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1 ng a declining role of the peroxo complex in iron deposition.
2 acquired to derive estimates of hippocampal iron deposition.
3 y (chi) and T2*, measures used as indices of iron deposition.
4 lum; Cohen d >1) consistent with substantial iron deposition.
5 fective iron recycling and increased splenic iron deposition.
6 2G6 are inconsistently associated with brain iron deposition.
7 e on the follow-up scans, suggesting chronic iron deposition.
8 <0.001), and Perls stain confirmed localized iron deposition.
9 recruited macrophages at the site of chronic iron deposition.
10 her NAS, even among patients without hepatic iron deposition.
11 erapy and lead to severe consequences due to iron deposition.
12 xed HC/reticuloendothelial system cell (RES) iron deposition.
13 pcidin and ferritin and increased hepatocyte iron deposition.
14 odies and delineate histological features of iron deposition.
15 not sensitive enough to detect early cardiac iron deposition.
16 ng an environment favorable for extrahepatic iron deposition.
17 38 patients and in nine of 25 patients with iron deposition.
18 normal collagen accumulation, and remarkable iron deposition.
19 ers has been cardiac disease from myocardial iron deposition.
20 cession images within CMI likely result from iron depositions.
21 sistent with oxidative stress, HbG increased iron deposition, 4-hydroxynonenal and 8-hydroxydeoxyguan
22 A SF >1.5 x ULN is associated with hepatic iron deposition, a diagnosis of NASH, and worsened histo
23 e in vivo evidence of an association between iron deposition and both tau aggregation and neurodegene
24 an family with a pallido-pyramidal syndrome, iron deposition and cerebellar atrophy, we identified a
25 logic conditions suitable for future cardiac iron deposition and complementary information to liver a
26 ia major and sickle cell disease can lead to iron deposition and damage to the heart, liver, and endo
27 nts with NAFLD is associated with greater HC iron deposition and decreased serum hepcidin levels, and
30 s examining the relationship between hepatic iron deposition and histological severity in nonalcoholi
31 ular renal injury was accompanied by nonheme iron deposition and hypoxia-inducible factor-1alpha upre
32 to examine the relationship between hepatic iron deposition and liver histology in 849 patients enro
34 utation type is associated with Kupffer-cell iron deposition and normal transferrin saturation in viv
36 ggest that the CR-induced benefit of reduced iron deposition and preserved motor function may indicat
37 iated virus (AAV)-ADIPOQ ameliorated cardiac iron deposition and restored cardiac function in iron-ov
39 quantitatively evaluated for diffuse hepatic iron deposition and siderotic regenerative nodules to as
40 elationship between the grade and pattern of iron deposition and the clinical, laboratory, and histol
41 ication of susceptibility changes related to iron deposition and the potential to identify lesions ha
43 f both the HEPH and CP genes leads to kidney iron deposition and toxicity, MCFs could protect kidney
45 resonance imaging can be used as a marker of iron deposition and yields incremental information towar
47 sonance imaging scans, measures sensitive to iron deposition, and clinical diagnosis of neurological
48 ttack of the epididymis leading to fibrosis, iron deposition, and copper, zinc, and selenium imbalanc
49 worsened neurological recovery, exacerbated iron deposition, and decreased alternative activation of
51 HFE genotype, serum hepcidin level, hepatic iron deposition, and histology in nonalcoholic fatty liv
54 te that the pituitary gland is vulnerable to iron deposition, and it occurs regardless of other extra
56 more severe neuroinflammation, brain edema, iron deposition, and neurologic deficits associated with
57 ithout reperfusion hemorrhage led to chronic iron deposition, and the extent of this deposition was s
58 relationship between the presence of hepatic iron deposition, apoptosis, histologic features, and ser
61 mus with signs of extensive phagocytosis and iron deposition around plaque-like amyloid deposition.
63 th mechanisms of demyelination and increased iron deposition as key hallmarks of the aging hippocampu
64 Hfe (-/-) mice had considerable parenchymal iron deposition as well, in a pattern similar to that ob
65 progressive MS is consistent with increased iron deposition, as corroborated by other techniques.
66 ubular brush border loss, diminished tubular iron deposition, blocked the development of interstitial
67 halassemia major (TM), suggesting myocardial iron deposition, but it is unknown at what age this occu
68 hepatic MRI, specifically involving fat and iron deposition, by demonstrating how they were iterativ
70 pathology: decreased tissue death, decreased iron deposition, decrease in markers of oxidative damage
72 that the assessment of dissolved atmospheric iron deposition fluxes and their effect on the biogeoche
76 The SMA liver is dark red, small and has: iron deposition; immature sinusoids congested with blood
78 tion of dietary iron, and patterns of tissue iron deposition in agreement with clinical observations
80 nd neurobehavioral comorbidities, along with iron deposition in deep brain nuclei, mild normocytic to
82 mochromatosis (GH) is associated with excess iron deposition in hepatocytes, which results in progres
84 er transferrin saturation and more prominent iron deposition in liver parenchyma in vivo, retained ir
85 own that Hjv-/- mice have markedly increased iron deposition in liver, pancreas, and heart but decrea
87 knock-in mice show a significant increase in iron deposition in microglia following intrastriatal LPS
91 lzheimer disease and amyloid angiopathy; and iron deposition in neurodegenerative diseases or abnorma
96 rence of HCC may be associated causally with iron deposition in regenerative nodules in patients with
97 eposition was seen in 79 (40%) patients, and iron deposition in regenerative nodules was seen in 71 (
98 he liver and increased serum iron levels and iron deposition in several organs similar to classic her
99 s absorption of dietary iron and progressive iron deposition in several tissues, particularly liver.
