Optical coherence tomography in elastography and angiography

V.Yu. Zaitsev^†
Federal Research Center A.V. Gaponov-Grekhov Institute of Applied Physics of the Russian Academy of Sciences, ul. Ulyanova 46, Nizhny Novgorod, 603000, Russian Federation

An overview of modalities that are new for biomedical diagnostics and that have emerged in recent years in optical coherence tomography (OCT) — optical coherence tomography angiography (OCTA) and optical coherence elastography (OCE) — is given. These modalities are extensions of OCT imaging technology, which is based on the principles of low-coherence interferometry and celebrated its 30th anniversary in 2021. The basic principles of OCTA and OCE are outlined, the appearance of which was largely stimulated by earlier similar functional extensions in medical ultrasound. A number of results are presented that illustrate previously inaccessible possibilities opened up by the new modalities for biomedical applications. The article is an extended version of the report presented at the Scientific Session of the Division of Physical Sciences of the Russian Academy of Sciences, held on December 13, 2021.

Keywords: optical coherence tomography, optical coherence tomography angiography, optical coherence elastography, compression elastography, biophotonics, optical biopsy
PACS: 42.30.Ms, 42.30.Va, 42.30.Wb, 42.62.Be, 62.20.D−, 62.20.F− (all)
DOI: 10.3367/UFNe.2022.06.039207
URL: https://ufn.ru/en/articles/2023/8/c/
Web of Science

001112646900003
Scopus

2-s2.0-85182915790
ADS NASA

2023PhyU...66..794Z
Citation: Zaitsev V Yu "Optical coherence tomography in elastography and angiography" Phys. Usp. 66 794–817 (2023)

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Received: 11th, April 2022, revised: 14th, June 2022, accepted: 21st, June 2022

Оригинал: Зайцев В Ю «Оптическая когерентная томография в эластографии и ангиографии» УФН 193 845–871 (2023); DOI: 10.3367/UFNr.2022.06.039207

References (147) Similar articles (19) ↓

B.V. Sokolenko, N.V. Shostka, O.S. Karakchieva “Optical tweezers and manipulators. Modern concepts and future prospects” 65 812–833 (2022)
A.N. Korolev “Increase of resolution of optical systems by effective use of the degrees of freedom on the object wave field” 11 712–726 (1969)
A.V. Korzhimanov, A.A. Gonoskov et al “Horizons of petawatt laser technology” 54 9–28 (2011)
V.V. Pikalov, N.G. Preobrazhenskii “Computer-aided tomography and physical experiment” 26 974–990 (1983)
I.S. Klimenko, G.V. Skrotskii “Focused-image holography” 16 88–98 (1973)
L.M. Soroko “Holography and interference processing of information” 9 643–669 (1967)
S.M. Stishov, A.E. Petrova “Thermodynamic, elastic, and electronic properties of substances with a chiral crystal structure: MnSi, FeSi, and CoSi” 66 576–585 (2023)
D.S. Ponomarev, A.E. Yachmenev et al “Optical-to-terahertz switches: state of the art and new opportunities for multispectral imaging” 67 3–21 (2024)
I.K. Razumov, A.Y. Yermakov et al “Nonequilibrium phase transformations in alloys under severe plastic deformation” 63 733–757 (2020)
R.A. Andrievski “Nanostructures under extremes” 57 945–958 (2014)
B.Ya. Zel’dovich, V.V. Shkunov, T.V. Yakovleva “Holograms of speckle fields” 29 678–702 (1986)
V.A. Atsarkin, G.V. Skrotskii et al “NMR introscopy” 24 841–859 (1981)
I.A. Deryugin, V.N. Kurashov et al “Polarization effects in holography” 15 804–811 (1973)
V.V. Aristov, V.Sh. Shekhtman “PROPERTIES OF THREE-DIMENSIONAL HOLOGRAMS” 14 263–277 (1971)
A.A. Ivanov, M.V. Alfimov, A.M. Zheltikov “Femtosecond pulses in nanophotonics” 47 687–704 (2004)
G.I. Budker, A.N. Skrinskii “Electron cooling and new possibilities in elementary particle physics” 21 277–296 (1978)
N.P. Zotov, V.A. Tsarev “Diffraction dissociation: 35 years on” 31 119–139 (1988)
L.M. Barkov, M.S. Zolotorev, I.B. Khriplovich “Observation of parity nonconservation in atoms” 23 713–731 (1980)
V.G. Gorshkov “Electrodynamic processes in colliding beams of high-energy particles” 16 322–338 (1973)

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