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1 cally altering the optical properties of the eye lens.
2 d crystallin proteins extracted from a sheep eye lens.
3 1.98 x 10(-9)), a major protein component of eye lens.
4 f UV-damaged human gammaD-crystallins in the eye lens.
5 0, the most abundant membrane protein of the eye lens.
6 n component in the nucleus of the vertebrate eye lens.
7 is a highly stable structural protein of the eye lens.
8 abundant structural component of vertebrate eye lens.
9 he aggregation of crystallin proteins in the eye lens.
10 gammaD-crystallin (gammaD), a protein in the eye lens.
11 the refractive properties of the transparent eye lens.
12 g the predominant proteins of the vertebrate eye lens.
13 ial role in the development of a transparent eye lens.
14 (2D IR) spectra on tissue slices of porcine eye lenses.
15 ure group when compared to the control, with eye lens abnormalities being the most prominent of all a
17 simulations, and analysis show that aqueous eye lens alpha-crystallin solutions exhibit a glass tran
18 d dynamics of dilute and concentrated bovine eye lens alpha-crystallin solutions, using small-angle X
19 ll Hsps (sHsps) and the structurally related eye lens alpha-crystallins are ubiquitous stress protein
23 We suggest routine dosimetry measurement of eye lens and proper protection for patients with benign
24 analogy with the diverse crystallins of the eye lens and with the putative enzyme-crystallins (aldeh
26 tes, they act to maintain the clarity of the eye lens, and in humans, sHsp mutations are linked to my
28 t been confirmed as a function of the intact eye lens, and no mechanism for lens phagocytosis has bee
32 Here, we used fiber cells of the vertebrate eye lens as a model system to determine how the membrane
33 gation presents finite element models of the eye lens based on data from human lenses aged 16 and 35
34 erized by the clouding of the normally clear eye lens brought about by deposition of crystallin prote
36 hous aggregation of gamma-crystallins in the eye lens causes cataract, a widespread disease of aging.
38 of alphaVbeta5-mediated phagocytosis by the eye lens could result in accumulation of toxic cell debr
41 ozygous for HIV-1 protease expression in the eye lens, display degradation of some lens crystallins a
42 long-lived, unusually stable proteins of the eye lens exhibiting duplicated, double Greek key domains
47 distance between the bismuth shield and the eye lens helped reduce CT number errors, but the increas
54 finding that lipoxygenase expression in the eye lens is restricted to the region at which organelle
55 or intrinsic protein (MIP) of the vertebrate eye lens is the first identified member of a sequence-re
57 diation doses for the left hand, right hand, eye lens, left leg, and right leg were 0.28, 0.28, 0.03,
58 he core function of gammaS-crystallin in the eye lens may be precisely its capacity to preserve a rob
61 that maps to mouse Chromosome 1 close to the eye lens obsolescence mutation (Cryge(Cat2-Elo)), a memb
62 quired a role as a structural protein in the eye lens of elephant shrews, members of an ancient order
63 termine that the speciation of Se within the eye lens of the intact larva was a selenomethionine-like
65 (crystallins) of the transparent, refractive eye lens of vertebrates are a surprisingly diverse group
66 0 (AQP0), the major intrinsic protein of the eye lens, plays a vital role in maintaining lens clarity
69 interactions in the natively monomeric human eye lens protein gammad-crystallin, whose aggregation le
70 in (gammaS) is an important human and bovine eye lens protein involved in maintaining the transparenc
72 D-crystallin (HgammaD-Crys) is a very stable eye lens protein that must remain soluble and folded thr
75 ene encoding gamma-B crystallin, a mammalian eye-lens protein, modulate the rates of translation and
76 an interesting evolutionary link between the eye lens proteins and the ancestral intermediate filamen
78 loss through the large-scale aggregation of eye lens proteins as a result of ageing or congenital mu
79 (non-Trp) fluorescence of porcine and human eye lens proteins was identified by Mass Spectrometry (M
83 igh refractive index and transparency of the eye lens require uniformly shaped and precisely aligned
85 e major protein components of the vertebrate eye lens that maintain lens transparency, are exposed to
86 o classes of channel-forming proteins in the eye lens, the water channel aquaporin-0 (AQP-0) and the
88 olipids and proteins from both intact bovine eye lens tissue and tissue ablated by ultrashort laser p
89 eral tens of micrometers from the surface of eye lens tissue while leaving the underlying tissue rela
97 les measured along the optical axis of human eye lenses with age-related nuclear cataract showed incr
98 ntially accumulated to highest levels in the eye lens, with lower levels in the retina, yolk and othe
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