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2 June 2021 Single acquisition label-free histology-like imaging with dual-contrast photoacoustic remote sensing microscopy (Errata)
Author Affiliations +
Abstract

The errata correct the errors in citation numbering that appeared in the originally published article.

This article [J. Biomed. Opt. 26(5), 056007 (2021) doi: 10.1117/1.JBO.26.5.056007] was originally published on 25 May 2021 with erroneous citation numbering in the reference list and in the text.

In the reference list, the following references were corrected:

  • from 12 to 13: G. Stasi and E.M. Ruoti “A critical evaluation in the delivery of the ultrasound practice: the point of view of the radiologist,” Ital. J. Med. 9(1), 5 (2015)

  • from 13 to 12: T. T. W. Wong et al., “Fast label-free multilayered histology-like imaging of human breast cancer by photoacoustic microscopy,” Sci. Adv. 3(5), e1602168 (2017)

  • from 17 to 19: N. J. M. Haven et al., “Ultraviolet photoacoustic remote sensing microscopy,” Opt. Lett. 44, 3586–3589 (2019)

  • from 18 to 20: N. Haven et al., “Reflective objective-based ultraviolet photoacoustic remote sensing virtual histopathology,” Opt. Lett. 45, 535–538 (2020)

  • from 19 to 17: K. Bell et al., “Reflection-mode virtual histology using photoacoustic remote sensing microscopy,” Sci. Rep. 10, 19121 (2020)

  • from 20 to 18: B.R. Ecclestone et al., “Improving maximal safe brain tumor resection with photoacoustic remote sensing microscopy,” Sci. Rep. 10, 17211 (2020).

In the body of the text, the following citations were corrected:

  • from 12 to 13, for the sentence

    • “Acoustic transducers are typically bulky, have known interoperator technique reliability issues, and sometimes require immersion in a coupling media such as water to function.”

  • from 13 to 14, for the sentences

    • “PARS replaces the acoustically coupled ultrasound transducer with a detection laser.”

    • “Photoacoustic signals are then detected as pressure-induced modulations in the backscattered magnitude of the detection beam.”

    • “Observing backscattering in a reflection mode architecture allows PARS to image thick samples.”

  • from 14 and 15, to 15-18, for the sentence

    • “Moreover, PARS may provide chromophore-specific contrast by selecting excitation wavelengths to target unique biomolecule absorption spectra.”

  • from 19 and 20, to 17 and 18, for the sentences

    • “Previously, PARS has provided complete H&E emulation using a tunable excitation source to independently target the absorption peaks of DNA and cell membrane structures.”

    • “While effective in both thin sections and tissue blocks, this technique was largely limited in field of view, resolution, and imaging speed since it required the use of a slow (1 kHz) tunable excitation source.”

  • from 13 to 14, for the sentences

    • “In PARS systems, a cofocused pulsed excitation and continuous wave detection laser pair are used to capture photoacoustic absorption contrast.”

    • “The excitation induces photoacoustic signals by depositing focused pulses of optical energy into the sample.”

    • “The absorption contrast is then captured as nanosecond scale pressure-induced modulations in the backscattered intensity of the cofocused detection laser.”

    • “Usually, to capture MHz-scale PARS modulations, the time-resolved backscattering magnitude is band pass filtered to isolate the absorption signal.”

  • from 16 and 17, to 17 and 18 for the sentences

    • “Previous implementations developed by our group leverage a multiwavelength tunable excitation to capture hyperspectral images of several chromophores in the tissue.”

    • “In this implementation, we use a 50-kHz UVexcitation, which provides emulated H&E images substantially faster than the 1-kHz tunable source used in previous studies.”

The above-listed errors were corrected, and the article was republished on 26 May 2021.

© The Authors. Published by SPIE under a Creative Commons Attribution 4.0 Unported License. Distribution or reproduction of this work in whole or in part requires full attribution of the original publication, including its DOI.
Benjamin R. Ecclestone, Deepak Dinakaran, and Parsin Haji Reza "Single acquisition label-free histology-like imaging with dual-contrast photoacoustic remote sensing microscopy (Errata)," Journal of Biomedical Optics 26(6), 069801 (2 June 2021). https://doi.org/10.1117/1.JBO.26.6.069801
Published: 2 June 2021
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Cited by 1 scholarly publication.
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KEYWORDS
Photoacoustic spectroscopy

Remote sensing

Microscopy

Absorption

Photoacoustic imaging

Modulation

Signal detection

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