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1 leles leads to XLRP resembling recessive rod-cone dystrophy.
2 different isoforms in 2 murine models of rod-cone dystrophy.
3 that mutations in RLBP1 may lead to FAP with cone dystrophy.
4 ients with RPA and in 1 patient with FAP and cone dystrophy.
5 and a phenotype of a slowly progressing rod/cone dystrophy.
6 GR mutations leading exclusively to X-linked cone dystrophy.
7 und to be associated with autosomal dominant cone dystrophy.
8 (GCAP1), in a family with autosomal dominant cone dystrophy.
9 ral areolar choroidal dystrophy and dominant cone dystrophy.
10 yndrome (CS) is a rare syndromic form of rod-cone dystrophy.
11 , fundus albipunctatus, and Newfoundland rod-cone dystrophy.
12 tis punctata albescens, and Newfoundland rod-cone dystrophy.
13 es revealing rod-mediated retinopathy or rod-cone dystrophy.
14 ed electroretinogram (ERG) evidence of a rod-cone dystrophy.
15 investigating patients with nonsyndromic rod-cone dystrophy.
16 and CRISPR-Cas9 to ablate rods and mimic rod-cone dystrophy.
17 CNGB3 are associated with achromatopsia and cone dystrophies.
18 pe may be a feature of Stargardt disease and cone dystrophies.
19 CNGB3 are associated with achromatopsia and cone dystrophies.
20 derstanding and treating chromophore-related cone dystrophies.
21 ed GCAP1 have been linked to the etiology of cone dystrophies.
22 important consequences for the treatment of cone dystrophies.
23 ne arrestin is a candidate gene for X-linked cone dystrophies.
24 editing, and cell replacement therapies for cone dystrophies.
25 e progression and therapeutic benefit in rod-cone dystrophies.
26 s with Stargardt disease (78.1 mum/year) and cone dystrophies (31.9 mum/year) compared with patients
28 types, 58.2% (51.6-64.6%; 41 studies) in rod-cone dystrophies, 57.7% (46.8-68.3%; eight studies) in m
29 al diagnosis of the individuals included rod-cone dystrophy (60%), macular dystrophy (20%), cone-rod
30 ss index 29.1) with a slowly progressive rod-cone dystrophy, a mild learning difficulty, high myopia,
31 istically displayed a slowly progressing rod-cone dystrophy accompanied by accumulation of N-retinyli
32 knockout (-/-) mice exhibited a progressive cone dystrophy accompanied by significant alterations in
33 ess worldwide, with retinitis pigmentosa and cone dystrophy affecting approximately 1 in 3500 and 1 i
34 ified in all four families, including two in cone dystrophy and RP genes in the same family (PDE6C; c
35 inal diseases such as Stargardt disease, rod-cone dystrophies, and age-related macular degeneration.
36 uman cone diseases, including achromatopsia, cone dystrophies, and early onset macular degeneration.
38 e associated with achromatopsia, progressive cone dystrophy, and early-onset macular degeneration.
39 such as Blue Cone Monochromacy and X-linked Cone Dystrophy are characterized by complete loss (of) o
40 Cone loss in patients with achromatopsia and cone dystrophy associated with CNG channel mutations has
41 type based on age at onset, imaging and ERG: cone dystrophy-bull's-eye maculopathy (CD-BEM, 40 eyes),
43 the GC-E-deficient mouse defines a model for cone dystrophy, but it also demonstrates that morphologi
44 CERKL deficiency in zebrafish may cause rod-cone dystrophy, but not cone-rod dystrophy, while interf
45 on of 11-cis-RDHs causes a slowly developing cone dystrophy caused by inefficient cone pigment regene
46 the biosynthetic pathway and the etiology of cone dystrophy caused by PRPH2 mutations and/or malfunct
47 liary targeting of PRPH2 and the etiology of cone dystrophy caused by PRPH2 mutations remain elusive.
48 cone outer segment can be blocked by either cone dystrophy-causing C-terminal mutations of PRPH2, or
50 e genetic causes of autosomal recessive (ar) cone dystrophy (CD) and cone-rod dystrophy (CRD) are cur
52 pigmentosa (RP), cone-rod dystrophy (CRD) or cone dystrophy (CD) harboring potential pathogenic varia
53 atients with achromatopsia (A), and six with cone dystrophy (CD) were obtained with frequency domain
56 channel deficiency, a model of achromatopsia/cone dystrophy, cones display early-onset ER stress-asso
57 ions in CA4 linked to autosomal dominant rod-cone dystrophy disrupt NBC1-mediated HCO3- transport.
61 Nrl(-/-) background exacerbates age-related cone dystrophy in a light-independent manner, mediated p
63 Cys, a mutation linked to autosomal dominant cone dystrophy in humans, Cys99 is unable to stabilize t
71 pigmentosa (RP), the most common form of rod-cone dystrophy, is caused by greater than 3100 mutations
76 tion, including the first reported case of a cone dystrophy phenotype associated with the disorder.
77 7 patients had proven BBS mutations; 1 had a cone dystrophy phenotype on ERG and 6 had a cone-rod pat
82 riants were identified in a patient with rod-cone dystrophy: R722X in exon 16 and R865W in exon 19 on
85 tional loss in a cohort of patients with rod-cone dystrophy (RCD); (2) flood-illumination adaptive op
91 ave been proposed as the molecular basis for cone dystrophy with supernormal rod electroretinogram.
92 Mutations in Kv8.2 result in childhood-onset cone dystrophy with supernormal rod response (CDSRR).
93 20-40) years, and 6 had an earlier onset rod-cone dystrophy, with a mean (range) age at onset of 12.1
94 patients, 4 had a progressive late-onset rod-cone dystrophy, with a mean (range) age at onset of 29.7
95 ssociated with achromatopsia and progressive cone dystrophy, with mutations in CNGB3 alone accounting