OSCHEW-1: Ordered Structural Chiral Honeycomb Electronic Frameworks for Highly Anisotropic Electronic Transport in Three-Dimensional Solids

DESCRIPTION Recent experimental and theoretical reports have indicated that certain three-dimensional crystalline solids may exhibit electronic transport characteristics typically associated with reduced-dimensional systems, while retaining full three-dimensional structural connectivity. These findings indicate that electronic dimensionality may, under specific structural conditions, decouple from lattice dimensionality, giving rise to highly anisotropic electronic transport within bulk materials. This work introduces OSCHEW-1, a non-proprietary, non-enabling reference class describing a class of three-dimensionally bonded solid-state material architectures characterized by the coexistence of an embedded honeycomb electronic sub-structure and a chiral stacking sequence within the bulk lattice. This document is released explicitly as prior art and does not disclose specific compositions, synthesis routes, or operational parameters.

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Publication Details

Journal
Zenodo (CERN European Organization for Nuclear Research)
Published
2026-02-02
DOI
https://doi.org/10.5281/zenodo.18455272
Primary Topic
2D Materials and Applications
Type
article
Field-Weighted Citation Impact
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article

OSCHEW-1: Ordered Structural Chiral Honeycomb Electronic Frameworks for Highly Anisotropic Electronic Transport in Three-Dimensional Solids

Jorge Vasconcelos
Zenodo (CERN European Organization for Nuclear Research)
2D Materials and Applications
article

OSCHEW-1: Ordered Structural Chiral Honeycomb Electronic Frameworks for Highly Anisotropic Electronic Transport in Three-Dimensional Solids

Jorge Vasconcelos
article en

Abstract

DESCRIPTION Recent experimental and theoretical reports have indicated that certain three-dimensional crystalline solids may exhibit electronic transport characteristics typically associated with reduced-dimensional systems, while retaining full three-dimensional structural connectivity. These findings indicate that electronic dimensionality may, under specific structural conditions, decouple from lattice dimensionality, giving rise to highly anisotropic electronic transport within bulk materials. This work introduces OSCHEW-1, a non-proprietary, non-enabling reference class describing a class of three-dimensionally bonded solid-state material architectures characterized by the coexistence of an embedded honeycomb electronic sub-structure and a chiral stacking sequence within the bulk lattice. This document is released explicitly as prior art and does not disclose specific compositions, synthesis routes, or operational parameters.

Zenodo (CERN European Organization for Nuclear Research)
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