacturing Processes,2022,74(2022):88-99.
  • [2143] 杨晔. Comparison of the bias voltage effect and the force effect during the nanoscale AFM electric lithography on the copper thin film surface. SCANNING,2016,38(5):412–420.
  • [2144] 杨晔. Fabrication of flexible microheater with tunable heating capabilities by direct laser writing and selective electrodeposition. Journal of Manufacturing Processes,2022,74(2022):88-99.
  • [2145] 杨晔. Direct etching of nano/microscale patterns with both few-layer graphene and high-depth graphite structures by the raster STM electric lithography in the ambient conditions. JOURNAL OF MICROSCOPY,2023,292(1):37-46.
  • [2146] 杨晔. Comparison of the bias voltage effect and the force effect during the nanoscale AFM electric lithography on the copper thin film surface. SCANNING,2016,38(5):412–420.
  • [2147] 杨晔. Fabrication of flexible microheater with tunable heating capabilities by direct laser writing and selective electrodeposition. Journal of Manufacturing Processes,2022,74(2022):88-99.
  • [2148] 杨晔. Direct etching of nano/microscale patterns with both few-layer graphene and high-depth graphite structures by the raster STM electric lithography in the ambient conditions. JOURNAL OF MICROSCOPY,2023,292(1):37-46.
  • [2149] 杨晔. Nanoscale electric discharge-induced FLG peeling off during the STM electric lithography. MICRO & NANO LETTERS,2017,12(10):793-798.
  • [2150] 杨晔. Investigation of the transition from local anodic oxidation to electrical breakdown during nanoscale atomic force microscopy electric lithography of highly oriented pyrolytic graphite. MICROSCOPY AND MICROANALYSIS,2016,22(2):432-439.
  • [2151] 杨晔. Interpolation and difference optimized machine learning model for accurate prediction of silicon etching depth with small sample dataset. JOURNAL OF VACUUM SCIENCE & TECHNOLOGY B,2023,41(2023):052602.
  • [2152] 杨晔. Fabrication of nanoscale to microscale 2.5D square patterns on metallic films by the coupling AFM lithography. Journal of Manufacturing Processes,2019,46(/):129-138.
  • [2153] 杨晔. Study of the electrode tool wear and the probe tip sharpening phenomena during the nanoscale STM electric discharge lithography of the bulk HOPG surface. JOURNAL OF MATERIALS PROCESSING TECHNOLOGY,2016,234(/):150-157.
  • [2154] 杨晔. Investigation of the transition from local anodic oxidation to electrical breakdown during nanoscale atomic force microscopy electric lithography of highly oriented pyrolytic graphite. MICROSCOPY AND MICROANALYSIS,2016,22(2):432-439.
  • [2155] 杨晔. Interpolation and difference optimized machine learning model for accurate prediction of silicon etching depth with small sample dataset. JOURNAL OF VACUUM SCIENCE & TECHNOLOGY B,2023,41(2023):052602.
  • [2156] 杨晔. Fabrication of flexible microheater with tunable heating capabilities by direct laser writing and selective electrodeposition. Journal of Manufacturing Processes,2022,74(2022):88-99.
  • [2157] 杨晔. Direct etching of nano/microscale patterns with both few-layer graphene and high-depth graphite structures by the raster STM electric lithography in the ambient conditions. JOURNAL OF MICROSCOPY,2023,292(1):37-46.
  • [2158] 王飞,杨晔. 基于Stacking多模型融合的IGBT器件寿命的机器学习预测算法研究. 计算机科学,2022,49(6A):784-789.
  • [2159] 王飞,杨晔. 基于Stacking多模型融合的IGBT器件寿命的机器学习预测算法研究. 计算机科学,2022,49(6A):784-789.
  • [2160] 王飞,杨晔. 基于Stacking多模型融合的IGBT器件寿命的机器学习预测算法研究. 计算机科学,2022,49(6A):784-789.
  • [2161] 杨晔. Fabrication of nanoscale to microscale 2.5D square patterns on metallic films by the coupling AFM lithography. Journal of Manufacturing Processes,2019,46(/):129-138.
  • [2162] 杨晔. Interpolation and difference optimized machine learning model for accurate prediction of silicon etching depth with small sample dataset. JOURNAL OF VACUUM SCIENCE & TECHNOLOGY B,2023,41(2023):052602.
