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1 HFE 187C>G and, possibly, mitochondrial haplogroup J gav
2 HFE 187C/G heterozygotes (n = 23) had less limb fat loss
3 HFE and Fe-Tf can bind simultaneously to TfR to form a t
4 HFE and Nramp2 (DMT1) genes are reciprocally regulated.
5 HFE and transferrin receptor 2 (TFR2) are each necessary
6 HFE and transferrin receptor 2 (TFR2) are membrane prote
7 HFE C282Y homozygosity had the most marked independent a
8 HFE expression did not affect the mRNA levels of most of
9 HFE gene testing can be used to diagnose hemochromatosis
10 HFE genetic variations did not correlate with outcomes,
11 HFE interacts with the BMP6-SMAD signaling pathway to re
12 HFE is expressed in retinal pigment epithelium (RPE), an
13 HFE is not involved in regulation of BMP6 by iron, but d
14 HFE is the principal regulator of iron homeostasis, and
15 HFE mutations are associated with impaired hepatic bone
16 HFE mutations have traditionally been associated with th
17 HFE(-/-) livers were overloaded with ferritin but had lo
18 HFE, a major regulator of iron (Fe) homeostasis, has bee
19 HFE-associated hemochromatosis (HH) defined as homozygos
20 HFE-associated hemochromatosis is characterized by abnor
21 of BMP/Smad-related genes was examined in 20 HFE-HH males with significant iron overload, and compare
22 HAMP and HJV in 96 patients with PCT and 88 HFE C282Y homozygotes with marked hepatic iron overload.
30 study was to examine the relationships among HFE genotype, serum hepcidin level, hepatic iron deposit
31 hemochromatosis, which is often caused by an HFE mutation, may have retinal iron overload predisposin
33 American ethnicity (OR: 1.8; P = 0.001) and HFE C282Y heterozygosity (OR: 1.9; P = 0.003) were assoc
34 rican ethnicity (OR </=0.9; P </= 0.049) and HFE C282Y (OR </=0.84; P </= 0.060) were independently a
35 We used the AGS and MKN1 gastric cancer and HFE-145 immortalized non-neoplastic gastric mucosa cell
36 s) in the COMT, NTRK1, BDNF, ErbB4, CLU, and HFE genes, and investigated their individual and aggrega
37 candidate SNPs (COMT, NTRK1, ErbB4, CLU, and HFE) explained approximately 6% of the variance in the a
39 ered by LPS, indicating that ferroportin and HFE protein down-regulation alone are insufficient to ma
42 m was to assess the relationship of iron and HFE genetic variations to progression and outcomes in th
44 Ectopic CagA expression in AGS, MKN1 and HFE-145 cells showed a significant increase in HER-2 gen
46 imethyl ether, ammonia, R-152a, propane, and HFE-152a all performed effectively in a 1 ton window uni
47 s a cross-sectional study of iron status and HFE mutations in primary care patients at 5 centers in t
49 s associated with transferrin levels, TF and HFE, and found that a commonly carried polymorphism (H63
50 on transport protein transferrin (Fe-Tf) and HFE, the protein mutated in patients with the iron overl
56 ion by known iron metabolic proteins such as HFE, hemojuvelin, and transferrin receptor 2 are expandi
57 could result from direct competition between HFE and Fe-Tf for their overlapping binding sites on eac
59 ls were fit to evaluate interactions between HFE genotype and particulate matter < or = 2.5 microm in
60 mally or highly fortified test meals between HFE C282Y-heterozygous and wild-type control subjects.
61 tudy was to examine the relationship between HFE mutations and histological severity in a large North
62 s studies examining the relationship between HFE mutations and severity of nonalcoholic steatohepatit
63 Compound heterozygotes (those who had both HFE C282Y and H63D mutations) absorbed more nonheme (but
64 R2 lower hepcidin levels, implying that both HFE and TfR2 are necessary for regulation of hepcidin ex
65 eously to TfR to form a ternary complex, but HFE binding to TfR lowers the apparent affinity of the F
66 pathway to regulate hepcidin expression, but HFE is not necessary for hepcidin induction by BMP6.
70 spite increased iron level in cells carrying HFE H63D, it appeared that ER stress was not responsive
71 ssible, and testing for the common causative HFE mutations is now widely available in clinical labora
74 carrying the mouse equivalent of the common HFE C282Y human disease-causing mutation (murine C294Y)
80 hromatosis include defects in genes encoding HFE, transferrin receptor 2, ferroportin, hepcidin, and
81 the risk of recurring heart failure events (HFEs) was a pre-specified substudy of MADIT-CRT (Multice
82 fically during brief, high-frequency events (HFEs) in the local field potential that are similar to r
84 ed ER stress, the number of cells expressing HFE H63D in early apoptosis was increased moderately.
