Tremella‐Inspired Wrinkled 1T‐MoS <sub>2</sub> @BN for Efficient Thermal Management and Microwave Absorption

ABSTRACT The inherent trade‐off between electrical loss for electromagnetic (EM) absorption and thermal transport for heat management limits optimization of conventional multilayer integrated circuit (IC) packaging architecture. Inspired by the morphological structure of Tremella, we design a wrinkled nanoflower 1T‐MoS 2 @BN heterostructure, where electrostatic self‐assembly yields intimate coupling between BN nanosheets and 1T‐MoS 2 to build a multiscale heterogeneous interfacial network. BN introduces efficient phonon pathways that reduce interfacial thermal resistance and strengthen dipole/interfacial polarization, thereby enabling enhanced EM energy dissipation and heat conduction. At 55 vol% loading, the 1T‐MoS 2 @BN ratio enables tunable multifunctionality: a thermally favored composition (1:1.5) achieves 5.54 W m − 1 K − 1 , while an absorption‐prioritized ratio (1.5:1) delivers −48.8 dB RL m i n with a 3.1 GHz bandwidth at 2.46 mm. This demonstrates an integrated platform balancing thermal and EM performance within one material system. Using this multifunctional composite, the multilayer packaging scheme for conventional radio‐frequency (RF) devices can be streamlined while improving performance. Under near‐field conditions at 5–6 GHz, the shielding effectiveness exceeds 20 dB while continuous thermal pathways rapidly evacuate operating heat, effectively suppressing junction temperature. This heterostructure serves as an ideal model to probe atomic‐scale charge transfer and multidimensional phonon transport, offering a design concept for next‐generation integrated electronics.

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Publication Details

Journal
Advanced Functional Materials
Published
2026-04-10
DOI
https://doi.org/10.1002/adfm.75355
Primary Topic
Thermal properties of materials
Type
article
Field-Weighted Citation Impact
0.00

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article

Tremella‐Inspired Wrinkled 1T‐MoS 2 @BN for Efficient Thermal Management and Microwave Absorption

Linhua Liu, H. Yu, Zhiqiang Li, Xinzhu Yin et al.
Advanced Functional Materials
Thermal properties of materials
article

Tremella‐Inspired Wrinkled 1T‐MoS 2 @BN for Efficient Thermal Management and Microwave Absorption

Linhua Liu, H. Yu, Zhiqiang Li, Xinzhu Yin, Jia‐Yue Yang, Roland Yingjie Tay, Gaoming Xiang, Kesheng Gao, Tianbao Zhao, Zhiwei Fu, Jian Wang
article en

Abstract

ABSTRACT The inherent trade‐off between electrical loss for electromagnetic (EM) absorption and thermal transport for heat management limits optimization of conventional multilayer integrated circuit (IC) packaging architecture. Inspired by the morphological structure of Tremella, we design a wrinkled nanoflower 1T‐MoS 2 @BN heterostructure, where electrostatic self‐assembly yields intimate coupling between BN nanosheets and 1T‐MoS 2 to build a multiscale heterogeneous interfacial network. BN introduces efficient phonon pathways that reduce interfacial thermal resistance and strengthen dipole/interfacial polarization, thereby enabling enhanced EM energy dissipation and heat conduction. At 55 vol% loading, the 1T‐MoS 2 @BN ratio enables tunable multifunctionality: a thermally favored composition (1:1.5) achieves 5.54 W m − 1 K − 1 , while an absorption‐prioritized ratio (1.5:1) delivers −48.8 dB RL m i n with a 3.1 GHz bandwidth at 2.46 mm. This demonstrates an integrated platform balancing thermal and EM performance within one material system. Using this multifunctional composite, the multilayer packaging scheme for conventional radio‐frequency (RF) devices can be streamlined while improving performance. Under near‐field conditions at 5–6 GHz, the shielding effectiveness exceeds 20 dB while continuous thermal pathways rapidly evacuate operating heat, effectively suppressing junction temperature. This heterostructure serves as an ideal model to probe atomic‐scale charge transfer and multidimensional phonon transport, offering a design concept for next‐generation integrated electronics.

Advanced Functional Materials
Nanyang Technological University (SG), University of Jinan (CN), Institut des Sciences Moléculaires (FR), Hisense (China) (CN), Songshan Lake Materials Laboratory (CN)
National Key Research and Development Program of China
Affordable and clean energy
Openalex Percentile: Top 27%
Thermal properties of materials
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