We demonstrate the feasibility of our newly developed phase stabilized high-speed (100 kHz A-scans/s) 1 μm sweptsource optical coherence tomography (SSOCT) system with the phase-variance based motion contrast method for visualization of human chorioretinal complex microcirculation. Compared to our previously reported spectral domain (spectrometer based) phase-variance (pv)-SDOCT system it has advantages of higher sensitivity, reduced fringe washout for high blood flow speeds and deeper penetration in choroid. High phase stability SSOCT imaging was achieved by using a computationally efficient phase stabilization approach. This process does not require additional calibration hardware and complex numerical procedures. Our phase stabilization ...
Purpose. To demonstrate the application of phase-variance optical coherence tomography (pvOCT) for c...
PurposeTo demonstrate the application of phase-variance optical coherence tomography (pvOCT) for con...
The traditional phase-resolved Doppler method demonstrates great success for in-vivo imaging of bloo...
We demonstrate the feasibility of our newly developed phase stabilized high-speed (100 kHz A-scans/s...
We present a noninvasive phase-variance (pv)–based motion contrast method for depth-resolved imaging...
We present in vivo volumetric images of human retinal micro-circulation using Fourier-domain optical...
We present in vivo noninvasive retinal and choroidal perfusion maps with phase-variance optical cohe...
We present nnnnnin vivo volumetric depth-resolved vasculature images of the anterior segment of the ...
Human retinal and choroidal vasculature was visualized by a differential phase-contrast (DPC) method...
We present high-speed Fourier-domain optical coherence tomography (Fd-OCT) with the phase variance b...
A differential phase contrast (DPC) method is validated for in vivo human retinal and choroidal vasc...
Detailed visualization of microvascular changes in the human retina is clinically limited by the cap...
We present noninvasive, three-dimensional, depth-resolved imaging of human retinal and choroidal blo...
Detailed visualization of microvascular changes in the human retina is clinically limited by the cap...
In this paper, we analyze the retinal and choroidal blood vasculature in the posterior segment of th...
Purpose. To demonstrate the application of phase-variance optical coherence tomography (pvOCT) for c...
PurposeTo demonstrate the application of phase-variance optical coherence tomography (pvOCT) for con...
The traditional phase-resolved Doppler method demonstrates great success for in-vivo imaging of bloo...
We demonstrate the feasibility of our newly developed phase stabilized high-speed (100 kHz A-scans/s...
We present a noninvasive phase-variance (pv)–based motion contrast method for depth-resolved imaging...
We present in vivo volumetric images of human retinal micro-circulation using Fourier-domain optical...
We present in vivo noninvasive retinal and choroidal perfusion maps with phase-variance optical cohe...
We present nnnnnin vivo volumetric depth-resolved vasculature images of the anterior segment of the ...
Human retinal and choroidal vasculature was visualized by a differential phase-contrast (DPC) method...
We present high-speed Fourier-domain optical coherence tomography (Fd-OCT) with the phase variance b...
A differential phase contrast (DPC) method is validated for in vivo human retinal and choroidal vasc...
Detailed visualization of microvascular changes in the human retina is clinically limited by the cap...
We present noninvasive, three-dimensional, depth-resolved imaging of human retinal and choroidal blo...
Detailed visualization of microvascular changes in the human retina is clinically limited by the cap...
In this paper, we analyze the retinal and choroidal blood vasculature in the posterior segment of th...
Purpose. To demonstrate the application of phase-variance optical coherence tomography (pvOCT) for c...
PurposeTo demonstrate the application of phase-variance optical coherence tomography (pvOCT) for con...
The traditional phase-resolved Doppler method demonstrates great success for in-vivo imaging of bloo...