Quantitative method to measure thermal conductivity of one-dimensional nanostructures based on scanning thermal wave microscopy

被引:0
|
作者
机构
[1] Dept. of Mechanical Engineering, Korea Univ.
来源
Kwon, Oh Myoung (omkwon@korea.ac.kr) | 1600年 / Korean Society of Mechanical Engineers卷 / 38期
关键词
Nanostructure; Scanning Thermal Wave Microscopy; Thermal Conductivity; Thermal Contact Resistance;
D O I
10.3795/KSME-B.2014.38.12.957
中图分类号
学科分类号
摘要
We present a method to quantitatively measure the thermal conductivity of one-dimensional nanostructures by utilizing scanning thermal wave microscopy (STWM) at a nanoscale spatial resolution. In this paper, we explain the principle for measuring the thermal diffusivity of one-dimensional nanostructures using STWM and the theoretical analysis procedure for quantifying the thermal diffusivity. The SWTM measurement method obtains the thermal conductivity by measuring the thermal diffusivity, which has only a phase lag relative to the distance corresponding to the transferred thermal wave. It is not affected by the thermal contact resistances between the heat source and nanostructure and between the nanostructure and probe. Thus, the heat flux applied to the nanostructure is accurately obtained. The proposed method provides a very simple and quantitative measurement relative to conventional measurement techniques. © 2014 The Korean Society of Mechanical Engineers.
引用
收藏
页码:957 / 962
页数:5
相关论文
共 50 条
  • [31] Studying thermal conductivity of wood at cell wall level by scanning thermal microscopy (SThM)
    Vay, Oliver
    Obersriebnig, Michael
    Mueller, Ulrich
    Konnerth, Johannes
    Gindl-Altmutter, Wolfgang
    HOLZFORSCHUNG, 2013, 67 (02) : 155 - 159
  • [32] Thermoelectric devices based on one-dimensional nanostructures
    Qi, Yangyang
    Wang, Zhen
    Zhang, Mingliang
    Yang, Fuhua
    Wang, Xiaodong
    JOURNAL OF MATERIALS CHEMISTRY A, 2013, 1 (20) : 6110 - 6124
  • [33] Construction of a Novel Method of Measuring Thermal Conductivity for Nanostructures
    Ikeda, Hiroya
    Yoshida, Shoma
    Suzuki, Yuhei
    Manimuthu, Veerappan
    Salleh, Faiz
    Kuwahara, Fujio
    Shimomura, Masaru
    Murakami, Kenji
    MAKARA JOURNAL OF TECHNOLOGY, 2015, 19 (01): : 11 - 14
  • [34] Thermal conductivity of one-dimensional organic nanowires: effect of mass difference phonon scattering
    Liu, Bohai
    Zhou, Jun
    Xu, Xiangfan
    Li, Baowen
    NANOTECHNOLOGY, 2020, 31 (32)
  • [35] Simultaneous Measurement of Thermal Diffusivity and Thermal Conductivity by Means of Inverse Solution for One-Dimensional Heat Conduction (Anisotropic Thermal Properties of CFRP for FCEV)
    Masataka Kosaka
    Masanori Monde
    International Journal of Thermophysics, 2015, 36 : 2590 - 2598
  • [36] Simultaneous Measurement of Thermal Diffusivity and Thermal Conductivity by Means of Inverse Solution for One-Dimensional Heat Conduction (Anisotropic Thermal Properties of CFRP for FCEV)
    Kosaka, Masataka
    Monde, Masanori
    INTERNATIONAL JOURNAL OF THERMOPHYSICS, 2015, 36 (10-11) : 2590 - 2598
  • [37] Thermal conductivity estimation via a multi-point harmonic one-dimensional convection model
    Tomanek, Lauren B.
    Stutts, Daniel S.
    INTERNATIONAL JOURNAL OF HEAT AND MASS TRANSFER, 2022, 186
  • [38] Strong phonon coupling induces low thermal conductivity of one-dimensional carbon boron nanotube
    An, Meng
    Wang, Haotian
    Yuan, Yuejin
    Chen, Dongsheng
    Ma, Weigang
    Sharshir, Swellam W.
    Zheng, Zhiheng
    Zhao, Yaoxiao
    Zhang, Xing
    SURFACES AND INTERFACES, 2022, 28
  • [39] IMAGING OF LOCAL THERMAL AND ELECTRICAL-CONDUCTIVITY WITH SCANNING FORCE MICROSCOPY
    MAYWALD, M
    PYLKKI, RJ
    BALK, LJ
    SCANNING MICROSCOPY, 1994, 8 (02) : 181 - 188
  • [40] A simple method to grow one-dimensional ZnO nanostructures in air
    Huang, Yuan Ming
    Ma, Qing-lan
    Zhai, Bao-gai
    MATERIALS LETTERS, 2013, 93 : 266 - 268