85 in another cell line, HeLa cells expressing HFE under the tetracycline-repressible promoter were tra
86 TfR2, HJV, BMP6, and, to a lesser extent, HFE are required for the hepcidin response to acute iron
87 significant reduction in the risk of a first HFE (hazard ratio [HR]: 0.54, 95% confidence interval [C
88 iduals homozygous for the variant coding for HFE p.Cys282Tyr and 397 compound heterozygotes with vari
89 vel of the majority of adult homozygotes for HFE mutations does not rise over long periods of time, e
93 tinction suggests a multifunctional role for HFE that is dependent upon expression levels of proteins
94 This review considered genetic screening for HFE-related hereditary hemochromatosis in C282Y homozygo
99 1, ATP2B1, SH2B3/ATXN2, CSK, CYP17A1, FURIN, HFE, LSP1, MTHFR, SOX6) at array-wide significance (P <
101 ndrial haplogroups and hemochromatosis gene (HFE) polymorphisms have been associated with ART-induced
103 in the hereditary hemochromatosis (hh) gene (HFE) explain the siderosis in approximately 20% patients
104 ci, some including known iron-related genes (HFE, SLC40A1, TF, TFR2, TFRC, TMPRSS6) and others novel
105 de significance, and 6 (FIGN, ULK4, GUCY1A3, HFE, TBX3-TBX5, and TBX3) at a suggestive level of P = 1
106 he prevalence of heterozygous C282Y and H63D HFE mutations was 14.3% and 21.4%, respectively, in the
113 ed in two genetic models of hemochromatosis (HFE-null mouse and HJV-null mouse) and in two nongenetic
114 nteracts with its receptor, hemochromatosis (HFE) protein, to modulate iron responsive pathways in ca
115 ts at the transferrin (TF), hemochromatosis (HFE), fatty acid desaturase 2 (FADS2)/myelin regulatory
116 cipants that tested for the hemochromatosis (HFE) C282Y genotype and iron status.We sought to determi
117 The protein product of the hemochromatosis (HFE) gene modulates uptake of iron and divalent cations
118 pecific polymorphism in the hemochromatosis (HFE) gene, H63D, is over-represented in neurodegenerativ
119 m (H63D at rs1799945) in the hemochromatotic HFE gene was associated with white matter fiber integrit
120 osis-associated proteins: HJV (hemojuvelin), HFE (hemochromatosis protein), and TfR2 (transferrin rec
121 emochromatosis-related proteins hemojuvelin, HFE and transferrin receptor 2, also regulates hepcidin
122 he presence and absence of hexafluoroethane (HFE), which structurally resembles the potent anesthetic
123 ncentration (HIC), hepatic iron index (HII), HFE mutation status, and survival after liver transplant
125 s the other BMPs in association with the HJV/HFE/TfR2 complex; they provide an explanation for the co
129 In this work, we report a hydrofluoroether (HFE) solvent-based electrolyte for electrochemical proce
130 ent emissions for several hydrofluoroethers (HFEs) and other potential replacements were compared to
134 ession of BMP6 was appropriately elevated in HFE-HH compared to controls (P = 0.02), likely related t
136 ent studies suggest that the risk for HCC in HFE -associated HH may be much lower and occurs predomin
139 ho were homozygous for the C282Y mutation in HFE and had undergone a liver biopsy with quantification
145 In hereditary hemochromatosis, mutations in HFE lead to iron overload through abnormally low levels
150 es have confirmed that disease penetrance in HFE-related hereditary hemochromatosis is lower than pre
151 is associated with a high-iron phenotype in HFE C282Y homozygotes and may participate in hepcidin re
152 itors of BMP signaling, were up-regulated in HFE-HH compared to controls (P = 0.001 and P = 0.018, re
153 ith variability of iron overload severity in HFE-associated hemochromatosis, we performed exome seque
154 ntial for normal iron homeostasis, including HFE, transferrin receptor 2 (TfR2), and hemojuvelin, fun
155 lp hepcidin to monitor serum iron, including HFE and, in rarer instances, transferrin-receptor 2 and
156 The iron accumulation in HIV-1-infected HFE-expressing macrophages was paralleled by an increase
158 ellular iron content [anti-import: TFRC(Low)/HFE(High); or pro-export: SLC40A1 (ferroportin)(High)/HA
160 rformed exome sequencing of DNA from 35 male HFE C282Y homozygotes with either markedly increased iro
161 nt iron overload, and compared to seven male HFE wild-type controls using quantitative real-time reve
163 that express either wild-type (WT) or mutant HFE to determine the cellular consequences of the mutant
165 sly associated with these traits (HBS1L-MYB, HFE, TMPRSS6, TFR2, SPTA1) as well as new associations (
166 opathological papers on several forms of non-HFE hemochromatosis were published and Wilson's disease
170 Our results indicate parallel adaptation of HFE gene in Europeans and Asians with different genetic
174 d mice homozygous for targeted disruption of HFE, beta(2)-microglobulin, and for a truncating mutatio
175 esized that the small, cytoplasmic domain of HFE might be necessary for HFE-mediated induction of hep
176 dues 104 and 250 and to the alpha3 domain of HFE, both of which differ from the TfR1/HFE interacting