  • [2163] 杨晔. Fabrication of nanoscale to microscale 2.5D square patterns on metallic films by the coupling AFM lithography. Journal of Manufacturing Processes,2019,46(/):129-138.
  • [2164] 杨晔. Fabrication of flexible microheater with tunable heating capabilities by direct laser writing and selective electrodeposition. Journal of Manufacturing Processes,2022,74(2022):88-99.
  • [2165] 杨晔. Fabrication of nanoscale to microscale 2.5D square patterns on metallic films by the coupling AFM lithography. Journal of Manufacturing Processes,2019,46(/):129-138.
  • [2166] 杨晔. Direct etching of nano/microscale patterns with both few-layer graphene and high-depth graphite structures by the raster STM electric lithography in the ambient conditions. JOURNAL OF MICROSCOPY,2023,292(1):37-46.
  • [2167] 杨晔. Comparison of the bias voltage effect and the force effect during the nanoscale AFM electric lithography on the copper thin film surface. SCANNING,2016,38(5):412–420.
  • [2168] 杨晔. Comparison of the bias voltage effect and the force effect during the nanoscale AFM electric lithography on the copper thin film surface. SCANNING,2016,38(5):412–420.
  • [2169] 杨晔. Study of the electrode tool wear and the probe tip sharpening phenomena during the nanoscale STM electric discharge lithography of the bulk HOPG surface. JOURNAL OF MATERIALS PROCESSING TECHNOLOGY,2016,234(/):150-157.
  • [2170] 杨晔. Comparison of the bias voltage effect and the force effect during the nanoscale AFM electric lithography on the copper thin film surface. SCANNING,2016,38(5):412–420.
  • [2171] 杨晔. Direct etching of nano/microscale patterns with both few-layer graphene and high-depth graphite structures by the raster STM electric lithography in the ambient conditions. JOURNAL OF MICROSCOPY,2023,292(1):37-46.
  • [2172] 杨晔. Fabrication of flexible microheater with tunable heating capabilities by direct laser writing and selective electrodeposition. Journal of Manufacturing Processes,2022,74(2022):88-99.
  • [2173] 杨晔. Study of the electrode tool wear and the probe tip sharpening phenomena during the nanoscale STM electric discharge lithography of the bulk HOPG surface. JOURNAL OF MATERIALS PROCESSING TECHNOLOGY,2016,234(/):150-157.
  • [2174] 杨晔. Study of the electrode tool wear and the probe tip sharpening phenomena during the nanoscale STM electric discharge lithography of the bulk HOPG surface. JOURNAL OF MATERIALS PROCESSING TECHNOLOGY,2016,234(/):150-157.
  • [2175] 王飞,杨晔. 基于Stacking多模型融合的IGBT器件寿命的机器学习预测算法研究. 计算机科学,2022,49(6A):784-789.
  • [2176] 王飞,杨晔. 基于Stacking多模型融合的IGBT器件寿命的机器学习预测算法研究. 计算机科学,2022,49(6A):784-789.
  • [2177] 杨晔. Nanoscale electric discharge-induced FLG peeling off during the STM electric lithography. MICRO & NANO LETTERS,2017,12(10):793-798.
  • [2178] 杨晔. Study of the electrode tool wear and the probe tip sharpening phenomena during the nanoscale STM electric discharge lithography of the bulk HOPG surface. JOURNAL OF MATERIALS PROCESSING TECHNOLOGY,2016,234(/):150-157.
  • [2179] 杨晔. Study of the electrode tool wear and the probe tip sharpening phenomena during the nanoscale STM electric discharge lithography of the bulk HOPG surface. JOURNAL OF MATERIALS PROCESSING TECHNOLOGY,2016,234(/):150-157.
  • [2180] 杨晔. Comparison of the bias voltage effect and the force effect during the nanoscale AFM electric lithography on the copper thin film surface. SCANNING,2016,38(5):412–420.
  • [2181] 杨晔. Study of the electrode tool wear and the probe tip sharpening phenomena during the nanoscale STM electric discharge lithography of the bulk HOPG surface. JOURNAL OF MATERIALS PROCESSING TECHNOLOGY,2016,234(/):150-157.
