Wide-field magnetometry using nitrogen-vacancy color centers with randomly oriented micro-diamonds

Sengottuvel, Saravanan; Mrózek, Mariusz; Sawczak, M.; Głowacki, Maciej J.; Ficek, Mateusz; Gawlik, Wojciech; Wojciechowski, Adam

doi:10.1038/s41598-022-22610-5

Cited by 15 publications

(3 citation statements)

References 32 publications

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“…Another relevant development for biomaterials is the use of colour centres in biocompatible nanomaterials (e.g. nanodiamonds) as highly stable fluorescence markers [64] and nanoscale biosensors [65]. Combined with an imaging method such as scanning confocal microscopy using a spinning (Nipkow) disc system, imaging a distribution of colour centre markers could deliver extremely high-quality, sub-wavelength information on both electronic and thermal transport in biomaterials.…”

Section: Current and Future Use Of The Technique For Materials Sciencementioning

confidence: 99%

2024 roadmap on magnetic microscopy techniques and their applications in materials science

Christensen,

Staub,

Devidas

et al. 2024

J. Phys. Mater.

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Considering the growing interest in magnetic materials for unconventional computing, data storage, and sensor applications, there is active research not only on material synthesis but also characterisation of their properties. In addition to structural and integral magnetic characterisations, imaging of magnetization patterns, current distributions and magnetic fields at nano- and microscale is of major importance to understand the material responses and qualify them for specific applications. In this roadmap, we aim to cover a broad portfolio of techniques to perform nano- and microscale magnetic imaging using SQUIDs, spin center and Hall effect magnetometries, scanning probe microscopies, x-ray- and electron-based methods as well as magnetooptics and nanoMRI. The roadmap is aimed as a single access point of information for experts in the field as well as the young generation of students outlining prospects of the development of magnetic imaging technologies for the upcoming decade with a focus on physics, materials science, and chemistry of planar, 3D and geometrically curved objects of different material classes including 2D materials, complex oxides, semi-metals, multiferroics, skyrmions, antiferromagnets, frustrated magnets, magnetic molecules/nanoparticles, ionic conductors, superconductors, spintronic and spinorbitronic materials.

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Section: Current and Future Use Of The Technique For Materials Sciencementioning

confidence: 99%

2024 roadmap on magnetic microscopy techniques and their applications in materials science

Christensen,

Staub,

Devidas

et al. 2024

J. Phys. Mater.

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“…Relying on the translational symmetry along the x-direction, we obtain the magnetic field distribution along the y-direction. 49 The spot positions are aligned as designed in Pattern 2 (marked with crosses). Figure 4(c) shows the dependence of I spot on the spot size.…”

Section: So Far We Have Established That V −mentioning

confidence: 99%

Magnetic field imaging by hBN quantum sensor nanoarray

Sasaki¹,

Nakamura²,

Gu³

et al. 2023

Preprint

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“…The transition of this line is due to electrons and has an energy of 1.945 eV. The transition occurs on the path between the ground energy state of the crystal lattice and the excited state [17]. Currently, several high-end microscopes are available on the market, ensuring high image quality.…”

mentioning

confidence: 99%

Low-cost modular design microscope for measuring fluorescent diamonds

Adam Mazikowski,

Babińska,

Marszewska

2024

Photonics Lett. Pol.