180 uggesting that some or all of the effects of HFE on iron homeostasis result from competition with Fe-
181 In the present study, the expression of HFE and the HFE-interacting proteins TfR1, TfR2, and bet
189 ndations on returning incidental findings of HFE variants in individuals undergoing genome-scale sequ
190 both TfR1 and TfR2 binding, a mutant form of HFE (W81AHFE) that has an approximately 5,000-fold lower
192 of this work was to assess the influence of HFE mutations and serum and hepatic measures of iron sta
194 abrogated by disease-associated mutations of HFE and TFR2, and that TFR2 competes with TFR1 for bindi
198 involved as a modulator of the penetrance of HFE hemochromatosis since fat mass is associated with ov
199 RSS6 might modify the clinical penetrance of HFE-associated hereditary hemochromatosis, raising the p
201 ncommon disorder, although the prevalence of HFE (High Iron) 282 Cys --> Tyr (C282Y) homozygosity is
202 significant differences in the prevalence of HFE gene mutations among subjects with fibrosis (35.5%)
203 PCT was significantly reduced, regardless of HFE genotype, when compared with patients with hh but wi
205 atments resulted in rapid down-regulation of HFE protein [encoded by the hemochromatosis gene (Hfe)]
206 In this study, we investigated the role of HFE in the regulation of both transferrin-bound iron (TB
209 rivation of hepatic stem cells, the roles of HFE protein and other hepatic and intestinal transport p
214 imilar magnitude of reduction in the risk of HFEs subsequent to a first post-enrollment event (HR: 0.
215 chemically orthogonal electrolytes based on HFE solvents do not dissolve organic perovskite films an
216 rmed the signatures of positive selection on HFE in Asian populations and identified a candidate adap
221 ecessive disorder associated with pathogenic HFE variants, most commonly those resulting in p.Cys282T
222 ates the macrophage-expressed MHC 1b protein HFE, which regulates iron homeostasis and is mutated in
226 Defects in human hemochromatosis protein (HFE) cause iron overload due to reduced hepatic hepcidin
228 s in the hereditary hemochromatosis protein (HFE), transferrin-receptor 2 (TfR2), hemojuvelin, hepcid
229 nctional hereditary hemochromatosis protein, HFE, causes iron overload predominantly in hepatocytes,
230 s of the hereditary hemochromatosis proteins HFE and transferrin receptor 2 may intersect with the BM
231 ation therapy for the reduction in recurring HFEs was maintained after the occurrence of a first post
235 g for C282Y (rs1800562) and H63D (rs1799945) HFE mutations was performed in 786 adult subjects in the
239 D for the prevention of first and subsequent HFEs was pronounced among patients with left bundle bran
240 only risk for nonfatal first- and subsequent-HFEs was assessed by Cox proportional hazards and Anders
254 hybridization in intact retina revealed that HFE mRNA is expressed almost exclusively in RPE Immunofl
255 d immunogold electron microscopy showed that HFE protein was specifically associated with the basolat
258 present study, the expression of HFE and the HFE-interacting proteins TfR1, TfR2, and beta2M were ana
261 pathological forms based on mutations in the HFE gene and other iron-homeostatic genes such as transf
262 onstrate that the different mutations in the HFE gene have unique effects on the cells and provide in
264 verload disorder results from defects in the HFE gene product, a major histocompatibility complex cla
266 ar that the two most common mutations in the HFE gene, H63D and C282Y, may be genetic modifiers for r
267 ide polymorphism (SNP) discrimination in the HFE gene, responsible for hereditary hemochromatosis.
270 n, has been associated with mutations in the HFE, transferrin receptor-2 (TfR2), and hemojuvelin (HJV
272 the variable penetrance of mutations of the HFE gene and the absence of any definitive trials addres
276 H-SY5Y, we reported that the presence of the HFE H63D protein activated the unfolded protein response
281 ansferrin concentrations transmitted through HFE, TfR2, and HJV augment BMP receptor sensitivity to B
286 by similar results using both the wild type HFE and the W81A mutant that binds TF receptor 1 with gr
287 ted ex vivo macrophages expressing wild-type HFE, but this effect was lost with Nef-deleted HIV-1 or
289 rly diagnosis of hepatic iron overload using HFE gene testing and iron depletion prior to liver trans
290 a and human embryonic kidney 293 cells where HFE has been shown to inhibit TF-mediated iron uptake re
293 ar iron overload, but the mechanism by which HFE H63D might increase the risk of neuron degeneration
294 and sustained virologic responses (20% with HFE mutation vs 14% sustained virologic response without
295 t, unlike TfR1/HFE, Tf does not compete with HFE for binding to TfR2 and that binding is independent
298 mochromatosis mouse models and patients with HFE mutations, indicating that HFE regulates hepcidin.
300 y component between persons with and without HFE variants was significant (P for interaction=0.02).
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