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Which alloy is best for electrical and thermal conductivity? 

Thermal diffusivity
Thermal conductivity
Thermal conductivity measurement
Thermal conduction
Thermoelectric materials

Answers from top 9 papers

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Papers (9)Insight
Journal Article•DOI
Determination of thermo-electrical properties in Sn based alloys
Sezen Aksöz, Yavuz Ocak, K. Keşlioğlu, Necmettin Maraşlı 
26 Jun 2010-Metals and Materials International
20 Citations
According to present experimental results it can be concluded that the thermal and electrical conductivity of Sn based alloys depend on the thermal and electrical conductivity of the alloying elements.
Journal Article•DOI
Effects of silicon and thermo-mechanical process on microstructure and properties of Cu–10Ni–3Al–0.8Si alloy
Leinuo Shen, Leinuo Shen, Zhou Li, Zheming Zhang, Qiyi Dong, Zhu Xiao, Qian Lei, Wenting Qiu 
01 Oct 2014-Materials & Design
34 Citations
The comprehensive properties, especially the electrical conductivity of the designed alloy, were much higher than those of traditional Cu–Ni–Al alloys.
Proceedings Article•DOI
Design and fabrication of a ferrite-lined HOM load for CESR-B
D. Moffat, P. Barnes, J. Kirchgessner, Hasan Padamsee, J. Sears, Maury Tigner, A. Tribendis, V. Veshcherevich 
17 May 1993
14 Citations
This alloy provides good thermal, as well as electrical, conductivity.
Journal Article•DOI
Thermal conductivity of Inconel 718 and 304 stainless steel
J. N. Sweet, E. P. Roth, M. Moss 
01 Jul 1987-International Journal of Thermophysics
110 Citations
In the case of Inconel 718, the measurements show that the conductivity depends critically on the sample thermal history and the metallurgical condition of the alloy.
Journal Article•DOI
The thermal conductivity of C17510 beryllium–copper alloy below 1 K
Adam Woodcraft, R. V. Sudiwala, R. S. Bhatia 
01 Aug 2001-Cryogenics
17 Citations
This is therefore a useful material when high strength and thermal conductivity are both required.
Journal Article•DOI
Effects of precipitates and its interface on thermal conductivity of Mg–12Gd alloy during aging treatment
Liping Zhong, Yongjian Wang, Gong Min, Xingwen Zheng, Jian Peng 
01 Apr 2018-Materials Characterization
29 Citations
Results indicated that the thermal conductivity and micro-hardness of the alloy could be significantly improved by aging treatment, and Mg–12Gd alloy exhibited a typical aging hardening response with the increasing aging time.
Journal Article•DOI
Thermal conductivity of Ga1−xAlxAs alloys
Martin A. Afromowitz
01 Mar 1973-Journal of Applied Physics
170 Citations
The results indicate that the thermal conductivity of the alloy is well described by an existing theoretical treatment of high‐temperature lattice thermal conductivity of disordered semiconductor alloys.
Journal Article•DOI
Critical analysis of lattice thermal conductivity of half-Heusler alloys using variations of Callaway model
A. S. Petersen, Sriparna Bhattacharya, Terry M. Tritt, S. J. Poon 
16 Jan 2015-Journal of Applied Physics
34 Citations
The correlation between the coefficients obtained with experimental fits and theoretical models shows a predictable and systematic relationship between alloy composition and the thermal conductivity.
Journal Article•DOI
Glassy thermal conductivity in the two-phase CuxAg3−xSbSeTe2 alloy and high temperature thermoelectric behavior
F. Drymiotis, T Drye, Daniel Rhodes, Q. Zhang, J C Lashey, Y Wang, S. Cawthorne, B. Ma, S. Lindsey, Terry M. Tritt 
27 Jan 2010-Journal of Physics: Condensed Matter
10 Citations
We find that the thermal conductivity of this crystalline alloy has a temperature dependence strikingly similar to those of amorphous solids.

Related Questions

Why is the electronic part larger than the lattice part in metallic compound in thermal conductivity?3 answersThe electronic part is larger than the lattice part in metallic compounds in thermal conductivity due to the strong electron-phonon coupling in these compounds. This is attributed to the larger electron-phonon coupling constant with a high electron density of states within the Fermi window and high phonon frequency in metallic compounds. In contrast, noble metals have weak electron-phonon coupling, resulting in lower electron thermal conductivities. The electron-phonon coupling effect on phonon thermal conductivity is stronger in metallic compounds compared to noble metals. Additionally, the behavior of thermal conductivity at high temperatures in Al-based complex structure alloys is mainly influenced by the electrons in the pseudogap persisting at the Fermi level. These factors contribute to the larger electronic part in metallic compounds compared to the lattice part in thermal conductivity.
What are the mechanisms that contribute to the lattice thermal conductivity of metallic materials?5 answersThe lattice thermal conductivity of metallic materials is mainly influenced by phonon transport, which is the main mechanism of heat transfer in non-metal materials. The lattice dynamics, chemical bonding, and lattice structure play crucial roles in determining the thermal conductivity of materials. The physical approximations and numerical approximations used in theoretical calculations also affect the results. In low-dimensional materials, the covalent character of atomic bonds and the cophonicity metric promote fast motions of cations, leading to a large thermal conductivity. In superlattices, interface scattering, particularly diffuse interface scattering, is the most important mechanism for reducing thermal conductivity. These mechanisms and factors contribute to the understanding of lattice thermal conductivity in metallic materials.
What is the thermal conductivity of silver?5 answersThe thermal conductivity of silver is highly valued for its use in thermally conductive adhesives and nanofluids. Silver nanoflakes prepared through a "top-down" strategy achieved an intrinsic thermal conductivity of 398.2 W m-1 K-1, reaching 93% of the theoretical value. Porous sintered silver, another form of silver used in chip-connection materials, also exhibits high thermal conductivity. Additionally, silver nanoparticles and nanorods have been found to significantly enhance the thermal conductivity of base fluids, with optimal results observed at 2 vol% loading. Surface-treated silver micro-flakes in thermally conductive adhesives achieved an out-of-plane thermal conductivity of 22 W m-1 K-1 at 85 wt% loading. Furthermore, nanofluids containing silver nanoparticles synthesized using algal extract solution showed an increase in thermal conductivity with increasing temperature and particle concentration. Overall, silver demonstrates excellent thermal conductivity properties, making it a valuable material for various applications.
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