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1 with the proposed role of Zrc1 as a vacuolar zinc transporter.
2 take process indicative of a plasma membrane zinc transporter.
3 that maps to SLC39A10, a gene that encodes a zinc transporter.
4 manganese transport capability to a related zinc transporter.
5 ostate cells upon downregulation of the ZIP1 zinc transporter.
6 he Drosophila ortholog of the mammalian ZIP7 zinc transporter.
7 eviously, SLC30A10 had been presumed to be a zinc transporter.
8 asis, including the functional properties of zinc transporters.
9 (Ke4, Slc39a7) belongs to the ZIP family of zinc transporters.
10 ose homologs in plant and yeast are putative zinc transporters.
11 h the identification and characterization of zinc transporters.
12 hypothesize that many of these proteins are zinc transporters.
13 e members of a growing family of prokaryotic zinc transporters.
14 lar requirements is regulated by an array of zinc transporters.
15 ration of Zn(2+) and increased expression of zinc transporters.
16 distribution to intracellular organelles by zinc transporters.
17 83-96-182 cluster suppressed five additional zinc transporters.
18 uced expression of another MTF1 target gene, zinc transporter 1 (ZnT-1), was also down-regulated by C
25 , and its target gene Zn-T1 that encodes the zinc transporter-1 was not significantly altered in HCCs
27 f altered mRNA levels for metallothionein 1, zinc transporter 2, and uroguanylin, all of which have b
30 d deposition is dependent on the activity of zinc transporter 3 (ZnT3), a neocortical synaptic vesicl
33 containing the adaptor protein (AP) -3 cargo zinc transporter 3 was generated from PC12 cells and was
36 esponse to interneuron loss was indicated by zinc transporter-3 (ZnT3)-- and beta-synuclein--LI, as w
37 A genome-wide mapping study using male F(2) zinc transporter 7-knockout mice (znt7-KO) and their wil
39 autoantibodies to islet antigen-2 (IA-2) and zinc transporter 8 (ZnT8) in patients with established t
42 diatric patients and 2) to determine whether zinc transporter 8 (ZnT8), a recently described target o
43 ion allele p.Arg138* in SLC30A8 encoding the zinc transporter 8 (ZnT8), which is enriched in Western
44 -specific CD4(+) T cells in three adults and zinc transporter 8 (ZnT8)-specific CD4(+) T cells in fiv
46 A), GAD (GADA), islet antigen-2 (IA-2A), and zinc transporter 8 (ZnT8A) were measured by radioimmunoa
47 HLA-DR3-negative, HLA-DR4-positive, or anti-zinc transporter 8 antibody-negative, fewer participants
49 a-associated protein-2 autoantibody (IA-2A), zinc transporter 8 autoantibody (ZnT8A), and GAD autoant
50 autoantibodies (GADAs), IA2 antigen (IA-2A), zinc transporter 8, thyroid peroxidase, gastric parietal
54 Abs) against insulin, GAD, IA-2 (IA-2A), and zinc transporter-8 (ZnT8A) for prediction of rapid progr
55 (insulin, glutamate decarboxylase, IA2, and zinc transporter-8), but the molecular identity of a fif
58 verexpression of the miR-183 cluster reduced zinc transporter and intracellular zinc levels in benign
59 that modulate HDAC activity: ZRT1 encodes a zinc transporter and is repressed by RPD3 (Rpd3p is zinc
60 ence that FET4 is a physiologically relevant zinc transporter and this provides a rationale for its r
61 luated the response of metallothionein (MT), zinc transporter, and cytokine genes to a modest (15 mg
67 show that the plasma membrane ZIP1 and ZIP3 zinc transporters are expressed on distinct neuronal pop
69 sculature of krit1(-/-) zebrafish, and SLC39 zinc transporters are mis-expressed in Cerebral Cavernou
71 The objective was to evaluate erythrocyte zinc transporters as candidate molecules with the potent
74 ers play the major role while the Msc2/Zrg17 zinc transporter complex active in the endoplasmic retic
77 nding sites in the BMC of human ZIP4 (hZIP4) zinc transporter exert different functions: one conserve
84 human and murine models to characterize the zinc transporter family, Zip, during T cell activation a
86 ructure of ZnuA, the periplasmic domain of a zinc transporter from Synechocystis 6803, has been deter
87 s used to measure transcript abundance for a zinc transporter from the ZIP family of transporters in
89 plasma zinc and cytokine concentrations and zinc transporter gene expression in peripheral blood mon
90 P), plasma and cellular zinc concentrations, zinc transporter gene expression, and other metabolic in
92 factor to facilitate expression of the SLC39 zinc transporter gene zipt-2.3, which functions to seque
94 ression of either ZAP1 or the Zap1-dependent zinc transporter gene ZRT2 restores pathogenicity to a s
97 WAKL4 was required for the up-regulation of zinc transporter genes during zinc deficiency, and the W
101 The Zrt/IRT-like protein (ZIP) family of zinc transporters have recently been identified as the m
102 ed on the crystal structure of YiiP, a close zinc transporter homologue from Escherichia coli, reveal
104 cribe the characterization of hZip2, a human zinc transporter identified by its similarity to zinc tr
106 The observation that hZIP1 is the major zinc transporter in K562 cells, coupled with its express
107 ected insight into the fundamental role of a zinc transporter in mammalian pulmonary vascular homeost
108 p14 (Slc39a14) was the most highly expressed zinc transporter in skeletal muscle of mice in response
109 nvestigated cdf-2, which encodes a predicted zinc transporter in the cation diffusion facilitator fam
111 er risk; however, the exact role of zinc and zinc transporters in cancer progression is unknown.
