| Publication |
Sentence |
Publish Date |
Extraction Date |
Species |
| Chen-Xing Qi, Zhi Wen, Xin Huan. Altered functional connectivity strength of primary visual cortex in subjects with thyroid-associated ophthalmopathy. Neuroreport. 2024-04-23. PMID:38652513. |
our objective was to explore the disparities in the intrinsic functional connectivity (fc) patterns of primary visual cortex (v1) between patients with thyroid-associated ophthalmopathy (tao) and healthy controls (hcs) utilizing resting-state functional mri. |
2024-04-23 |
2024-04-26 |
human |
| Milena Kaestner, Yulan D Chen, Caroline Clement, Alex Hodges, Anthony M Norci. Two Disparity Channels in Human Visual Cortex With Different Contrast and Blur Sensitivity. Translational vision science & technology. vol 13. issue 2. 2024-02-28. PMID:38411970. |
two disparity channels in human visual cortex with different contrast and blur sensitivity. |
2024-02-28 |
2024-03-01 |
human |
| Tyler S Manning, Emma Alexander, Bruce G Cumming, Gregory C DeAngelis, Xin Huang, Emily A Coope. Transformations of sensory information in the brain suggest changing criteria for optimality. PLoS computational biology. vol 20. issue 1. 2024-01-11. PMID:38206969. |
the differences in tuning curve characteristics across areas are consistent with a shift in optimization goals: v1 and v2 population-level responses are more consistent with maximizing the information encoded about naturally occurring binocular disparities, while mt responses shift towards maximizing the ability to support disparity discrimination. |
2024-01-11 |
2024-01-14 |
monkey |
| Jieming Fu, Seiji Tanabe, Jianhua Can. Widespread and multifaceted binocular integration in the mouse primary visual cortex. The Journal of neuroscience : the official journal of the Society for Neuroscience. 2023-08-21. PMID:37604691. |
here, we perform a thorough characterization of binocular integration using electrophysiological recordings in the v1 of awake adult male and female mice, by systematically varying the orientation and phase disparity of monocular and binocular stimuli. |
2023-08-21 |
2023-09-07 |
mouse |
| Jieming Fu, Seiji Tanabe, Jianhua Can. Widespread and multifaceted binocular integration in the mouse primary visual cortex. The Journal of neuroscience : the official journal of the Society for Neuroscience. 2023-08-21. PMID:37604691. |
we reveal widespread binocular integration in mouse v1 and demonstrate that the three commonly studied binocular properties - ocular dominance, interocular matching, and disparity selectivity - are independent from each other. |
2023-08-21 |
2023-09-07 |
mouse |
| Seiji Tanabe, Jieming Fu, Jianhua Can. Strong tuning for stereoscopic depth indicates orientation-specific recurrent circuitry in tree shrew V1. Current biology : CB. 2022-11-23. PMID:36417902. |
neurons in the primary visual cortex (v1) are tuned to specific disparities between the two retinal images, which form the neural substrate for stereoscopic vision. |
2022-11-23 |
2023-08-14 |
mouse |
| Seiji Tanabe, Jieming Fu, Jianhua Can. Strong tuning for stereoscopic depth indicates orientation-specific recurrent circuitry in tree shrew V1. Current biology : CB. 2022-11-23. PMID:36417902. |
we show that v1 neurons in tree shrews, but not in mice, display highly selective responses to narrow ranges of disparity in random-dot stereograms. |
2022-11-23 |
2023-08-14 |
mouse |
| Paul B Hibbard, Jordi M Ashe. Robust natural depth for anticorrelated random dot stereogram for edge stimuli, but minimal reversed depth for embedded circular stimuli, irrespective of eccentricity. PloS one. vol 17. issue 9. 2022-09-22. PMID:36137132. |
these disparities are encoded by binocular neurons in the visual cortex. |
2022-09-22 |
2023-08-14 |
human |
| Milena Kaestner, Marissa L Evans, Yulan D Chen, Anthony M Norci. Dynamics of absolute and relative disparity processing in human visual cortex. NeuroImage. 2022-04-10. PMID:35398280. |
dynamics of absolute and relative disparity processing in human visual cortex. |
2022-04-10 |
2023-08-13 |
human |
| Milena Kaestner, Marissa L Evans, Yulan D Chen, Anthony M Norci. Dynamics of absolute and relative disparity processing in human visual cortex. NeuroImage. 2022-04-10. PMID:35398280. |
cortical processing of binocular disparity is believed to begin in v1 where cells are sensitive to absolute disparity, followed by the extraction of relative disparity in higher visual areas. |
2022-04-10 |
2023-08-13 |
human |
