戻る
「早戻しボタン」を押すと検索画面に戻ります。 [閉じる]

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 ens thickness (LT) were measured using optic biometry.
2 d pre- and post-treatment using LenStar OLCR biometry.
3 nd reactions, choroidal thickness and ocular biometry.
4 to compare the TFR in SS-OCT and in PCI/LCOR biometry.
5 ta on gender and generational differences in biometry.
6 luding cycloplegic autorefraction and ocular biometry.
7 atients from North-East India, using optical biometry.
8 orneal curvature were assessed using optical biometry.
9 of both eye bulbs were determined by optical biometry.
10 ll patients underwent ocular examination and biometry.
11  for gestational age determination and fetal biometry.
12  vitreous length were obtained by ultrasound biometry.
13 nocular open-field autorefraction and ocular biometry.
14 maging and high-precision, noncontact ocular biometry.
15 to examine interocular differences in ocular biometry.
16 vidual differences in axial length by ocular biometry.
17 on was used for ethnic differences in ocular biometry.
18 eased by 43% within the 90 days after ocular biometry (1.0% vs. 0.7%; P < 0.0001).
19 1.0D in short and long eyes using ultrasound biometry after phacoemulsification.
20 hamber depth (ACD), and K), (2) Pentacam AXL biometry (AL, ACD, and Sim K), and (3) combined IOLM700
21             A subgroup of patients underwent biometry also with IOLMaster 500.
22  odds of sustaining a fall within 90 days of biometry among patients of high-testing physicians (test
23  odds of sustaining a fall within 90 days of biometry among patients of high-testing physicians (test
24                   Using A-115 for ultrasound biometry and A-115.7 for optical biometry and SRK/T form
25                   Using A-115 for ultrasound biometry and A-115.7 for optical biometry and SRK/T form
26 on was to determine refractive error, ocular biometry and age-related lens changes in a population of
27                                       Ocular biometry and an eye model were used to estimate the reti
28 uded full ophthalmic evaluation, IOP, ocular biometry and anterior segment optical coherence tomograp
29 d the mean and median number of days between biometry and cataract surgery, calculated the proportion
30 d the mean and median number of days between biometry and cataract surgery, calculated the proportion
31                  Given differences in ocular biometry and environmental stimuli, population-specific
32                   Combined analysis of fetal biometry and fetal growth velocity identified a subset o
33  outcome measures were the results of ocular biometry and gene analysis.
34 terior segment tomography, A-scan ultrasound biometry and handheld slit lamp biomicroscopy.
35 ociated with better outcomes included having biometry and having an eye department manager in the fac
36 s have spurred the continued improvements in biometry and intraocular lens calculations.
37  recent studies and advances in the field of biometry and intraocular lens power calculations.
38 ews recent advances in the field of clinical biometry and IOL power calculations.
39 djusting for ASOCT-measured anterior segment biometry and iris characteristics.
40 assessed using pre-surgical examinations and biometry and keratometry measurements performed with the
41 The repeatability and reproducibility of the biometry and keratometry measurements.
42 it was originally made in order to reconcile biometry and Mendelism and ever since has been used in p
43 e difference in axial length between optical biometry and MRI was 0.50 mm.
44 visual field testing, autorefraction, A-scan biometry and optic disc assessment.
45 ual function testing, autorefraction, A-scan biometry and optic disc assessment.
46 ce of formulas varies based on the source of biometry and optimization.
47                           Patients underwent biometry and peripapillary and macular OCT imaging.
48                                              Biometry and refraction measurements were conducted preo
49   Preoperative AL was measured by ultrasound biometry and SRK/T formula was used for IOL calculation.
50  ultrasound biometry and A-115.7 for optical biometry and SRK/T formula, +/-1.00 D of SE, is able to
51  ultrasound biometry and A-115.7 for optical biometry and SRK/T formula, the emmetropia (+/-1.00 D) o
52             Cross-sectional survey of ocular biometry and visual function in healthy eyes across the
53 xial length was assessed with the ultrasound biometry and/or the Zeiss IOLMaster.
