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1 for these inhomogeneities is the province of adaptive optics.
2 and axons were clearly resolved in vivo with adaptive optics.
3 (SM) pre-amplified receivers with or without adaptive optics.
4 he incident wavefront via guidestar-assisted adaptive optics.
5  develop highly versatile new components for adaptive optics.
6 s optical coherence tomography enhanced with adaptive optics.
7  the central retina of human observers using adaptive optics.
8 ic modes-by their selective excitation using adaptive optics.
9 ation to develop new "biologically inspired" adaptive optics.
10                                              Adaptive optics, a technique used to overcome blur in gr
11   Here I review recent work on incorporating adaptive optics, a technology originally applied in astr
12 , where recent data from molecular genetics, adaptive optics, anatomy, and physiology, together with
13                We have used laser guide star adaptive optics and a near-infrared dual-channel imaging
14 and technological opportunities not only for adaptive optics and photonics but also for any platform
15                              Here we combine adaptive optics and retinal densitometry to obtain what
16 lications in various research fields such as adaptive optics and soft robotics.
17         Here we report on the combination of Adaptive Optics and Structured Illumination Microscopy e
18 ough the combination of wavefront sensorless adaptive optics and the use of dual deformable transmiss
19  with known measurements using histology and adaptive optics and/or OCTA, the selected CC parameters
20                          Spherical geometry, adaptive optics, and highly dense network of neurons bri
21                    Combining optical design, adaptive optics, and temporal multiplexing, the system o
22              Although wavefront sensor-based adaptive optics (AO) can measure these aberrations, such
23                                 The UC Davis Adaptive Optics (AO) fundus camera was used to acquire i
24 e cone mosaic were obtained using high-speed adaptive optics (AO) fundus cameras.
25                                              Adaptive optics (AO) has revolutionized imaging in field
26 ar microperimetry (MP; in four patients) and adaptive optics (AO) imaging (in nine patients) were als
27 e cone photoreceptors overlying drusen using adaptive optics (AO) imaging techniques.
28                                              Adaptive optics (AO) is a powerful method for correcting
29                                              Adaptive optics (AO) is a technique that corrects for op
30 spatial resolution in vivo imaging at depth, adaptive optics (AO) is required to correct sample-induc
31                             Incorporation of adaptive optics (AO) methods have demonstrated considera
32                              This study used adaptive optics (AO) microperimetry to assess visual sen
33  optical coherence tomography (UHR-OCT) with adaptive optics (AO) provides micrometer-scale 3D resolu
34                                  A binocular adaptive optics (AO) vision simulator was used to correc
35                                           An adaptive optics (AO) visual simulator was used to measur
36                                              Adaptive optics (AO) visual simulators based on deformab
37  sample preparation procedure, we found that adaptive optics (AO), by measuring and correcting ocular
38 y recently become possible using an array of adaptive optics (AO)-based imaging tools.
39 ges from patients with optic neuropathy: (1) adaptive optics (AO)-flood-illuminated fundus camera, (2
40 ndocyanine green angiography (FA & ICGA) and adaptive optics (AO).
41 erally dense but could be rare, appearing in adaptive optics as elongated structures with variable or
42 g the 37 eyes that followed the preoperative adaptive optics assessment, the mean PAV increase at nea
43 lar Telescope (NST) equipped with high order adaptive optics at Big Bear Solar Observatory (BBSO).
44                We used the new technology of adaptive optics at the Keck II telescope to observe NGC
45 d measurement, optical coherence tomography, adaptive optics-based infrared fundus ophthalmoscopy, da
46                                              Adaptive optics by direct imaging of the wavefront disto
47                           Here, we performed adaptive optics calcium imaging to noninvasively measure
48                          A new high-contrast adaptive optics camera enabled the discovery of a young
49 ges were obtained using a flood-illumination adaptive optics camera.
50                                              Adaptive optics can correct for optical aberrations.
51                      As a result, two-photon adaptive optics can recover diffraction-limited performa
52 tical coherence microscopy and computational adaptive optics (CAO) to enable the quantitative reconst
53  as Detection of Apoptotic Retinal Cells and Adaptive Optics confocal Scanning Laser Ophthalmoscopy w
54                           Fast imaging using adaptive optics-corrected lattice light-sheet microscopy
55                                              Adaptive optics correction reduced the total root mean s
56 ered, similar to what has been reported with adaptive optics devices.