115 es with the increased expression of specific zinc transporters, including two that are essential in o
117 t1p and Zrt2p) and vacuolar membrane (Zrt3p) zinc transporters indicated that enzyme expression was s
120 he identification of a variety of copper and zinc transporters is consistent with the importance of c
121 ), a member of a growing family of mammalian zinc transporters, is expressed in regions of the brain
123 -1 subfamily of ZIP (Zrt-, Irt-like Protein) zinc transporters (LZTs) with the cellular prion protein
126 olymorphism in the solute carrier family 30 (zinc transporter) member eight gene, is associated with
127 is up-regulated through IL-6, and that this zinc transporter most likely plays a major role in the m
129 encodes a protein closely related to ZIP4, a zinc transporter mutated in the human genetic disorder a
130 luate the current paradigm that SLC30 family zinc transporters operate exclusively to decrease cytoso
131 We found that the Zrc1 and Cot1 vacuolar zinc transporters play the major role while the Msc2/Zrg
132 c acquisition in the ZAP1 regulon, including zinc transporters (Pra1 and Zrt1) and other zinc-regulat
133 These results demonstrate that the vacuolar zinc transporters, previously implicated in metal detoxi
134 rom the actions of the presynaptic vesicular zinc transporter protein zinc transporter 3 (ZnT3).
137 transporter identified by its similarity to zinc transporters recently characterized in fungi and pl
139 xpression for cytokines, DNA repair enzymes, zinc transporters, signaling molecules, etc., suggest th
143 for example, a nonsynonymous variant in the zinc transporter SLC39A8 influences seven of the traits,
144 tudy, we identified deficiency of a specific zinc transporter, SLC39A8 (ZIP8), in AEC2s from both IPF
145 alanine or threonine at position 391 in the zinc transporter solute carrier family 39, member 8 prot
146 accumulate zinc, and its homology with known zinc transporters, suggest that ZnT-3 is responsible for
148 ctively, our studies indicate that these two zinc transporter systems play vital roles in maintaining
149 study demonstrates that ZIP7 is a functional zinc transporter that acts by transporting zinc from the
150 er ZIP14 (SLC39A14) is viewed primarily as a zinc transporter that is inducible via proinflammatory s
151 e Znt7 gene encodes a ubiquitously expressed zinc transporter that is involved in transporting cytopl
152 roliferation by activating ZIP9 (SLC39A9), a zinc transporter that is widely expressed in human melan
153 s provide compelling evidence that ZIP4 is a zinc transporter that plays an important role in zinc ho
154 ates rapid transitions in the composition of zinc transporters to mediate homeostasis, likely minimiz
155 We use zinc chelators and mice deficient in zinc transporters to show that synaptically released zin
156 dy, insulinoma-associated protein 2 antigen, zinc transporter type 8 antigen) and donor-specific allo
160 l ion transporters, such as copper, iron and zinc transporters were upregulated and transferase-encod
161 that the ycdH operon encodes a high-affinity zinc transporter whereas YciC may function as part of a
162 between deleterious mutations in the SLC30A8 zinc transporter, which transports zinc into the secreto
163 A10, based on the structure of the bacterial zinc transporter YiiP, and performed functional studies.
164 ue-profiling microarray data showed that the zinc transporter ZIP12 (slc39a12) is highly expressed in
167 ng glucose uptake, cell surface abundance of zinc transporter ZIP14 and mediated zinc transport incre
171 bsorbed in the small intestine mainly by the zinc transporter ZIP4, a representative member of the Zr
176 irst loss-of-function mutation (H54R) in the zinc transporter ZnT-2 (SLC30A2) in mothers with infants
182 more, upon heterodimerization with ZnT1, the zinc transporters ZnT2 and ZnT4 surprisingly localized a
183 mice lacking the synapse-specific vesicular zinc transporter ZnT3 (ZnT3KO mice) have reduced activat
184 of animals deficient in the synaptic vesicle zinc transporter ZnT3, indicating that vesicular zinc re
187 l regulatory element (ZTRE), in the SLC30A5 (zinc transporter ZnT5) promoter and showed that substitu
193 identified variants in SLC30A8, encoding the zinc transporter ZnT8, associated with diabetes risk.
194 rs13266634 in the SLC30A8 gene encoding the zinc transporter ZnT8, is associated with an increased r
196 variants in SLC30A8, which encodes an islet zinc transporter (ZnT8) and harbors a common variant (p.
200 the structure of the periplasmic domain of a zinc transporter, ZnuA, from Synechocystis 6803 and foun
203 n to bind to zinc, and in the absence of the zinc transporter ZnuABC, Ybt improves Y. pestis growth i
204 ism, and many Enterobacteriaceae express the zinc transporters ZnuABC and ZupT to acquire this metal
206 identified a mutation (N44I) in the vacuolar zinc transporter ZRC1 that changed the substrate specifi
207 n have mutations in either the high-affinity zinc transporter ZRT1 or its zinc-dependent transcriptio
208 lta mutant (defective in the plasma membrane zinc transporters Zrt1p and Zrt2p) grown in the presence