| Milena Kaestner, Marissa L Evans, Yulan D Chen, Anthony M Norci. Dynamics of absolute and relative disparity processing in human visual cortex. NeuroImage. 2022-04-10. PMID:35398280. |
here, we use steady-state visual evoked potentials and dynamic random dot stereograms to characterize the temporal dynamics of spatial mechanisms in human visual cortex that are primarily sensitive to either absolute or relative disparity. |
2022-04-10 |
2023-08-13 |
human |
| Li Zhaopin. Central-Peripheral Dichotomy (CPD) in feedforward and feedback processes explored by depth perception in random-dot stereograms (RDSs). Journal of vision. vol 22. issue 3. 2022-02-04. PMID:35120232. |
v1 neurons respond to crrds as if their preferred binocular disparities become anti-preferred and vice versa, signalling reversed depths. |
2022-02-04 |
2023-08-13 |
Not clear |
| I Betina Ip, Ivan Alvarez, Mike Tacon, Andrew J Parker, Holly Bridg. MRI stereoscope: a miniature stereoscope for human neuroimaging. eNeuro. 2022-01-20. PMID:35045974. |
the comparison of large binocular disparities compared to disparities close to zero evoked strong responses across dorsal and ventral extra-striate visual cortex. |
2022-01-20 |
2023-08-13 |
human |
| Takuji Kasamatsu, Kazuyuki Imamur. Ocular dominance plasticity: Molecular mechanisms revisited. The Journal of comparative neurology. vol 528. issue 17. 2021-11-11. PMID:32737874. |
ocular dominance plasticity (odp) is a type of cortical plasticity operating in visual cortex of mammals that are endowed with binocular vision based on the competition-driven disparity. |
2021-11-11 |
2023-08-13 |
Not clear |
| Lukas Klimmasch, Johann Schneider, Alexander Lelais, Maria Fronius, Bertram Emil Shi, Jochen Triesc. The development of active binocular vision under normal and alternate rearing conditions. eLife. vol 10. 2021-11-01. PMID:34402429. |
the development of binocular vision is an active learning process comprising the development of disparity tuned neurons in visual cortex and the establishment of precise vergence control of the eyes. |
2021-11-01 |
2023-08-13 |
Not clear |
| Yiran Duan, Jayant Thatte, Alexandra Yaklovleva, Anthony M Norci. Disparity in Context: Understanding how monocular image content interacts with disparity processing in human visual cortex. NeuroImage. vol 237. 2021-10-29. PMID:33964460. |
disparity in context: understanding how monocular image content interacts with disparity processing in human visual cortex. |
2021-10-29 |
2023-08-13 |
human |
| Ivan Alvarez, Samuel A Hurley, Andrew J Parker, Holly Bridg. Human primary visual cortex shows larger population receptive fields for binocular disparity-defined stimuli. Brain structure & function. vol 226. issue 9. 2021-10-29. PMID:34347164. |
we found larger population receptive fields for disparity compared with contrast and luminance in area v1, the first stage of binocular combination, which likely reflects the binocular integration zone, an interpretation supported by modelling of the binocular energy model. |
2021-10-29 |
2023-08-13 |
human |
| Li Zhaopin. Contrast-reversed binocular dot-pairs in random-dot stereograms for depth perception in central visual field: Probing the dynamics of feedforward-feedback processes in visual inference. Vision research. vol 186. 2021-07-09. PMID:34091397. |
if a black dot in one monocular image corresponds to a white dot in the other, disparity-tuned neurons in primary visual cortex (v1) respond as if their preferred disparities become non-preferred and vice versa, reversing the disparity sign reported to higher visual areas. |
2021-07-09 |
2023-08-13 |
Not clear |
| Hui Wei, Cheng Xu, Zifeng Ji. Binocular Matching Model Based on Hierarchical V1 and V2 Receptive Fields With Color, Orientation, and Region Feature Information. IEEE transactions on bio-medical engineering. vol 67. issue 11. 2021-06-24. PMID:32142415. |
accordingly, the receptive fields of v1 layer neurons are aggregated to obtain the receptive fields of the v2 layer, and the disparity is obtained in the v2 layer. |
2021-06-24 |
2023-08-13 |
Not clear |
| Li Gu, Yiyao Wang, Lei Feng, Saiqun Li, Mengwei Zhang, Qingqing Ye, Yijing Zhuang, Zhong-Lin Lu, Jinrong Li, Jin Yua. Meridian-Specific and Post-Optical Deficits of Spatial Vision in Human Astigmatism: Evidences From Psycho-Physical and EEG Scalings. Frontiers in psychology. vol 12. 2021-04-06. PMID:33815196. |
these paradigms are potentially applicable to reduce and even eliminate the meridional disparity in the primary visual cortex by adopting perceptual learning or other vision-related interventions. |
2021-04-06 |
2023-08-13 |
human |