54             Due to utilization of ultrasound biometry and/or Zeiss IOLMaster, axial length correction
55 ations included tonometry, ultrasound A-scan biometry, and anterior segment optical coherence tomogra
56 ete examination including gonioscopy, A-scan biometry, and anterior segment optical coherence tomogra
57  patient selection, accurate keratometry and biometry, and appropriate intraocular lens power formula
58                                  Refraction, biometry, and corneal curvature were measured, before, a
59          At both ages 9 and 14 years, ocular biometry, and cycloplegic autorefraction were assessed.
60    Participants underwent gonioscopy, A-scan biometry, and imaging by anterior segment optical cohere
61 phthalmologist using ultrasound, fundoscopy, biometry, and intraoperative assessments.
62   Subjects underwent a full eye examination, biometry, and spectral-domain optical coherence tomograp
63 e noted for growth, feed utilisation or fish biometry, and the fatty acid composition of fish fillets
64 ; the axial length was measured by immersion biometry, and the standard A-constant was used.
65 mined, who underwent retinal imaging, ocular biometry assessment, and clinical ascertainment of ocula
66 ad research ultrasonography, including fetal biometry at 28 and 36 weeks' gestational age.
67                       Pre- and postoperative biometry, autorefraction, and ocular comorbidities or co
68 articipants, which included advanced optical biometry, autorefractometry, visual acuity testing, and
69 diction errors across 3 methods: (1) IOLM700 biometry (axial length (AL), anterior chamber depth (ACD
70 ere statistically superior to standard fetal biometry-based GA estimates derived from images captured
71 icity was consistently associated with fetal biometry: Black, Hispanic, and Asian women had fetuses w
72  length from MRI in studies that do not have biometry but use retinal imaging to study neurodegenerat
73 RI is not a replacement for the precision of biometry, but in the absence of biometry it could provid
74           All 3 models outperformed standard biometry by a more substantial margin on fetuses that we
75 ntraocular lens insertion using the provided biometry calculations, however post-operatively the pati
76 n infants may be difficult, and preoperative biometry can be used to estimate CL power.
77                                   Inaccurate biometry can lead to the wrong intraocular lens implanta
78                                      At E19, biometry, cardiovascular function, stereological, and mo
79 After their eyes were measured by ultrasound biometry, chicks wore either a +10-D lens over one eye f
80 siology, genetics, biochemistry, statistics, biometry, cosmology, and philosophy, although he himself
81           The study involved the analysis of biometry data collected from ten international centers a
82 (M-LVC) according to axial length (AL) using biometry data exported from swept-source optical coheren
83 m normal eyes of children <10 years old with biometry data from eyes undergoing cataract surgery.
84 hort study combining prospectively collected biometry data from normal eyes of children <10 years old
85                                To report the biometry data of pediatric cataractous eyes (randomly se
86  eye in unilateral cases) and to compare the biometry data of the unilateral cataractous eye with the
87 s (P < 0.001) while intraocular pressure and biometry data were similar.
88                            Anonymized SS-OCT biometry datasets acquired between 2018 and 2020 and con
89 toperative refraction using a single optical biometry device.
90 s and limitations of the currently available biometry devices allows prevention of high variability a
91                                     (2) What biometry devices are available, do the measurements they
92                                          All biometry devices delivered highly reproducible measureme
93                                              Biometry devices with swept-source optical coherence tom
94 n optical coherence tomography, ocular axial biometry, dual Scheimpflug photography and integrated Pl
95 portant and need to be considered along with biometry effects when interpreting OCT-A indices.
96 rea measures, based on individualized ocular biometry, eliminated the magnification effect.
97 imals underwent Doppler ultrasound and fetal biometry followed by MRI at gestational days 85 (G85) an
98 linical studies on IOL power calculation and biometry for 2020.
99 e for automated multi-layer segmentation and biometry for 3D T2w reconstructed images of the pregnant
100 clavation, A-constant, ultrasound or optical biometry, formula employed and refractive outcomes.
101                                      Optical biometry has shown to be superior to ultrasound biometry
102                                   The SS-OCT biometry has the potential to provide clinically useful
103  of the tumor was found to influence optical biometry in 15 of 22 patients; the remaining patients sh
104 e association of maternal smoking with fetal biometry in different stages of pregnancy.
105 d for monitoring refractive error and ocular biometry in myopia management.
