Spin defects in hexagonal boron nitride as two-dimensional strain sensors

Z. Mu; Z. Zhang; J. Fraunié; C. Robert; G. Seine; B. Gil; G. Cassabois; V. Jacques

doi:10.48550/arxiv.2509.18745

Paper

Atlas literature

Research paper

Experimental Characterization

Spin defects in hexagonal boron nitride as two-dimensional strain sensors

Z. Mu, Z. Zhang, J. Fraunié, C. Robert et al.

2026·10.48550/arxiv.2509.18745·arXiv:2509.18745

Samples

Each sample groups how it was prepared, characterized, and measured. Click a card to expand.

Elongated multilayer hBN flake of uniform thickness transferred onto a flexible polyimide substrate, clamped with a 100-nm Au coating, and implanted with nitrogen to create V_B^- centers for strain sensing.

4 preparations3 characterizations3 properties3 figures

ExperimentalhBNStudied MaterialV_B^-Studied Material

Why these are connected

Related documents with shared materials, methods, properties, or citations.

paper2023
Nitrogen isotope effects on boron vacancy quantum sensors in hexagonal boron nitride
topic Boron and Carbon Nanomaterials Researchgrowth exfoliationproperty threshold voltageproperty Raman peak
paper2026
Probing Boron Vacancy Defects in hBN via Single Spin Relaxometry

Spin defects in hexagonal boron nitride as two-dimensional strain sensors | Matter42 Literature

Spin defects in hexagonal boron nitride as two-dimensional strain sensors

Samples

Elongated multilayer hBN flake of uniform thickness transferred onto a flexible polyimide substrate, clamped with a 100-nm Au coating, and implanted with nitrogen to create VB^- centers for strain sensing.

Why these are connected

Spin defects in hexagonal boron nitride as two-dimensional strain sensors

Samples

Elongated multilayer hBN flake of uniform thickness transferred onto a flexible polyimide substrate, clamped with a 100-nm Au coating, and implanted with nitrogen to create VB^- centers for strain sensing.

Why these are connected

Spin defects in hexagonal boron nitride as two-dimensional strain sensors

Samples

Elongated multilayer hBN flake of uniform thickness transferred onto a flexible polyimide substrate, clamped with a 100-nm Au coating, and implanted with nitrogen to create VB^- centers for strain sensing.

Why these are connected

Spin defects in hexagonal boron nitride as two-dimensional strain sensors

Samples

Elongated multilayer hBN flake of uniform thickness transferred onto a flexible polyimide substrate, clamped with a 100-nm Au coating, and implanted with nitrogen to create VB^- centers for strain sensing.

Why these are connected

Spin defects in hexagonal boron nitride as two-dimensional strain sensors

Samples

Elongated multilayer hBN flake of uniform thickness transferred onto a flexible polyimide substrate, clamped with a 100-nm Au coating, and implanted with nitrogen to create VB^- centers for strain sensing.

Why these are connected

Spin defects in hexagonal boron nitride as two-dimensional strain sensors

Samples

Elongated multilayer hBN flake of uniform thickness transferred onto a flexible polyimide substrate, clamped with a 100-nm Au coating, and implanted with nitrogen to create VB^- centers for strain sensing.

Why these are connected

Spin defects in hexagonal boron nitride as two-dimensional strain sensors

Samples

Elongated multilayer hBN flake of uniform thickness transferred onto a flexible polyimide substrate, clamped with a 100-nm Au coating, and implanted with nitrogen to create VB^- centers for strain sensing.

Why these are connected

Spin defects in hexagonal boron nitride as two-dimensional strain sensors

Samples

Elongated multilayer hBN flake of uniform thickness transferred onto a flexible polyimide substrate, clamped with a 100-nm Au coating, and implanted with nitrogen to create VB^- centers for strain sensing.

Why these are connected

Elongated multilayer hBN flake of uniform thickness transferred onto a flexible polyimide substrate, clamped with a 100-nm Au coating, and implanted with nitrogen to create V_B^- centers for strain sensing.

Elongated multilayer hBN flake of uniform thickness transferred onto a flexible polyimide substrate, clamped with a 100-nm Au coating, and implanted with nitrogen to create V_B^- centers for strain sensing.

Elongated multilayer hBN flake of uniform thickness transferred onto a flexible polyimide substrate, clamped with a 100-nm Au coating, and implanted with nitrogen to create V_B^- centers for strain sensing.

Elongated multilayer hBN flake of uniform thickness transferred onto a flexible polyimide substrate, clamped with a 100-nm Au coating, and implanted with nitrogen to create V_B^- centers for strain sensing.

Elongated multilayer hBN flake of uniform thickness transferred onto a flexible polyimide substrate, clamped with a 100-nm Au coating, and implanted with nitrogen to create V_B^- centers for strain sensing.

Elongated multilayer hBN flake of uniform thickness transferred onto a flexible polyimide substrate, clamped with a 100-nm Au coating, and implanted with nitrogen to create V_B^- centers for strain sensing.

Elongated multilayer hBN flake of uniform thickness transferred onto a flexible polyimide substrate, clamped with a 100-nm Au coating, and implanted with nitrogen to create V_B^- centers for strain sensing.

Elongated multilayer hBN flake of uniform thickness transferred onto a flexible polyimide substrate, clamped with a 100-nm Au coating, and implanted with nitrogen to create V_B^- centers for strain sensing.