57 cone dystrophy (RCD); (2) flood-illumination adaptive optics (FIAO) imaging focusing on photoreceptor
58                                              Adaptive optics findings, obtained over the retinal area
59 nt opportunities in robotics, metamaterials, adaptive optics, flexible electronics, and microtechnolo
60                                              Adaptive Optics Flood Illumination Ophthalmoscopy (AO-FI
61                                              Adaptive optics flood illumination ophthalmoscopy (AO-FI
62 sity that can be measured in the retina with adaptive optics fluorescence lifetime ophthalmoscopy (AO
63  system (termed Deep3DSIM) that incorporates adaptive optics for aberration correction and remote foc
64  a turbulent channel without the need of any adaptive optics for beam compensation.
65 processes, we developed deep learning-driven adaptive optics for SMLM to allow direct inference of wa
66 ptical coherence tomography (FDOCT), and (3) adaptive optics-Fourier domain optical coherence tomogra
67 paratus was developed and integrated into an adaptive-optics fundus camera to image 32 healthy contro
68 h observations when fitted with ground-layer adaptive optics (GLAO), which removes the optical aberra
69 enges, we developed geometric transformation adaptive optics (GTAO), which enables adaptable achromat
70           The introduction of hardware-based adaptive optics (HAO) has pushed the limits of optical i
71                      The absence of cones on adaptive optics images does not necessarily mean photore
72 th eyes during follow-up, though analysis of adaptive optics images showed decreased cone density in
73 with the disappearance of the cone mosaic on adaptive optics images.
74                         We used simultaneous adaptive optics imaging and psychophysical testing to me
75 hotoreceptor preservation with SD-OCT and/or adaptive optics imaging is likely to prove invaluable in
76                   Conclusions and Relevance: Adaptive optics imaging may provide high-resolution en f
77         To break this barrier, we use 15 kHz adaptive optics imaging to noninvasively measure single-
78                                         Keck adaptive optics imaging with a physical resolution of 0.
79 without arteriovenous overlap were imaged by adaptive optics imaging.
80                        Using high-resolution adaptive-optics imaging combined with retinal densitomet
81                                              Adaptive-optics imaging identified a small, focal hypore
82                                              Adaptive-optics imaging previously demonstrated a sparse
83 l for quantitative nonlinear microscopy, and adaptive optics improves the overall versatility, which
84                          We demonstrate that Adaptive Optics improves the three-dimensional resolutio
85             Here we introduce an approach to adaptive optics in microscopy wherein the rear pupil of
86 herence tomography scan can be correlated to adaptive optics in terms of photoreceptor density.
87 tonic platforms for dynamic beam shaping and adaptive optics in the crucial infrared wavelength range
88 aging using the Subaru Coronagraphic Extreme Adaptive Optics instrument.
89 termined by preoperative assessment using an adaptive optics instrument.
90 ulling interferometry, combined with extreme adaptive optics, is among the most promising techniques
91                     This means that by using adaptive optics it may be possible to eliminate the impa
92                               Here we report adaptive optics kinematic data of the ultra-compact dwar
93 th regard to resolution, emerging methods of adaptive optics may lead to diffraction-limited imaging
94 ept-source optical coherence tomography with adaptive optics, measure cone responses in two healthy v
95                               We describe an adaptive optics method that modulates the intensity or p
96                          Unlike any existing adaptive-optics method by applying compensating modulati
97                      Conventional sensorless adaptive optics methods rely on iterative mirror changes
98 h of conventional multiphoton microscopy and adaptive optics methods, albeit over restricted distance
99                  Different from conventional adaptive optics methods, this technique can rapidly meas
100 ster spatial light modulators for high-speed adaptive optics, micro-displays for virtual/augmented re
101                                              Adaptive optics microperimetry at locations spanning the
102                                              Adaptive-optics microperimetry is a powerful psychophysi
103                                      We used adaptive optics microstimulation to measure psychophysic
104                                 By combining adaptive optics microstimulation with high-speed eye tra
105                       We developed a compact adaptive optics module and incorporated it into two- and
106 ing cone spacing and density over a complete adaptive optics montage along with a database of normati
107                     We developed multi-pupil adaptive optics (MPAO), which enables simultaneous wavef
108 al for reducing the laser power required for adaptive optics multiphoton imaging, and for facilitatin
109                               Here we report adaptive optics observations of LkCa 15 that probe withi
110 ve optics solution, which uses computational adaptive optics of OCM for wavefront estimation within 2
111 d in the living human eye with the Rochester adaptive optics ophthalmoscope.
112 ectral-domain OCT (SD-OCT), en-face OCT, and adaptive optics ophthalmoscopy (AOO).
113                                              Adaptive optics ophthalmoscopy has enabled visualization
114 tabase will aid investigators in translating adaptive optics ophthalmoscopy to clinical applications.