  • [2182] 杨晔. Fabrication of flexible microheater with tunable heating capabilities by direct laser writing and selective electrodeposition. Journal of Manufacturing Processes,2022,74(2022):88-99.
  • [2183] 杨晔. Nanoscale electric discharge-induced FLG peeling off during the STM electric lithography. MICRO & NANO LETTERS,2017,12(10):793-798.
著作
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  • [533] 杨晔. Advances in Nanotechnology: Volume 18. Nova Science Publishers Inc., 2017.
  • [534] 杨晔. Advances in Nanotechnology: Volume 18. Nova Science Publishers Inc., 2017.
  • [535] 杨晔. Advances in Nanotechnology: Volume 18. Nova Science Publishers Inc., 2017.
  • [536] 杨晔. Advances in Nanotechnology: Volume 18. Nova Science Publishers Inc., 2017.
  • [537] 杨晔. Advances in Nanotechnology: Volume 18. Nova Science Publishers Inc., 2017.
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  • [540] 杨晔. Advances in Nanotechnology: Volume 18. Nova Science Publishers Inc., 2017.
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  • [544] 杨晔. Advances in Nanotechnology: Volume 18. Nova Science Publishers Inc., 2017.
  • [545] 杨晔. Advances in Nanotechnology: Volume 18. Nova Science Publishers Inc., 2017.
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  • [563] 杨晔. Advances in Nanotechnology: Volume 18. Nova Science Publishers Inc., 2017.
  • [564] 杨晔. Advances in Nanotechnology: Volume 18. Nova Science Publishers Inc., 2017.
  • [565] 杨晔. Advances in Nanotechnology: Volume 18. Nova Science Publishers Inc., 2017.
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  • [571] 杨晔. Advances in Nanotechnology: Volume 18. Nova Science Publishers Inc., 2017.
  • [572] 杨晔. Advances in Nanotechnology: Volume 18. Nova Science Publishers Inc., 2017.
  • [573] 杨晔. Advances in Nanotechnology: Volume 18. Nova Science Publishers Inc., 2017.
  • [574] 杨晔. Advances in Nanotechnology: Volume 18. Nova Science Publishers Inc., 2017.
  • [575] 杨晔. Advances in Nanotechnology: Volume 18. Nova Science Publishers Inc., 2017.
  • [576] 杨晔. Advances in Nanotechnology: Volume 18. Nova Science Publishers Inc., 2017.
  • [577] 杨晔. Advances in Nanotechnology: Volume 18. Nova Science Publishers Inc., 2017.
  • [578] 杨晔. Advances in Nanotechnology: Volume 18. Nova Science Publishers Inc., 2017.
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  • [585] 杨晔. Advances in Nanotechnology: Volume 18. Nova Science Publishers Inc., 2017.
  • [586] 杨晔. Advances in Nanotechnology: Volume 18. Nova Science Publishers Inc., 2017.
  • [587] 杨晔. Advances in Nanotechnology: Volume 18. Nova Science Publishers Inc., 2017.
  • [588] 杨晔. Advances in Nanotechnology: Volume 18. Nova Science Publishers Inc., 2017.
  • [589] 杨晔. Advances in Nanotechnology: Volume 18. Nova Science Publishers Inc., 2017.
  • [590] 杨晔. Advances in Nanotechnology: Volume 18. Nova Science Publishers Inc., 2017.
  • [591] 杨晔. Advances in Nanotechnology: Volume 18. Nova Science Publishers Inc., 2017.
  • [592] 杨晔. Advances in Nanotechnology: Volume 18. Nova Science Publishers Inc., 2017.
  • [593] 杨晔. Advances in Nanotechnology: Volume 18. Nova Science Publishers Inc., 2017.
  • [594] 杨晔. Advances in Nanotechnology: Volume 18. Nova Science Publishers Inc., 2017.
  • [595] 杨晔. Advances in Nanotechnology: Volume 18. Nova Science Publishers Inc., 2017.
  • [596] 杨晔. Advances in Nanotechnology: Volume 18. Nova Science Publishers Inc., 2017.
  • [597] 杨晔. Advances in Nanotechnology: Volume 18. Nova Science Publishers Inc., 2017.
  • [598] 杨晔. Advances in Nanotechnology: Volume 18. Nova Science Publishers Inc., 2017.
  • [599] 杨晔. Advances in Nanotechnology: Volume 18. Nova Science Publishers Inc., 2017.
