journal article·2018-04-01Open access

Non-idealities in the 3ω method for thermal characterization in the low- and high-frequency regimes

Wassim Jaber, Pierre-Olivier Chapuis

AIP Advances· Volume 8· Issue 4

Abstract

This work is devoted to analytical and numerical studies of diffusive heat conduction in configurations considered in 3ω experiments, which aim at measuring thermal conductivity of materials. The widespread 2D analytical model considers infinite media and translational invariance, a situation which cannot be met in practice in numerous cases due to the constraints in low-dimensional materials and systems. We investigate how thermal boundary resistance between heating wire and sample, native oxide and heating wire shape affect the temperature fields. 3D finite element modelling is also performed to account for the effect of the bonding pads and the 3D heat spreading down to a typical package. Emphasis is given on the low-frequency regime, which is less known than the so-called slope regime. These results will serve as guides for the design of ideal experiments where the 2D model can be applied and for the analyses of non-ideal ones.
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Research context

OpenAlex topics: Thermal properties of materials · Composite Material Mechanics · Numerical methods in inverse problems

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Affiliations

Univ Lyon, CNRS, INSA-Lyon, Université Claude Bernard Lyon 1, CETHIL UMR5008 , F-69621 Villeurbanne, France

Funding

EU EP7 QuantiHeat · Agence Nationale de la Recherche · Centre National de la Recherche Scientifique · Institut National des Sciences Appliquées de Lyon

References (36)

Show source-provided references
1. Thermal conductivity measurement from 30 to 750 K: The 3ω method10.1063/1.1141498 ↗
2. Data reduction in 3ω method for thin-film thermal conductivity determination10.1063/1.1353189 ↗
3. Numerical simulation of the 3ω method for measuring the thermal conductivity10.1063/1.1459611 ↗
4. M. Beaudhuin and L. Van Der Tempel, “Thermal conductivity measurement of thin layers by the 3 omega method,” Technical note TN-2006/00375, Philips Report, based on M. Beaudhuin, M.Sc. thesis, INPG (2006).
5. D. De Koninck, “Thermal conductivity measurements using the 3-omega technique: Application to power harvesting microsystems,” M. Eng. thesis, McGill University (2008).
6. Extension of the 3ω method to measure the thermal conductivity of thin films without a reference sample10.1016/j.sna.2007.01.013 ↗
7. Analytical solutions of the heat diffusion equation for 3ω method geometry10.1063/1.3486441 ↗
8. Highly sensitive thermal conductivity measurements of suspended membranes (SiN and diamond) using a 3ω-Völklein method10.1063/1.4704086 ↗
9. T. Hänninen, “Implementing the 3-omega technique for thermal conductivity measurements,” M.Sc. thesis, University of Jyvaskyla (2013).
10. Thermal conductivity measurements with the 3ω method and scanning thermal microscopy
11. A 3 omega method to measure an arbitrary anisotropic thermal conductivity tensor10.1063/1.4918800 ↗
12. Thermal oscillations in lamps of thin fibers with alternating current flowing through them and the resulting effect on the rectifier as a result of the presence of even-numbered harmonics
13. Periodic resistance changes of fine metal threads which are brought together by alternating streams as well as deduction of their thermo characteristics at high temperatures
14. Wide-frequency specific heat spectrometer10.1063/1.1139434 ↗
15. Heat transport in thin dielectric films10.1063/1.363923 ↗
16. Application of the three omega thermal conductivity measurement method to a film on a substrate of finite thickness10.1063/1.371314 ↗
17. In-plane thermal conductivity of nanoscale polyaniline thin films10.1063/1.3184786 ↗
18. Approximate analytical models for phonon specific heat and ballistic thermal conductance of nanowires10.1021/nl0721665 ↗
19. 3-omega measurements of vertically oriented carbon nanotubes on silicon10.1115/1.2352778 ↗
20. A semianalytical solution for the 3 ω method including the effect of heater thermal conduction10.1063/1.2937254 ↗
21. Analysis of the 3-omega method for thermal conductivity measurement10.1016/j.ijheatmasstransfer.2008.10.020 ↗
22. A practical extension of the 3-omega method to multilayer structures10.1063/1.1896619 ↗
23. Reexamining the 3-omega technique for thin film thermal characterization10.1063/1.2349601 ↗
24. Improved 3-omega measurement of thermal conductivity in liquid, gases, and powders using a metal-coated optical fiber10.1063/1.3593372 ↗
25. Measurement of the thermal conductivity and heat capacity of freestanding shape memory thin films using the 3ω method10.1115/1.2945904 ↗
26. The 3ω technique for measuring dynamic specific heat and thermal conductivity of a liquid or solid10.1063/1.1146545 ↗
27. Thermal conductivity and thermal boundary resistance of nanostructures10.1186/1556-276x-6-288 ↗
28. Thermal boundary resistance10.1103/revmodphys.61.605 ↗
29. Thermal conduction in metallized silicon-dioxide layers on silicon10.1063/1.112933 ↗
30. Experimental investigation of thermal conduction normal to diamond-silicon boundaries10.1063/1.358950 ↗
31. Thermal boundary resistance measurements using a transient thermoreflectance technique10.1080/108939500199637 ↗
32. Thermometry and thermal transport in micro/nanoscale solid-state devices and structures10.1115/1.1454111 ↗
33. Measurement of thermal boundary conductance of a series of metal-dielectric interfaces by the transient thermoreflectance technique10.1115/1.1857944 ↗
34. Thermoreflectance measurement of temperature and thermal resistance of thin film gold10.1115/1.4007068 ↗
35. Thermal transport across solid interfaces with nanoscale imperfections: Effects of roughness, disorder, dislocations, and bonding on thermal boundary conductance
36. W. Jaber, “Phonon heat conduction probed by means of an electro-thermal method involving deposited micro and nanowires,” Ph.D. thesis, INSA Lyon (2016).