115                                   We combine adaptive optics ophthalmoscopy with calcium imaging to o
116 tinal vasculature (Joseph et al. 2019) using adaptive optics ophthalmoscopy.
117                             State-of-the-art adaptive optics optical coherence tomography (AO-OCT) ma
118              By imaging with phase-sensitive adaptive optics optical coherence tomography, we identif
119 servationProcedures: Eyes were examined with adaptive-optics optical coherence tomography (AO-OCT), s
120 iseased, with the unique capabilities of our adaptive optics-optical coherence tomography approach an
121 tigate parafoveal cone function in CHM using adaptive optics optoretinography and compare with cone s
122                                              Adaptive optics optoretinography is an emerging techniqu
123 te clinical and ancillary testing, including adaptive optics, outcomes in autoimmune retinopathy (AIR
124    By correcting the aberrations of the eye, adaptive optics produced retinal images of the 0.75' spo
125                            Measurements with adaptive optics reflection densitometry revealed compone
126 st, located in the perifoveal area, using an adaptive optics retinal camera.
127 eptor survival or loss, based on analysis of adaptive optics retinal images, was valuable to monitor
128                                        Here, adaptive optics retinal imaging has revealed a mechanism
129                                              Adaptive optics retinal imaging showed no thickening of
130 ical coherence tomography, while in research adaptive optics reveal detailed phenotypic characteristi
131        In this report, we present sensorless adaptive optics (SAO) using low-coherence interferometri
132     Autofluorescence fundus imaging using an adaptive optics scanning laser ophthalmoscope (AOSLO) al
133                                              Adaptive optics scanning laser ophthalmoscope (AOSLO) im
134 ding high-resolution imaging with a confocal adaptive optics scanning laser ophthalmoscope (AOSLO) in
135                              Imaging with an adaptive optics scanning laser ophthalmoscope (AOSLO) sh
136                              High-resolution adaptive optics scanning laser ophthalmoscope (AOSLO) sy
137                                           An adaptive optics scanning laser ophthalmoscope (AOSLO) wa
138  pores in normal living eyes with a confocal adaptive optics scanning laser ophthalmoscope (AOSLO).
139 n vivo by detecting autofluorescence with an adaptive optics scanning laser ophthalmoscope (AOSLO).
140   Cone packing density was obtained using an adaptive optics scanning laser ophthalmoscope (AOSLO).
141 racterized the performance of a fluorescence adaptive optics scanning laser ophthalmoscope (fAOSLO) t
142                         Using a fluorescence adaptive optics scanning laser ophthalmoscope (FAOSLO),
143 tly developed technique based on a dual-beam adaptive optics scanning laser ophthalmoscope to measure
144 que retinas were imaged using a fluorescence adaptive optics scanning laser ophthalmoscope to resolve
145                                           An adaptive optics scanning laser ophthalmoscope was used t
146                            A high-resolution adaptive optics scanning laser ophthalmoscope was used t
147 ganglion cells were obtained in vivo with an adaptive optics scanning laser ophthalmoscope.
148 red using high-resolution eye-tracking by an adaptive optics scanning laser ophthalmoscope.
149  normal maculae were imaged using a research adaptive optics scanning laser ophthalmoscope.
150  resolution retinal imaging systems, such as adaptive optics scanning laser ophthalmoscopes (AOSLO),
151                       In this study, we used adaptive optics scanning laser ophthalmoscopy (AO-SLO) t
152   A subset of patients was also imaged using adaptive optics scanning laser ophthalmoscopy (AO-SLO).
153 resolution macular images were obtained with adaptive optics scanning laser ophthalmoscopy (AOSLO) an
154 resolution macular images were obtained with adaptive optics scanning laser ophthalmoscopy (AOSLO) an
155                                              Adaptive optics scanning laser ophthalmoscopy (AOSLO) im
156                                              Adaptive optics scanning laser ophthalmoscopy (AOSLO) pr
157 ipants were imaged with 795 nm excitation in adaptive optics scanning laser ophthalmoscopy (AOSLO) to
158                                              Adaptive optics scanning laser ophthalmoscopy (AOSLO) un
159                                              Adaptive optics scanning laser ophthalmoscopy (AOSLO) wa
160 gh-resolution images of cone structure using adaptive optics scanning laser ophthalmoscopy (AOSLO) we
161  coherence tomography angiography (OCTA) and adaptive optics scanning laser ophthalmoscopy (AOSLO).