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Nowadays, microscopy is a widely used method for analyzing various materials. In our research, we use a developed two-channel fluorescence microscope to measure objects excited with two different wavelengths, e.g. fluorescent diamond powders with nitrogen vacancies. The results obtained were compared with images illuminated with white LED observed using a microscope in the transmission mode. The measurements yielded results with satisfactory resolution and image quality. Considering that the microscope built is a budget design, so it can be a cheaper alternative to commercial devices. Full Text: PDF References J.C. Stockert, A. Blázquez-Castro, "Fluorescence Microscopy in Life Sciences" Bentham Science Publishers. ISBN 978-1-68108-519-7 (2017). CrossRef W.W. Hsiao, Y.Y. Hui, P.C. Tsai, H.C. Chang, "Fluorescent Nanodiamond: A Versatile Tool for Long-Term Cell Tracking, Super-Resolution Imaging, and Nanoscale Temperature Sensing", Acc. Chem. Res. 49(3), 400 (2016). CrossRef M.B. Amiri Olia, P.S. Donnelly, L.C.L. Hollenberg, P. Mulvaney, D.A. Simpson, "Advances in the Surface Functionalization of Nanodiamonds for Biological Applications: A Review", ACS Appl. Nano Mater. 4(10), 9985 (2021). CrossRef B.S. Miller, et al. Spin-enhanced nanodiamond biosensing for ultrasensitive diagnostics. Nature 587, 588 (2020). CrossRef B.H. Oh, K.H. Kim, K.Y. Chung, "Skin Imaging Using Ultrasound Imaging, Optical Coherence Tomography, Confocal Microscopy, and Two-Photon Microscopy in Cutaneous Oncology", Front. Med., Sec. Dermatology, 6 (2019). CrossRef L. Schmidheini et al. "Self-Assembly of Nanodiamonds and Plasmonic Nanoparticles for Nanoscopy", Biosensors, 12, 148 (2022). CrossRef W. Białobrzeska, et al. "Quantitative fluorescent determination of DNA - Ochratoxin a interactions supported by nitrogen-vacancy rich nanodiamonds", J. Mol. Liq., 342 (2021). CrossRef O.S. Wolfbeis, "Materials for fluorescence-based optical chemical sensors", J. Mater. Chem., 15, 2657 (2005). CrossRef T. Zhang, et al. "Toward Quantitative Bio-sensing with Nitrogen-Vacancy Center in Diamond". ACS Sens., 6, 2077 (2021). CrossRef N. Nunn, M. Torelli, G. McGuire, O. Shenderova. "Nanodiamond: A high impact nanomaterial". Curr. Opin. Solid State Mater. Sci. 21(1), 1 (2017). CrossRef S.J. Yu, M.W. Kang, H.C. Chang, K.M. Chen, Y.C. Yu, "Bright fluorescent nanodiamonds: no photobleaching and low cytotoxicity", J. Am. Chem. Soc. 127(50), 17604 (2005). CrossRef O. Shenderova et al. "Commercial quantities of ultrasmall fluorescent nanodiamonds containing color centers", Proc. SPIE, 10118, 1011803 (2017). CrossRef M.H. Alkahtani et al. "Fluorescent nanodiamonds: past, present, and future". Nanophotonics, 7(8), 1423 (2018). CrossRef M. Głowacki, et al. "Fluorescence of nanodiamond cocktails: pH-induced effects through interactions with comestible liquids", Food chemistry, 381, 132206 (2022). CrossRef Y. Xue, X. Feng, S.C. Roberts, X. Chen, "Diamond and carbon nanostructures for biomedical applications", Functional Diamond, 1(1), 221 (2021). CrossRef A. Nagl, S.R. Hemelaar, R. Schirhagl, "Improving surface and defect center chemistry of fluorescent nanodiamonds for imaging purposes-a review", Anal. Bioanal. Chem., 407, 7521 (2015). CrossRef S. Sengottuvel, et al., "Wide-field magnetometry using nitrogen-vacancy color centers with randomly oriented micro-diamonds", Sci. Rep. 12, 17997 (2022). CrossRef P. Nowicki, E. Czarniewska, "Nanodiamenty: unikalne nanocząsteczki do zastosowania w biomedycynie i biotechnologii", Postępy Biochem., 65(4) (2019). CrossRef S.D Subedi, V.V. Fedorov, J. Peppers, D.V. Martyshkin, S.B. Mirov, L. Shao, M. Loncar, "Laser spectroscopic characterization of negatively charged nitrogen-vacancy (NV−) centers in diamond", Opt. Mater. Express 9, 2076 (2019). CrossRef

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Wide-field magnetometry using nitrogen-vacancy color centers with randomly oriented micro-diamonds

Cited by 15 publications

References 32 publications

2024 roadmap on magnetic microscopy techniques and their applications in materials science

2024 roadmap on magnetic microscopy techniques and their applications in materials science

Magnetic field imaging by hBN quantum sensor nanoarray

Low-cost modular design microscope for measuring fluorescent diamonds

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