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纳米尺度标准样片光学表征方法的研究 被引量:8

Research of the Optical Characterization Method on the Nano Dimension Standard Sample
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摘要 重点研究了纳米尺度标准样片的光学表征方法。采用基于纳米测量机(NMM)的激光聚焦传感器(LFS)和扫描白光干涉传感器(SWLIS)分别对平面尺度的标准样片和台阶标准样片进行了测量、分析与比较。实验结果表明,利用该纳米测量机LFS对标定值为3μm的TGZ1一维栅格样片进行测量,其扩展不确定度为4.2 nm,实现了精确表征。利用SWLIS测量方法对标定值为49.217μm的SHS8-50.0高台阶标准样板进行测量,测量不确定度分析结果为0.065 7μm,实现了采用光学检测技术跨尺度对纳米尺度精密器件和结构进行表征。扩大了基于纳米测量机光学表征方法的应用范围,有利于纳米几何量量值溯源体系的建立。 The optical characterization method of the nano dimension standard sample was researched.The plane dimension standard sample and high step standard sample were measured,analysed and compared respectively through the laser focus sensor(LFS) and scanning white light interference sensor(SWLIS) based on the nano-measuring machine(NMM).The experimental result indicates that the expanded uncertainty of TGZ1 one dimension grading sample with 3 μm calibration value with the LFS of the NMM is 4.2 nm,which obtains precise characterization.The SHS8-50.0 high step standard sample with 49.217 μm calibration value was measured with the SWLIS measurement method,and the measured uncertainty was 0.065 7 μm.The cha-racterization of the nano dimension precision device and structure was achieved by scale-span optical inspection technologies.The application scope of the optical characterization method based on the NMM is expanded and it is good for the build of the nano geometrical traceability system.
出处 《微纳电子技术》 CAS 北大核心 2012年第6期406-412,共7页 Micronanoelectronic Technology
基金 国家质检总局公益性项目(201110051) 上海市科委纳米专项(11nm0560800)
关键词 纳米尺度标准样片 光学表征方法 跨尺度 镀膜技术 表面粗糙度 nano dimension standard sample; optical characterization method; trans-dimension; coating technology; surface roughness
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参考文献10

  • 1戴高良,KOENDERS Ludger,DANZEBRINK Ulrich,WILKENING Günter,周健雄,陈振宇.采用计量型扫描力显微镜校准微纳米标准样板[J].纳米技术与精密工程,2006,4(1):10-19. 被引量:8
  • 2WECKENMANN A,PEGGS G,HOFFMANN J.Probing sys-tems for dimensional micro-and nano-metrology[J].MeasurementScinence and Technology,2006,17(3):504-509.
  • 3DAI G L,POHLENZ F,XU M,et al.Accurate and traceablemeasurement of nano-and micro-structures[J].MeasurementSience and Technology,2006,17(3):545-552.
  • 4LIU S,WATANABE K,CHEN X,et al.Profile measure-ment of a wide-area resist surface using a multi-ball cantileversystem[J].Precision Engineering,2009,33(1):50-55.
  • 5MICHIHATA M,TAKAYA Y,HAYASHI T.Nano positionsensing based on laser trapping technique for flat surfaces[J].Measurement Science and Technology,2008,19(8):1-7.
  • 6LANGLOTZ E,DONTSOV D,SCHOTT W.3D capabilityfor nanopositioning and nanometrology[J].Laser+Photo-nics,2011,43(1):36-39.
  • 7JGER G,HAUSOTTE T,MANSKE E,et al.Nanomea-suring and nanopositioning engineering[J].Measurement,2006,43(9):1099-1105.
  • 8MASTYLO R,DONTSOVB D,MANSKE E,et al.A focus sen-sor for an application in a nanopositioning and nanomeasuring ma-chine[J].Proceedinds of SPIE,2005,5856:238-244.
  • 9郭彤,胡春光,陈津平,傅星,胡小唐.垂直扫描白光干涉术用于微机电系统的尺寸表征[J].光学学报,2007,27(4):668-672. 被引量:20
  • 10张红霞,张以谟,井文才,周革,李朝辉.微表面形貌检测中Mirau干涉物镜的优化设计[J].光电子.激光,2003,14(12):1292-1295. 被引量:5

二级参考文献26

  • 1丁志华 王桂英 王之江 等.表面微结构检测系统及其检测方法[P].中国发明专利:96116263.5.2001-04-04.
  • 2[1]Dziomba T,Koenders L,Wilkening G.Towards a Guideline for SPM Calibration,Nanoscale Calibration Standards and Methods:Dimensional and Related Measurements in the Micro and Nanometer Range [M].Edited by Wilkening G,Koenders L.Wiley-VCH Verlag GmbH,2005.173-192.
  • 3[2]Bienias M,Gao S,Hasche K,et al.A metrological scanning force microscope used for coating thickness and other topographical measurements [J].Appl Physics A,1998,66:837-842.
  • 4[3]Dai G,Pohlenz F,Danzebrink H U,et al.Improving the performance of interferometers in metrological scanning probe microscopes[J].Meas Sci Technol,2004,15:444-450.
  • 5[4]Dixson R,Koning R,Fu J,et al.Accurate dimensional metrology with atomic force microscopy[J].Proc SPIE,2000,3998:362-368.
  • 6[5]Picotto G B,Pisani M.A sample scanning system with nanometric accuracy for quantitative SPM measurements [J].Ultramicroscopy,2001,86:247-254.
  • 7[6]Gonda S,Doi T,Kurosawa T,et al.Real-time,interferometrically measuring atomic force microscope for direct calibration of standards[J].Rev Sci Instrum,1999,70(8):3362-3368.
  • 8[7]Haycocks J,Jackson K.Traceable calibration of transfer standards for scanning probe microscopy [J].Precision engineering,2005,29:168-175.
  • 9[8]Koops K R,Dirscherl K.Nanometrology standards in the Netherlands:the traceable scanning probe microscope [A].In:Proc of 3trd Euspen Conference [C].Eindhoven,Netherlands ,2002:525-528.
  • 10[9]Meli F,Thalmann R.Long-range AFM rofiler used for accurate pitch measurements [J].Meas Sci Technol,1998,9:1087-1092.

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