162 sures included cone spacing and density from adaptive optics scanning laser ophthalmoscopy and photor
163                                              Adaptive optics scanning laser ophthalmoscopy and SD OCT
164 resolution macular images were obtained with adaptive optics scanning laser ophthalmoscopy and spectr
165 h-resolution macular images were obtained by adaptive optics scanning laser ophthalmoscopy and spectr
166                                 We show that adaptive optics scanning laser ophthalmoscopy can visual
167                              Imaging with an adaptive optics scanning light ophthalmoscope (AOSLO) en
168 of the photoreceptor mosaic obtained from an adaptive optics scanning light ophthalmoscope (AOSLO).
169  using either a modified fundus camera or an adaptive optics scanning light ophthalmoscope.
170 mal-sighted participants were imaged with an adaptive optics scanning light ophthalmoscope.
171 ted controls with a custom-built, multimodal adaptive optics scanning light ophthalmoscope.
172                                 Fluorescence adaptive optics scanning light ophthalmoscopy (AOSLO) ca
173                   By performing fluorescence adaptive optics scanning light ophthalmoscopy (AOSLO) of
174   Although imaging of the living retina with adaptive optics scanning light ophthalmoscopy (AOSLO) pr
175                                              Adaptive optics scanning light ophthalmoscopy (AOSLO) re
176        In this study, we deploy fluorescence adaptive optics scanning light ophthalmoscopy (AOSLO) to
177                 Demonstrating the utility of adaptive optics scanning light ophthalmoscopy (AOSLO) to
178                                              Adaptive optics scanning light ophthalmoscopy images wer
179                                              Adaptive optics scanning light ophthalmoscopy imaging of
180 TGD1 are retinal pigment epithelial lesions, adaptive optics scanning light ophthalmoscopy reveals in
181 on retinal images were acquired with OCT and adaptive optics scanning light ophthalmoscopy.
182            We investigated early STGD1 using adaptive optics scanning light ophthalmoscopy.
183 f the rod and cone mosaic was assessed using adaptive optics scanning light ophthalmoscopy.
184                                          The adaptive optics scheme presented in this work is general
185 emented a closed-loop single-shot sensorless adaptive optics solution, which uses computational adapt
186  depletion nanoscope, which uses an advanced adaptive optics strategy to achieve sub-50-nm isotropic
187 euteranopia (AOS1) whose retina, imaged with adaptive optics, suggested that approximately 30% of his
188      Ocular aberrations were measured and an adaptive optics system was used to correct ocular lower-
189                                           An adaptive optics system was used to correct the aberratio
190                It combines a very high-order adaptive optics system, a diffraction-suppressing corona
191 e images were acquired in three eyes with an adaptive optics system.
192                                              Adaptive optics systems, which have been used widely to
193 ther improved by the use of state-of-the-art adaptive optics systems.
194 on approach as well as with beam shaping and adaptive optics techniques.
195 e methods, providing restoration on par with adaptive optics techniques; and subsequently apply the n
196                                        Using adaptive optics that allows accurate measurement of bout
197                              Here we exploit adaptive optics to achieve focusing in disordered optica
198 njugated dextran in brain microvessels) with adaptive optics to compensate for tissue-induced aberrat
199                        To test this, we used adaptive optics to control and manipulate the blur proje
200                                        Using adaptive optics to correct for ocular aberrations, we de
201 truction to combat sample motion and applied adaptive optics to correcting sample-induced optical abe
202 r illumination that generalizes the field of adaptive optics to include object-dependent patterns.
203  can be resolved, offering promise for using adaptive optics to investigate the rodent eye in vivo wi
204 ned singly scattered images by: (i) marrying adaptive optics to optical coherence tomography to avoid
205 different macular locations by: (i) marrying adaptive optics to phase-sensitive optical coherence tom
206 anning laser ophthalmoscopy with and without adaptive optics to quantify the 3D distribution and dyna
207 of a two-photon microscope that incorporates adaptive optics to restore diffraction-limited resolutio
208                                The resulting adaptive optics two-photon microscope is modular and all
209 at characterize the performance of vectorial adaptive optics (V-AO), with theoretical and experimenta
210                          We used a binocular adaptive optics vision simulator to determine the relati
211                                           An adaptive optics visual simulator was used to measure 3 p
212  with focal alteration of the cone mosaic on adaptive optics was performed.
213                    Traditional approaches to adaptive optics wavefront correction are not effective i
214                       By leveraging advanced adaptive optics, we developed a data acquisition algorit
215                                        Using Adaptive Optics, we investigated the optical and visual
216                                        Using adaptive optics, we show that even minute optical aberra
217 l photoreceptors requires technology such as adaptive optics, which has numerous limitations and is n

 
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