  • [600] 杨晔. Advances in Nanotechnology: Volume 18. Nova Science Publishers Inc., 2017.
  • [601] 杨晔. Advances in Nanotechnology: Volume 18. Nova Science Publishers Inc., 2017.
  • [602] 杨晔. Advances in Nanotechnology: Volume 18. Nova Science Publishers Inc., 2017.
  • [603] 杨晔. Advances in Nanotechnology: Volume 18. Nova Science Publishers Inc., 2017.
  • [604] 杨晔. Advances in Nanotechnology: Volume 18. Nova Science Publishers Inc., 2017.
  • [605] 杨晔. Advances in Nanotechnology: Volume 18. Nova Science Publishers Inc., 2017.
  • [606] 杨晔. Advances in Nanotechnology: Volume 18. Nova Science Publishers Inc., 2017.
  • [607] 杨晔. Advances in Nanotechnology: Volume 18. Nova Science Publishers Inc., 2017.
  • [608] 杨晔. Advances in Nanotechnology: Volume 18. Nova Science Publishers Inc., 2017.
  • [609] 杨晔. Advances in Nanotechnology: Volume 18. Nova Science Publishers Inc., 2017.
  • [610] 杨晔. Advances in Nanotechnology: Volume 18. Nova Science Publishers Inc., 2017.
  • [611] 杨晔. Advances in Nanotechnology: Volume 18. Nova Science Publishers Inc., 2017.
  • [612] 杨晔. Advances in Nanotechnology: Volume 18. Nova Science Publishers Inc., 2017.
  • [613] 杨晔. Advances in Nanotechnology: Volume 18. Nova Science Publishers Inc., 2017.
  • [614] 杨晔. Advances in Nanotechnology: Volume 18. Nova Science Publishers Inc., 2017.
  • [615] 杨晔. Advances in Nanotechnology: Volume 18. Nova Science Publishers Inc., 2017.
  • [616] 杨晔. Advances in Nanotechnology: Volume 18. Nova Science Publishers Inc., 2017.
  • [617] 杨晔. Advances in Nanotechnology: Volume 18. Nova Science Publishers Inc., 2017.
  • [618] 杨晔. Advances in Nanotechnology: Volume 18. Nova Science Publishers Inc., 2017.
  • [619] 杨晔. Advances in Nanotechnology: Volume 18. Nova Science Publishers Inc., 2017.
  • [620] 杨晔. Advances in Nanotechnology: Volume 18. Nova Science Publishers Inc., 2017.
科研项目
  • [1] 杨晔.国家自然科学基金（青年科学基金项目）:直写式AFM电刻蚀加工高质量石墨烯纳米带及其器件的特性研究,结题.
  • [2] 杨晔.校一般科研项目:AFM电刻蚀加工金属薄膜材料的关键技术研究,在研.
专利成果
  • [1] 杨晔. 基于AFM直写式力电耦合刻蚀加工准三维微纳米结构的方法. 中国专利:申请状态(申请号:201910710823.6).
  • [2] 杨晔. 一种快速原位放电修整加工STM探针的方法. 中国专利:ZL201910356500.1,2020-10-16.
  • [3] 胡智炜,郑紫云,王新康,杨晔. 一种复合式婴儿座椅移动车. 中国专利:申请状态(申请号:201721863656.1).
  • [4] 陈哲,马东晓,杨晔. 一种立式自行车架. 中国专利:申请状态(申请号:201721478816.0).

教学工作

教职工课程信息
开课学年开课学期课程名称
2025-20261线性代数
2023-20243见习实习
2018-20191线性代数
2020-20212毕业论文（设计）
2023-20241专业导论
2023-20242Arduino入门
2020-20211专业实习
2021-20221专业实习
2022-20231线性代数
2024-20252python 数据分析
2017-20182金属切削原理与刀具
2021-20223见习实习
2022-20233见习实习
2017-20181线性代数
2016-20172传热学
2022-20232热流体工程
2018-20192金属切削原理与刀具
2016-20171线性代数
2021-20222Arduino入门
2024-20251专业导论

荣誉奖励

社会兼职

International Journal of Precision Engineering and Manufacturing 等国际期刊审稿人，中国微纳米加工协会高级会员，中国计算机协会CCF会员，IEEE会员

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