Heterostructured B-C particles: Bridging solid and mesoporous domains

Microparticles comprising two macroscopically distinct domains with different compositions, structures, and porosity are attractive as multifunctional materials. B–C microparticles with dual-domain structures were synthesized via single-pulse laser heating of graphite–boron mixtures on chemical vapor deposition diamond. Vapor condensation forms Cassie–Baxter droplets featuring two distinct regions: a near-contact, mesoporous rapidly quenched (RQ) boron-doped onion-like carbon (OLC) network (∼4.7 at. % B) and a dense, quasi-equilibrium (QE) hypereutectic C–B4.5C mixture. Molecular dynamics simulations support the RQ structure. The results demonstrate that local supercooling suppresses boron diffusion, enabling the coexistence of mesoporous and dense domains within a single heterostructured microparticle.

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Publication Details

Journal
Journal of Applied Physics
Published
2026-03-11
DOI
https://doi.org/10.1063/5.0304129
Primary Topic
Boron and Carbon Nanomaterials Research
Type
article
Field-Weighted Citation Impact
0.00
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article

Heterostructured B-C particles: Bridging solid and mesoporous domains

A. L. Vasiliev, A. Yu. Basharin, V. S. Dozhdikov, G. V. Belov
Journal of Applied Physics
Boron and Carbon Nanomaterials Research
article

Heterostructured B-C particles: Bridging solid and mesoporous domains

A. L. Vasiliev, A. Yu. Basharin, V. S. Dozhdikov, G. V. Belov
article en

Abstract

Microparticles comprising two macroscopically distinct domains with different compositions, structures, and porosity are attractive as multifunctional materials. B–C microparticles with dual-domain structures were synthesized via single-pulse laser heating of graphite–boron mixtures on chemical vapor deposition diamond. Vapor condensation forms Cassie–Baxter droplets featuring two distinct regions: a near-contact, mesoporous rapidly quenched (RQ) boron-doped onion-like carbon (OLC) network (∼4.7 at. % B) and a dense, quasi-equilibrium (QE) hypereutectic C–B4.5C mixture. Molecular dynamics simulations support the RQ structure. The results demonstrate that local supercooling suppresses boron diffusion, enabling the coexistence of mesoporous and dense domains within a single heterostructured microparticle.

Journal of Applied PhysicsVol. 139(10)
Moscow Institute of Physics and Technology (RU), Bauman Moscow State Technical University (RU), Kurchatov Institute (RU), Joint Institute for High Temperatures (RU)
Openalex Percentile: Top 26%
Boron and Carbon Nanomaterials Research
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