Quantum transport reveals spin glass correlations in a 2D network of TbPc2 single-molecule magnets grafted on graphene

Nianjheng Wu; Jules Lefeuvre; Andrew Mayne; Stéphane Campidelli; Jérôme Lagoute; Cyril Chacon; Sophie Guéron; Richard Deblock; Hélène Bouchiat

doi:10.1038/nmat3050

Paper

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Research paper

Experimental Characterization

Quantum transport reveals spin glass correlations in a 2D network of TbPc₂ single-molecule magnets grafted on graphene

Nianjheng Wu, Jules Lefeuvre, Andrew Mayne, Stéphane Campidelli et al.

arXiv preprint·2026·10.1038/nmat3050·arXiv:2603.29456

Samples

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

Few-micrometer single-layer graphene device on SiO₂/doped Si, coated with a continuous thin layer of TbPc₂ deposited from the most concentrated solution (solution A).

1 preparation1 characterization14 properties8 figures

ExperimentalCStudied MaterialTbPc₂Studied MaterialSiO₂Substrate / DielectricSiSubstrate / Dielectric

Few-micrometer single-layer graphene device on monolayer WS₂ on SiO₂/doped Si, coated with a continuous thin layer of TbPc₂ deposited from the most concentrated solution (solution A).

1 preparation1 characterization13 properties8 figures

ExperimentalCStudied MaterialTbPc₂Studied MaterialWS₂Substrate / DielectricSiO₂Substrate / DielectricSiSubstrate / Dielectric

Reference graphene field-effect device coated with a continuous monolayer of FeTPP porphyrins.

1 preparation1 characterization1 property8 figures

ExperimentalCStudied MaterialFeTPPStudied MaterialSiO₂Substrate / DielectricSiSubstrate / Dielectric

Quantum transport reveals spin glass correlations in a 2D network of TbPc2 single-molecule magnets grafted on graphene | Matter42 Literature

Quantum transport reveals spin glass correlations in a 2D network of TbPc₂ single-molecule magnets grafted on graphene

Samples

Few-micrometer single-layer graphene device on SiO₂/doped Si, coated with a continuous thin layer of TbPc₂ deposited from the most concentrated solution (solution A).

Few-micrometer single-layer graphene device on monolayer WS₂ on SiO₂/doped Si, coated with a continuous thin layer of TbPc₂ deposited from the most concentrated solution (solution A).

Reference graphene field-effect device coated with a continuous monolayer of FeTPP porphyrins.

Quantum transport reveals spin glass correlations in a 2D network of TbPc₂ single-molecule magnets grafted on graphene

Samples

Few-micrometer single-layer graphene device on SiO₂/doped Si, coated with a continuous thin layer of TbPc₂ deposited from the most concentrated solution (solution A).

Few-micrometer single-layer graphene device on monolayer WS₂ on SiO₂/doped Si, coated with a continuous thin layer of TbPc₂ deposited from the most concentrated solution (solution A).

Reference graphene field-effect device coated with a continuous monolayer of FeTPP porphyrins.

Quantum transport reveals spin glass correlations in a 2D network of TbPc₂ single-molecule magnets grafted on graphene

Samples

Few-micrometer single-layer graphene device on SiO₂/doped Si, coated with a continuous thin layer of TbPc₂ deposited from the most concentrated solution (solution A).

Few-micrometer single-layer graphene device on monolayer WS₂ on SiO₂/doped Si, coated with a continuous thin layer of TbPc₂ deposited from the most concentrated solution (solution A).

Reference graphene field-effect device coated with a continuous monolayer of FeTPP porphyrins.

Quantum transport reveals spin glass correlations in a 2D network of TbPc₂ single-molecule magnets grafted on graphene

Samples

Few-micrometer single-layer graphene device on SiO₂/doped Si, coated with a continuous thin layer of TbPc₂ deposited from the most concentrated solution (solution A).

Few-micrometer single-layer graphene device on monolayer WS₂ on SiO₂/doped Si, coated with a continuous thin layer of TbPc₂ deposited from the most concentrated solution (solution A).

Reference graphene field-effect device coated with a continuous monolayer of FeTPP porphyrins.

Quantum transport reveals spin glass correlations in a 2D network of TbPc₂ single-molecule magnets grafted on graphene

Samples

Few-micrometer single-layer graphene device on SiO₂/doped Si, coated with a continuous thin layer of TbPc₂ deposited from the most concentrated solution (solution A).

Few-micrometer single-layer graphene device on monolayer WS₂ on SiO₂/doped Si, coated with a continuous thin layer of TbPc₂ deposited from the most concentrated solution (solution A).

Reference graphene field-effect device coated with a continuous monolayer of FeTPP porphyrins.

Quantum transport reveals spin glass correlations in a 2D network of TbPc₂ single-molecule magnets grafted on graphene

Samples

Few-micrometer single-layer graphene device on SiO₂/doped Si, coated with a continuous thin layer of TbPc₂ deposited from the most concentrated solution (solution A).

Few-micrometer single-layer graphene device on monolayer WS₂ on SiO₂/doped Si, coated with a continuous thin layer of TbPc₂ deposited from the most concentrated solution (solution A).

Reference graphene field-effect device coated with a continuous monolayer of FeTPP porphyrins.

Quantum transport reveals spin glass correlations in a 2D network of TbPc₂ single-molecule magnets grafted on graphene

Samples

Few-micrometer single-layer graphene device on SiO₂/doped Si, coated with a continuous thin layer of TbPc₂ deposited from the most concentrated solution (solution A).

Few-micrometer single-layer graphene device on monolayer WS₂ on SiO₂/doped Si, coated with a continuous thin layer of TbPc₂ deposited from the most concentrated solution (solution A).

Reference graphene field-effect device coated with a continuous monolayer of FeTPP porphyrins.

Quantum transport reveals spin glass correlations in a 2D network of TbPc₂ single-molecule magnets grafted on graphene

Samples

Few-micrometer single-layer graphene device on SiO₂/doped Si, coated with a continuous thin layer of TbPc₂ deposited from the most concentrated solution (solution A).

Few-micrometer single-layer graphene device on monolayer WS₂ on SiO₂/doped Si, coated with a continuous thin layer of TbPc₂ deposited from the most concentrated solution (solution A).

Reference graphene field-effect device coated with a continuous monolayer of FeTPP porphyrins.

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