Numerical simulation of interconnect temperature regimes under thermal shock

Due to the constant reduction in the size of interconnects (based on Al, Cu, etc.) in microelectronic structures, the associated thermal load is constantly increasing. Therefore, it is important to study the heating dynamics of interconnect in pulsed modes. In this work, the temperature modes of operation of an Al-Si binary structure were simulated using the finite element method. The results of numerical modeling of thermal behavior of Al-Si structures were compared with experimental data obtained at various pulse energies (Wτ = 0.5–5.5 J) and duration up to 500 µs. Comparison showed that discrepancy between experimental results and numerical modeling results exceeded 10% over entire range of pulse energy.

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Publication Details

Journal
Discover Mechanical Engineering
Published
2026-08-19
DOI
https://doi.org/10.1007/s44245-026-00343-3
Primary Topic
Copper Interconnects and Reliability
Type
article
Field-Weighted Citation Impact
0.00

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Numerical simulation of interconnect temperature regimes under thermal shock

Pavel A. Skvortsov, Zamir F. Khudayarov, Vladimir K. Nikolaev, Arkady A. Skvortsov et al.
Discover Mechanical Engineering
Copper Interconnects and Reliability
article

Numerical simulation of interconnect temperature regimes under thermal shock

Pavel A. Skvortsov, Zamir F. Khudayarov, Vladimir K. Nikolaev, Arkady A. Skvortsov, DenisL. Dorozhkov, Aleksei D. Krylov
article en

Abstract

Due to the constant reduction in the size of interconnects (based on Al, Cu, etc.) in microelectronic structures, the associated thermal load is constantly increasing. Therefore, it is important to study the heating dynamics of interconnect in pulsed modes. In this work, the temperature modes of operation of an Al-Si binary structure were simulated using the finite element method. The results of numerical modeling of thermal behavior of Al-Si structures were compared with experimental data obtained at various pulse energies (Wτ = 0.5–5.5 J) and duration up to 500 µs. Comparison showed that discrepancy between experimental results and numerical modeling results exceeded 10% over entire range of pulse energy.

Discover Mechanical EngineeringVol. 5(1)
Russian Academy of Sciences (RU), Russian Engineering Academy (RU), Moscow Polytechnic University (RU)
Ministry of Science and Higher Education of the Russian Federation
Affordable and clean energy
Openalex Percentile: Top 26%
Copper Interconnects and Reliability
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