106 sted odds ratio of falling within 90 days of biometry in patients of high-testing physicians versus l
107  effectiveness of universal ultrasonic fetal biometry in predicting the delivery of a macrosomic infa
108      In response, using swept-source optical biometry in prepresbyopic and presbyopic eyes, we invest
109 LCOR vs. SS-OCT) optical methods for optical biometry in the same cohort of patients were included.
110  effectiveness of universal ultrasonic fetal biometry in the third trimester as a screening test for
111 metry has shown to be superior to ultrasound biometry in vitrectomized eyes but still not achieving a
112                                       Ocular biometry including axial length (AL), anterior chamber d
113                                       Ocular biometry including diameters of the eye, vitreous chambe
114                                              Biometry indicated storage of 1.6 +/- 0.4 megagrams of c
115 e refraction, slit-lamp examination, optical biometry, intraocular pressure (IOP), endothelial cell c
116 n plus (Ver.10.13)) and swept source optical biometry (IOL Master 700 v1.7) was performed on all part
117 ric measurements were obtained using optical biometry (IOLMaster 700), and postoperative refraction w
118 pt-source optical coherence tomography-based biometry (IOLMaster 700; Carl Zeiss Meditec AG).
119            Preoperative assessments included biometry (IOLMaster 700; Carl Zeiss Meditec).
120 eveloped low-coherence reflectometry optical biometry is comparable to older ultrasonic biometric and
121            RECENT FINDINGS: Immersion A-scan biometry is superior in measuring the axial length of ch
122 ovel instrument combining autorefraction and biometry, is designed for monitoring refractive error an
123 precision of biometry, but in the absence of biometry it could provide sufficient accuracy to act as
124 miologic and genetic study that included eye biometry, keratometry, and autorefraction.
125               Eyes were excluded for invalid biometry, lack of refractive data at the specified posto
126                           Challenges include biometry limitations and a high incidence of zonulopathy
127 amber angle anatomy in perspective of ocular biometry may be the key element to intraocular pressure
128 or compared with the clinical standard fetal biometry (mean [SD] difference, -1.51 [3.96] days; 95% C
129 statistical difference between every optical biometry measure between genders.
130            A meta-analysis to compare ocular biometry measured by optical low-coherence reflectometry
131                                 Preoperative biometry measured on the day of cataract surgery was use
132 etinal spectral-domain OCT system and ocular biometry measured.
133 s recent studies highlight difficulties with biometry measurement and IOL calculations in the entire
134  A total of 88 participants had at least one biometry measurement available.
135           Derivation of GA from manual fetal biometry measurements (ie, head, abdomen, and femur) is
136 cation was predicted based on refraction and biometry measurements and compared with empirical change
137 igh 325 kHz A-scan rate not only facilitates biometry measurements by minimizing acquisition time and
138 lar and systemic diseases, unfit for optical biometry measurements due to dense cataract, nystagmus a
139  ITK and Carestream) and compared results to biometry measurements from a specialized ophthalmic inst
140                                   As a rule, biometry measurements taken by different devices should
141 readily accessible method to use only SS-OCT biometry measurements to detect eyes with a high probabi
142 postflight cycloplegic refraction and ocular biometry measurements were obtained from 56 eyes among 2
143                                 Preoperative biometry measurements were obtained from IOLMaster 700 (
144                                              Biometry measurements were obtained using a swept-source
145 his prospective study, 2 consecutive optical biometry measurements, before and after pupil dilation,
146  a chart review/analysis of immersion A-scan biometry measurements, excluding traumatic cataract or l
147 phics, clinical examination findings, ocular biometry measurements, treatment received, and pre- and
148 went cycloplegic refractive error and ocular biometry measurements.
149 MES and SINDI subjects also completed ocular biometry measurements.
150  custom MATLAB programs that included ocular biometry measures (IOL Master).
151      A meta-analysis of the TFR of different biometry methods highlighted that SS-OCT biometry result
152  Mendelism but evolution, natural selection, biometry, mutation, and cytology.
153                                       A-scan biometry (Nidek Echoscan Ultrasound US-800; Nidek Co., T
154      The central corneal thickness (CCT) and biometry of all subjects were recorded.
155                                              Biometry of the anterior segment may offer the opportuni
156   Following servicing of the machine, repeat biometry of the patient calculated the axial length cons
157 redentialed sonographers performing standard biometry on high-specification machines.
