In vivodeep tissue imaging using wavefront shaping optical coherence tomography
Hyeonseung Yu, Peter Lee, KyeoReh Lee, Jaeduck Jang, Jaeguyn Lim, Wooyoung Jang, Yong Jeong, YongKeun Park
Abstract
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Hyeonseung Yu, Peter Lee, KyeoReh Lee, Jaeduck Jang, Jaeguyn Lim, Wooyoung Jang, Yong Jeong, YongKeun Park
Abstract
Open-access reader
Multiple light scattering in tissue limits the penetration of optical coherence tomography (OCT) imaging. Here, we present in vivo OCT imaging of a live mouse using wavefront shaping (WS) to enhance the penetration depth. A digital micromirror device was used in a spectral-domain OCT system for complex WS of an incident beam which resulted in the optimal delivery of light energy into deep tissue. Ex vivo imaging of chicken breasts and mouse ear tissues showed enhancements in the strength of the image signals and the penetration depth, and in vivo imaging of the tail of a live mouse provided a multilayered structure inside the tissue.
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Multiple light scattering in tissue limits the penetration of optical coherence tomography (OCT) imaging. Here, we present in vivo OCT imaging of a live mouse using wavefront shaping (WS) to enhance the penetration depth. A digital micromirror device was used in a spectral-domain OCT system for complex WS of an incident beam which resulted in the optimal delivery of light energy into deep tissue. Ex vivo imaging of chicken breasts and mouse ear tissues showed enhancements in the strength of the image signals and the penetration depth, and in vivo imaging of the tail of a live mouse provided a multilayered structure inside the tissue.
Key concepts: Optical coherence tomography, Preclinical imaging, Optics, Wavefront, Penetration depth, Materials science, In vivo, Ex vivo