100 s absorption of dietary iron and progressive iron deposition in several tissues, particularly liver.
102 duced TLR4-dependent hepcidin expression and iron deposition in splenic macrophages, findings mirrore
103 g, evidence of both significant increases in iron deposition in subcortical GM and myelin degeneratio
104 ion of significant, voxel-level increases in iron deposition in subcortical gray matter (GM) of patie
106 Susceptibility-weighted imaging confirmed iron deposition in the anteromedial putamen in patients.
107 eristic profile of layer-specific myelin and iron deposition in the BA 3b hand area, but revealed an
109 mutation in the iron-regulatory pathways and iron deposition in the brain resulting in neurodegenerat
111 athologically by neuronal loss, gliosis, and iron deposition in the globus pallidus, red nucleus, and
113 although the CR group had significantly less iron deposition in the GP, SN, red nucleus, and temporal
116 ides of Aire-deficient mice are required for iron deposition in the interstitium, which is brought on
117 scopic and microscopic findings of a massive iron deposition in the liver, heart, lungs, spleen, bone
120 he subfields and segments investigated here, iron deposition in the posterior hippocampal CA1 was the
121 susceptibility mapping identified increased iron deposition in the putamen, cingulate and medial fro
123 set of liver transplant patients with marked iron deposition in their cirrhotic liver who developed s
124 ferrioxamine does not prevent excess cardiac iron deposition in two-thirds of patients with thalassae
125 nd neurological severity was associated with iron deposition in widespread cortical regions in chroni
127 ts of the HFE knockout mice showed increased iron deposition, increased content of reactive oxygen sp
129 New evidence also suggests that hepatic iron deposition increases the risk of HCC in NASH-derive
130 the spatiotemporal relationships among PMO, iron deposition, infarct resorption, and left ventricula
131 s studied to further define the mechanism of iron deposition inside the protein and the role of LiDps
134 in both DRG neurons and cardiomyocytes, and iron deposition is detected in cardiomyocytes after 1 ye
138 ntional imaging corroborates the findings of iron deposition, magnetic susceptibility imaging has imp
139 riable analysis, only body mass index, liver iron deposition, massive ascites, and use of 3.0 T were
140 univariate analysis, body mass index, liver iron deposition, massive ascites, use of 3.0 T, presence
141 ormal excitability and heterogeneous cardiac iron deposition may cause the arrhythmogenesis of human
142 of aging, motor performance speed and brain iron deposition measured in vivo using magnetic resonanc
143 of aging, motor performance speed and brain iron deposition measured in vivo using MRI, to determine
145 n did not affect the mean change in lesional iron deposition on brain MRI over 2 years when compared
146 etrospectively determine the effect of liver iron deposition on the evaluation of liver fat by using
147 model, were used to determine the effect of iron deposition on the Spearman correlation coefficient
148 uctural changes occur such as demyelination, iron deposition, or subtle atrophy, which can be charact
149 ion, IgG extravasation, heme oxygenase (HO), iron deposition, oxidative end products (4-hydroxynonena
150 e was the percentage change in mean lesional iron deposition per year, measured by quantitative susce
151 such correlation was found in patients with iron deposition (r = 0.1 for reader 1, r = -0.31 for rea
152 ned liver fat percentage in patients without iron deposition (r = 0.7 for reader 1, r = 0.6 for reade
153 g that H2O2 is a quantitative product of the iron deposition reaction with O2 as an oxidant, even tho
155 l recessive disorder characterized by tissue iron deposition secondary to excessive dietary iron abso
157 ineralization of iron granules occurs in the iron deposition vesicles of trophocytes and requires the
158 t as the adiponectin-mediated attenuation of iron deposition was abolished in PPARalpha-knockout mice
167 31 and inducible nitric oxide synthase while iron deposition was shown with Prussian blue reaction.
168 ratio of GRE images in patients with hepatic iron deposition was significantly lower than that in pat
169 steady-state free precession as a marker of iron deposition was validated in a canine MI model (n=18
171 al transport of iron is impaired, leading to iron deposition which in the presence of reactive oxygen
172 of hepcidin signaling in ALD leads to liver iron deposition, which is a major contributing factor to
173 erve large glacial-interglacial contrasts in iron deposition, which we infer reflects strongly changi
176 emorrhagic myocardial infarction can lead to iron depositions within the infarct zones, which can be