Measurement Techniques for Thermal Conductivity and Interfacial Thermal Conductance of Bulk and Thin Film Materials

被引:379
作者
Zhao, Dongliang [1 ]
Qian, Xin [1 ]
Gu, Xiaokun [1 ]
Jajja, Saad Ayub [1 ]
Yang, Ronggui [1 ]
机构
[1] Univ Colorado, Dept Mech Engn, Boulder, CO 80309 USA
关键词
bulk solid materials; thin films; thermal conductivity; thermal contact resistance; thermal boundary resistance; interfacial thermal conductance; TIME-DOMAIN THERMOREFLECTANCE; LASER FLASH METHOD; DIFFUSIVITY MEASUREMENTS; BUILDING-MATERIALS; 3-OMEGA METHOD; HEAT-CAPACITY; TRANSPORT; SOLIDS; RESISTANCE; APPARATUS;
D O I
10.1115/1.4034605
中图分类号
TM [电工技术]; TN [电子技术、通信技术];
学科分类号
0808 ; 0809 ;
摘要
Thermal conductivity and interfacial thermal conductance play crucial roles in the design of engineering systems where temperature and thermal stress are of concerns. To date, a variety of measurement techniques are available for both bulk and thin film solid-state materials with a broad temperature range. For thermal characterization of bulk material, the steady-state method, transient hot-wire method, laser flash diffusivity method, and transient plane source (TPS) method are most used. For thin film measurement, the 3x method and the transient thermoreflectance technique including both time-domain and frequency-domain analysis are widely employed. This work reviews several most commonly used measurement techniques. In general, it is a very challenging task to determine thermal conductivity and interfacial thermal conductance with less than 5% error. Selecting a specific measurement technique to characterize thermal properties needs to be based on: (1) knowledge on the sample whose thermophysical properties are to be determined, including the sample geometry and size, and the material preparation method; (2) understanding of fundamentals and procedures of the testing technique, for example, some techniques are limited to samples with specific geometries and some are limited to a specific range of thermophysical properties; and (3) understanding of the potential error sources which might affect the final results, for example, the convection and radiation heat losses.
引用
收藏
页数:19
相关论文
共 139 条
[51]   Apparatus for routine measurements of the thermal conductivity of ice cores [J].
Festa, C ;
Rossi, A .
ANNALS OF GLACIOLOGY, VOL 29, 1999, 1999, 29 :151-154
[52]  
Flynn D. R., 1992, COMPENDIUM THERMOPHY, P33
[54]   Thermal interface conductance across metal alloy-dielectric interfaces [J].
Freedman, Justin P. ;
Yu, Xiaoxiao ;
Davis, Robert F. ;
Gellman, Andrew J. ;
Malen, Jonathan A. .
PHYSICAL REVIEW B, 2016, 93 (03)
[55]   Heat Capacity, Thermal Conductivity, and Interface Resistance Extraction for Single-Walled Carbon Nanotube Films Using Frequency-Domain Thermoreflectance [J].
Gao, Yuan ;
Marconnet, Amy M. ;
Xiang, Rong ;
Maruyama, Shigeo ;
Goodson, Kenneth E. .
IEEE TRANSACTIONS ON COMPONENTS PACKAGING AND MANUFACTURING TECHNOLOGY, 2013, 3 (09) :1524-1532
[56]   Thermal conductance of hydrophilic and hydrophobic interfaces [J].
Ge, Zhenbin ;
Cahill, David G. ;
Braun, Paul V. .
PHYSICAL REVIEW LETTERS, 2006, 96 (18)
[57]   Porous mullite ceramics with low thermal conductivity prepared by foaming and starch consolidation [J].
Gong, Lunlun ;
Wang, Yonghong ;
Cheng, Xudong ;
Zhang, Ruifang ;
Zhang, Heping .
JOURNAL OF POROUS MATERIALS, 2014, 21 (01) :15-21
[58]   TRANSIENT PLANE SOURCE TECHNIQUES FOR THERMAL-CONDUCTIVITY AND THERMAL-DIFFUSIVITY MEASUREMENTS OF SOLID MATERIALS [J].
GUSTAFSSON, SE .
REVIEW OF SCIENTIFIC INSTRUMENTS, 1991, 62 (03) :797-804
[59]   THERMAL-CONDUCTIVITY, THERMAL-DIFFUSIVITY, AND SPECIFIC-HEAT OF THIN SAMPLES FROM TRANSIENT MEASUREMENTS WITH HOT DISK SENSORS [J].
GUSTAVSSON, M ;
KARAWACKI, E ;
GUSTAFSSON, SE .
REVIEW OF SCIENTIFIC INSTRUMENTS, 1994, 65 (12) :3856-3859
[60]   THERMAL CONDUCTIVITY OF HETEROGENEOUS 2-COMPONENT SYSTEMS [J].
HAMILTON, RL ;
CROSSER, OK .
INDUSTRIAL & ENGINEERING CHEMISTRY FUNDAMENTALS, 1962, 1 (03) :187-&