HarnessingDiamond Surface Features for Dense andAligned NV Ensembles

Abstract Controlling nitrogen doping in diamond is key to advancing nitrogen-vacancy (NV) center devices. We harness the hillock, a typically undesirable surface feature, to incorporate high densities of grown-in, aligned NV centers on a (001)-oriented substrate. Enhanced cathodoluminescence at hillock sidewalls is correlated via nanoSIMS to up to 1000× greater nitrogen incorporation compared to the planar film. We find that these hillocks are associated with stacking faults and edge-type dislocations, consistent with an origin in surface preparation rather than substrate screw dislocations. Yet, the growth is orderly enough that each of the four hillock sidewalls hosts a distinct NV orientation. A 1.7–2% grown-in NV/substitutional nitrogen (P1) ratio, 4× higher than typical (001)-oriented growth, is measured via NV decoherence analysis. By revealing that spontaneously formed hillocks act as natural laboratories for dense, aligned NV formation, this work motivates systematic investigation of facet-dependent nitrogen incorporation and preferential NV alignment in (001) diamond.

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Publication Details

Journal
Nano Letters
Published
2026-08-18
DOI
https://doi.org/10.1021/acs.nanolett.6c02155
Primary Topic
Diamond and Carbon-based Materials Research
Type
article
Field-Weighted Citation Impact
0.00

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article

HarnessingDiamond Surface Features for Dense andAligned NV Ensembles

Simon A. Meynell, Kunal Mukherjee, Eveline Postelnicu, Lillian B. Hughes Wyatt et al.
Nano Letters
Diamond and Carbon-based Materials Research
article

HarnessingDiamond Surface Features for Dense andAligned NV Ensembles

Simon A. Meynell, Kunal Mukherjee, Eveline Postelnicu, Lillian B. Hughes Wyatt, Ania Bleszynski Jayich, Tri Nguyen, Christine Jilly, Paul Wallace, Andrew Barnum
article en

Abstract

Abstract Controlling nitrogen doping in diamond is key to advancing nitrogen-vacancy (NV) center devices. We harness the hillock, a typically undesirable surface feature, to incorporate high densities of grown-in, aligned NV centers on a (001)-oriented substrate. Enhanced cathodoluminescence at hillock sidewalls is correlated via nanoSIMS to up to 1000× greater nitrogen incorporation compared to the planar film. We find that these hillocks are associated with stacking faults and edge-type dislocations, consistent with an origin in surface preparation rather than substrate screw dislocations. Yet, the growth is orderly enough that each of the four hillock sidewalls hosts a distinct NV orientation. A 1.7–2% grown-in NV/substitutional nitrogen (P1) ratio, 4× higher than typical (001)-oriented growth, is measured via NV decoherence analysis. By revealing that spontaneously formed hillocks act as natural laboratories for dense, aligned NV formation, this work motivates systematic investigation of facet-dependent nitrogen incorporation and preferential NV alignment in (001) diamond.

Nano Letters
University of California, Santa Barbara (US), Stanford University (US)
Directorate for Engineering, University of California, Santa Barbara, Basic Energy Sciences, National Science Foundation Graduate Research Fellowship Program
Life in Land
Openalex Percentile: Top 56%
Diamond and Carbon-based Materials Research
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