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1 lithium action and on the pathophysiology of galactosemia.
2 n enzyme (hGALE) is associated with type III galactosemia.
3 ign of small molecule therapies for type III galactosemia.
4 sociated with a very severe form of type III galactosemia.
5 ulate in humans who have the disease classic galactosemia.
6 s may facilitate management of patients with galactosemia.
7 been demonstrated in diabetes and classical galactosemia.
8 in a variant form of the metabolic disorder, galactosemia.
9 result in the disorder epimerase-deficiency galactosemia.
10 erapy for patients with epimerase-deficiency galactosemia.
11 a frequent long-term complication of classic galactosemia.
12 hose mutations known to give rise to Type II galactosemia.
13 in the diseased state referred to as Type II galactosemia.
14 ences of mutations in human GalK which cause galactosemia.
15 ophysiologic questions raised by humans with galactosemia.
16 to the diseased state referred to as Type II galactosemia.
17 ism are characteristic of the disease called galactosemia.
18 ldose reductase inhibitors from the onset of galactosemia.
19 GalT is deficient in galactosemia.
20 subnormal DeltaPO(2) in diabetes but not in galactosemia.
21 normal (P < 0.05) at 3 months of diabetes or galactosemia.
22 s in the potentially lethal disorder classic galactosemia.
23 disorder referred to as epimerase-deficiency galactosemia.
24 results in the potentially lethal disorder, galactosemia.
25 ons of retinopathy in diabetes as well as in galactosemia.
26 model of diabetic retinopathy, experimental galactosemia.
27 was not affected by diabetes or experimental galactosemia.
28 enzyme and its role in epimerase-deficiency galactosemia.
29 sed as a novel strategy for treating classic galactosemia.
30 suitable for evaluation in rodent models of galactosemia.
31 s been linked to cataract development in the galactosemias.
34 h short duration of experimental diabetes or galactosemia and absent or minimal morphological changes
35 ications for furthering our understanding of galactosemia and GALT holoenzyme structure-function rela
39 ontaining 30% galactose induces experimental galactosemia and results in the formation of diabetes-li
40 p 5' deletion as a causal mutation in Duarte galactosemia and suggest that direct tests for this dele
41 ither not operative or are less important in galactosemia and that may not relate to the accumulation
42 nsition 1721C-->T produces the LA variant of galactosemia and that this nucleotide change increases G
43 20 microns, were significantly increased by galactosemia and were attenuated in the galactose-fed, A
45 n of ATPases in diabetes and in experimental galactosemia, and administration of LY333531 to diabetic
46 in diabetes, but was normal in experimental galactosemia, and antioxidants prevented diabetes-induce
47 ecame subnormal in diabetes and experimental galactosemia, and LY333531 had no effect on PKC activity
48 elevant targets in epimerase and transferase galactosemias, and identify UGP as promising new potenti
49 caspases were also measured in experimental galactosemia, another model that develops a diabetic-lik
50 and differences between mice and humans with galactosemia are explored from metabolite, enzyme, and p
51 he more severe cases of epimerase deficiency galactosemia arises from an amino acid substitution at p
52 results in the inherited metabolic disorder galactosemia, because many if not most patients studied
54 fast and simultaneous detection of the three galactosemia biomarkers, which implies the fast diagnosi
55 ses activation differed between diabetes and galactosemia, but cas-1 activity became elevated soon af
58 homozygous for the Duarte enzyme variant of galactosemia (D/D) have a characteristic isoform on isoe
61 urological outcomes in all three interacting galactosemia disease models, suggest that Futsch homolog
63 = +0.70 V in 3 mM NaOH, pH 11.5) conditions, galactosemia diseases were unequivocally identified, dif
68 on range and LOD are appropriate to diagnose galactosemia, i.e., concentrations >1.1mM in infants.
80 ism continues to progress after experimental galactosemia is terminated in rats: Particularly, antiox
81 e predominant cause of the metabolic disease galactosemia is the mutation of the corresponding Gln (G
82 hese findings indicate that (a) diabetes and galactosemia lead to accelerated death in situ of both r
83 selectivity and sensitivity of CuNWs, toward galactosemia metabolites detection in connection with MC
93 vealed new biomarkers for early detection of galactosemia, such as N-galactated amino acids, that are
94 ) results in the potentially lethal disorder galactosemia; the biochemical basis of pathophysiology i
95 ransferase, a dimeric enzyme associated with galactosemia, to investigate the impact of naturally occ
97 of antioxidants in diabetes and experimental galactosemia were not caused by the amelioration of hype
98 may be present only in newborn infants with galactosemia who exhibit massive urinary galactitol excr
99 onset (PRV), intervention after 6 months of galactosemia with either galactose withdrawal (GWD) or a