158 re cleaned regularly, and consider repeating biometry on separate days if repeat biometry still is no
159 gth (measured either by immersion ultrasound biometry or partial coherence interferometry), target re
160  ophthalmic evaluation including gonioscopy, biometry, pachymetry, and ultrasound biomicroscopy.
161                         We found that ocular biometry parameters and anterior chamber parameters were
162 ead correlations between mRNA expression and biometry parameters including axial and astigmatic compo
163 s were used in various combinations: optical biometry, partial coherence interferometry, low-coherenc
164                         Preoperative optical biometry, Pentacam topography, and postoperative outcome
165 uiring cataract surgery after SB should have biometry performed no earlier than 3 months post SB surg
166                                  Analysis of biometry performed on the same day identified other pati
167          Data including age, gender, optical biometry, postoperative refraction, implanted intraocula
168           The dataset included demographics, biometry power of the surgically implanted intraocular l
169  repeated measurements of autorefraction and biometry pre- and post-cycloplegia.
170 ng AL eyes, the mean absolute error from the biometry-predicted refraction was - 0.16 +/- 0.46 D, cor
171                                              Biometry prediction error was 1.11 diopters (D) for MFS
172  patient selection, accurate keratometry and biometry readings, as well as to the application of corr
173                                   OLCR-based biometry remains reliable in real-world practice.
174 source optical coherence tomography (SS-OCT) biometry repeatedly calculated the axial length as > 35.
175 ent biometry methods highlighted that SS-OCT biometry resulted in significantly decreased TFR compare
176           It is important to be sceptical of biometry results that do not match the refractive or cli
177 s women with universal third trimester fetal biometry roughly tripled detection of SGA infants.
178  position by a low-cost swept-source optical biometry (SSOB) system.
179 ed on the steepest corneal power measured by biometry (stage 1: <=48 diopters [D], stage 2: >48 D and
180 including applanation tonometry, gonioscopy, biometry, stereoscopic fundus examination, and automated
181 epeating biometry on separate days if repeat biometry still is not in keeping with the refractive or
182 now achieved by directing close attention to biometry technique, through the use of third generation
183 dy aims to use preoperative anterior segment biometry to predict future glaucoma among infants underg
184 ent, post-cycloplegic autorefraction, ocular biometry, tonometry, and spectral-domain optical coheren
185                                      Optical biometry using a thermally tunable VCSEL swept-source li
186 ariables from corneal tomography and optical biometry using Oculus Pentacam and IOL Master were asses
187 ss-sectional study of patients who underwent biometry using the Pentacam AXL Wave, IOLMaster 700, and
188 valent (SE) refraction and that predicted by biometry using the SRK-T formula was calculated.
189                                        Fetal biometry was assessed by ultrasound at each research vis
190             Magnetic resonance imaging-based biometry was considered more reliable in patients with U
191 on was then stimulated pharmacologically and biometry was measured continuously for 30 minutes.
192 NTERVENTION, OR TESTING: Preoperative SS-OCT biometry was obtained using the Anterion platform.
193                                              Biometry was obtained with the IOLMaster 500 (Carl Zeiss
194                             Ultrasonic fetal biometry was performed at 20 weeks of gestation as per r
195                                       Ocular biometry was performed before and at the most recent vis
196                                      Optical biometry was performed by OLCR biometer (LenStar LS 900)
197                                              Biometry was performed on 20 healthy right eyes of volun
198 al acuity (VA), electroretinogram (ERG), and biometry were characterized in 4 genotypes, Loxl1(-/-),
199  December 31, 2015, with Lenstar 900 optical biometry were eligible.
200  differences in refractive status and ocular biometry were examined in a multiethnic sample of Britis
201 h keratoconus who had preoperative IOLMaster biometry were included.
202 refraction (without cycloplegia), and ocular biometry were measured in each eye.
203          Both preoperative and postoperative biometry were measured using either the IOLMaster 500 or
204                    Refraction and ultrasound biometry were performed before and after the 3-day-long
205 nd credentialed sonographers performed fetal biometry with a high-specification machine (study standa
206                                      Optical biometry with the IOLMaster 700 (Carl Zeiss Meditec AG)
207                             All subjects had biometry with the IOLMaster and disc/retinal nerve fiber
208 etween pregnancy-averaged SigmaDAP and fetal biometry z scores were determined through multiple linea

 
Page Top