コーパス検索結果 (1語後でソート)
通し番号をクリックするとPubMedの該当ページを表示します
1 d a significant retardation of growth on the posterior capsule.
2 c fashion in the most peripheral part of the posterior capsule.
3 traocular lens was less prolific than on the posterior capsule.
4 (LECs) proliferation and migration onto the posterior capsule.
5 opulations in specific tissue regions of the posterior capsule.
6 IOL and improves contact with the underlying posterior capsule.
7 s, the anterior capsule tear extended to the posterior capsule.
8 r cataract surgery in the setting of an open posterior capsule.
9 nder the iris and through the zonules to the posterior capsule.
10 le management was based on the status of the posterior capsule.
11 lorhexis, preventing radial extension to the posterior capsule.
12 e on their path from the ciliary body to the posterior capsule.
13 and ultrastructure, on both the anterior and posterior capsules.
14 islocation occur only in eyes with an intact posterior capsule?
15 ultrasonic phacoemulsification safer to the posterior capsule and less likely to create wound burn.
16 s implantation, as well as management of the posterior capsule and long-term refractive sequelae.
17 OL designs separate the anterior capsule and posterior capsules and further reduce PCO incidence.
18 this model proliferated, migrated across the posterior capsule, and expressed EMT markers, alpha-smoo
19 nd to the slit lamp examination of the lens, posterior capsule, anterior cortical vitreous, and zonul
23 vitrectorhexis method for both anterior and posterior capsules combined with anterior vitrectomy in
25 re leading to glaucoma; cataracts, including posterior capsule defects requiring cataract surgery; re
26 eyes undergoing cataract surgery with intact posterior capsules, eyes undergoing manual posterior cap
27 erms of days until full cell coverage of the posterior capsule in comparison to the AcrySof (p > 0.99
28 dherin junctions, and did not migrate to the posterior capsule, increase proliferation, or express EM
29 but serious complication, particularly when posterior capsule integrity is compromised and the admin
35 y (0.9%), cataracts (3.6%), intraocular lens posterior capsule opacification (1.8%) and a posterior c
39 cantly higher rates of hypotony (p = 0.043), posterior capsule opacification (p = 0.047), and surgica
40 I(2) = 0%; n = 2 studies, 161 participants), posterior capsule opacification (P = 0.46; I(2) = 0%; n
41 le is known about the long-term incidence of posterior capsule opacification (PCO) after cataract sur
45 provements in intraocular lens (IOL) design, posterior capsule opacification (PCO) arising from lens
49 antification of After-Cataract [AQUA II]) of posterior capsule opacification (PCO) in high-resolution
53 ct surgery is common, routine and effective, posterior capsule opacification (PCO) occurs in 30-50% o
54 tients gradually develop the complication of posterior capsule opacification (PCO) or secondary catar
55 dy were to determine the 5-year incidence of posterior capsule opacification (PCO) requiring Nd:YAG l
56 utive pseudophakic patients with symptomatic posterior capsule opacification (PCO) underwent Nd:YAG l
57 DVA), subjective refraction, IOL centration, posterior capsule opacification (PCO), and investigators
58 oped yttrium aluminum garnet capsulotomy for posterior capsule opacification (PCO), and visual acuity
59 ts due to a wound-healing response, known as posterior capsule opacification (PCO), following catarac
64 srupting complication of cataract surgery is posterior capsule opacification (PCO; secondary cataract
66 tion (between piggyback intraocular lenses), posterior capsule opacification and lens epithelial cell
67 how resistant an intraocular lens will be to posterior capsule opacification as a consequence of rege
68 ept that sharp optic edges markedly decrease posterior capsule opacification as compared with round-e
69 d with lower rates of clinically significant posterior capsule opacification compared to treatment wi
72 rban residency and were found in 60.4%, with posterior capsule opacification in 29.6% and posterior c
73 ecial interest are techniques for inhibiting posterior capsule opacification in pediatric patients by
74 d strength, which may decrease resistance to posterior capsule opacification in the face of a regener
83 active lens exchange suggest higher rates of posterior capsule opacification than with standard catar
85 th and angle width in pseudophakic eyes with posterior capsule opacification were measured with anter
87 re instrumental in reducing the incidence of posterior capsule opacification, (PCO, secondary catarac
88 ally valuable in prevention and treatment of posterior capsule opacification, a dreaded complication
89 stance visual acuity (CDVA), IOL centration, posterior capsule opacification, glaucoma, and retinal c
90 the eye this can cause blindness because of posterior capsule opacification, proliferative vitroreti
91 ge design appreciably improves resistance to posterior capsule opacification, significant factors rem
101 and pharmacologic methods); 2) treatment of posterior capsule opacification; and 3) characteristics
102 sterior capsulorhexis is required to inhibit posterior-capsule opacification in pediatric patients; w
105 of posterior capsular opacification (EPCO), posterior capsule opacity (POCO) and AQUA I methods were
109 e between the intraocular lens (IOL) and the posterior capsule (PC), i.e., the IOL/PC distance, on th
114 .2%), anterior capsule tear (9 eyes, 0.81%), posterior capsule rupture (3 eyes, 0.27%), suction loss
115 ding increased intraocular pressure (187.8), posterior capsule rupture (80.1), vitreous hemorrhage (7
116 I(2) = 0%; n = 2 studies, 161 participants), posterior capsule rupture (P = 0.41; I(2) = 0%; n = 5 st
119 might be a useful intervention in eyes with posterior capsule rupture and vitreous loss during catar
121 were male sex, axial myopia, and duration of posterior capsule rupture event from the cataract surger
122 s (5%), with the most common being unplanned posterior capsule rupture in 14 eyes, 10 of which had an
124 ntration/dislocation of IOLs and spontaneous posterior capsule rupture in a clear and relatively inta
126 ual extraction in 5 cases (2%); a concurrent posterior capsule rupture occurred in 58 eyes (24%) with
128 ision burn, is probably less likely to cause posterior capsule rupture than ultrasonic phacoemulsific
129 ty and outcomes (including visual acuity and posterior capsule rupture) of cataract surgical procedur
130 .50-0.57; P < 0.001), whereas intraoperative posterior capsule rupture, combined surgery, and gender
131 ract surgical adverse events were evaluated: posterior capsule rupture, dropped lens fragments, retin
132 Four serious complications were evaluated: posterior capsule rupture, dropped lens fragments, retin
136 The use of iris retractors may facilitate posterior capsule staining by allowing the posterior flo
138 derstand the mechanisms and risk factors for posterior capsule staining with trypan blue and techniqu
141 consider techniques to minimize the risk of posterior capsule staining, particularly in cases involv
142 Excess vitreous was removed to expose the posterior capsule surface, and the eye assembly was plac
143 during phacoemulsification complicated with posterior capsule tear (PCT) may be associated with seve
145 sule tears occurred in 4% and 0.31% of eyes, posterior capsule tears in 3.5% and 0.31% of eyes, and p
150 Surgery in 4 patients was complicated-the posterior capsule was absent or torn-and anterior vitrec
151 e of growth was age-dependent, such that the posterior capsule was completely confluent after 8.0 +/-
152 Cell coverage and wrinkle formation on the posterior capsule were also assessed using human capsula