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1 mains of the alpha and beta subunits of this P type ATPase.
2 ence or dysfunction of a copper-transporting P-type ATPase.
3 as functional properties characteristic of a P-type ATPase.
4 s from all known ATPases and appears to be a P-type ATPase.
5 ons in a gene encoding a copper-transporting P-type ATPase.
6 (ATP7B) appears to be a copper-transporting P-type ATPase.
7 gene encoding a putative copper-transporting P-type ATPase.
8 ly higher than reported so far for any other P-type ATPase.
9 s cerevisiae relies on extrusion via Pca1, a P-type ATPase.
10 he ATP7A gene encoding a copper-transporting P-type Atpase.
11 ncludes several residues conserved among all P-type ATPases.
12 rstanding of ion entry in Cu(+)-transporting P-type ATPases.
13 ins include the Drs2p/ATPase II subfamily of P-type ATPases.
14 olved with a large preexisting repertoire of P-type ATPases.
15 ance, much larger than those seen with other P-type ATPases.
16 al orthologous relationships for all 43 rice P-type ATPases.
17 e common angiosperm ancestor had at least 23 P-type ATPases.
18 metallochaperones and to copper-transporting P-type ATPases.
19 functional characteristics similar to other P-type ATPases.
20 ly applies to Na+,K+-ATPase as well as other P-type ATPases.
21 nto the function not only of PSP but also of P-type ATPases.
22 of general importance in regulating diverse P-type ATPases.
23 occlusion transitions remain obscure for all P-type ATPases.
24 bunit (KdpB) belonging to the superfamily of P-type ATPases.
25 M6 in defining the cation binding pocket of P-type ATPases.
26 r of the superfamily of cation-translocating P-type ATPases.
27 t was sensitive to vanadate, an inhibitor of P-type ATPases.
28 t genes encoding similar copper-transporting P-type ATPases.
29 sus sequence for the phosphorylation site of P-type ATPases.
30 ogous with other bacterial, animal and plant P-type ATPases.
31 nisms through transient hydrophobic pores in P-type ATPases.
32 and E(2)P forms similar to the archetypical P-type ATPases.
33 of metal transport and specificity of metal P-type ATPases.
34 N domains opening the cytoplasmic region of P-type ATPases.
35 uncharacterized prokaryotic transition-metal P-type ATPases.
36 ential function of the DRS2/DNF subfamily of P-type ATPases.
37 r to the secretory pathway by docking with 2 P-type ATPases.
38 Pro393 is invariant in all P-type ATPases.
39 G finger binding protein (RFBP) is a Type IV P-type ATPase, a putative phospholipid pump, with conser
41 argeting these important pathways (including P-type ATPases, ABC transporters and K+ channels) and hi
42 ramembrane lipid transport reactions utilize P-type ATPases, ABC transporters, scramblases, and Niema
44 mediate in phosphotransfer reactions, and in P-type ATPases, also members of the HAD family, it serve
45 TPases constitute the least studied group of P-type ATPases, an essential family of ion pumps in all
48 n's disease (WD) is caused by mutations in a P-type ATPase and is associated with copper deposition i
50 Mg(2+)-ATPase, is a member of a subfamily of P-type ATPase and is presumably responsible for aminopho
51 rom Saccharomyces cerevisiae is an essential P-type ATPase and potential aminophospholipid translocas
52 WA3/DRS2, which encodes an integral membrane P-type ATPase and potential aminophospholipid translocas
53 describes a unique transport mechanism for a P-type ATPase and provides insight into how integral mem
54 contained the conserved motifs found in all P-type ATPases and also motifs that are characteristic o
55 contains all 10 of the conserved regions in P-type ATPases and exhibits 55% amino-acid identity to t
57 tdEtn) through the action of plasma membrane P-type ATPases and rapidly acylate it to form PtdEtn.
58 ll transmembrane proteins that interact with P-type ATPases and regulate ion transport in cardiac cel
59 ignificant sequence conservation, among PSP, P-type ATPases and response regulators suggests that the
60 stance nodulation division efflux systems, a P-type ATPase, and a two-component regulator were partic
61 trafficking of Atp7a, a copper-transporting P-type ATPase, and peptidylglycine alpha-amidating monoo
62 f the well-characterized cation-transporting P-type ATPases, and it is unknown whether the flippases
64 he activity of the prototypic proton-pumping P-type ATPase Arabidopsis thaliana isoform 2 (AHA2).
68 ons in ATP13A2 (PARK9), encoding a lysosomal P-type ATPase, are associated with both Kufor-Rakeb synd
70 member of a recently described subfamily of P-type ATPases; ATP-dependent aminophospholipid transpor
71 n mammalian cells is the copper-transporting P-type ATPase ATP7A, which mediates copper transport fro
74 on to various domains corresponding to other P-type ATPases, ATP7B includes an N terminus extension (
75 nesium transporter A (MgtA) is a specialized P-type ATPase, believed to import Mg(2+) into the cytopl
76 , the activity of alpha4 is inhibited by the P-type ATPase blocker vanadate but not by compounds that
77 e highly conserved regions characteristic of P-type ATPases but does possess significant homology to
78 transcellular calcium transport, mediated by P-type ATPases, but the cellular basis for this phenomen
79 rest in the post-translational regulation of P-type ATPases by protein kinase-mediated phosphorylatio
80 2+ transport systems of enteric bacteria are P-type ATPases by sequence homology, mediating Mg2+ infl
81 Menkes proteins are distinguished from other P-type ATPases by the presence of six soluble N-terminal
82 a monomer, as has been established for other P-type ATPases, Ca(2+)-ATPase and Na(+),K(+)-ATPase.
83 aureus plasmid pI258 cadCA operon encodes a P-type ATPase, CadA, that confers resistance to Cd(II)/P
84 aureus plasmid pI258 cadCA operon encodes a P-type ATPase, CadA, that confers resistance to the heav
85 the yeast Saccharomyces cerevisiae encodes a P-type ATPase (Ccc2p) required for the export of cytosol
87 cognate metal-binding domains (MBDs) of the P-type ATPases CtaA and PacS, which are proposed to dona
88 accharomyces cerevisiae genome contains five P-type ATPases divergent from both of the well-known sub
89 ng and directed mutagenesis with the type IV P-type ATPases Dnf1 and Drs2 from budding yeast, we iden
90 tdEtn requires the action of plasma membrane P-type ATPases Dnf1p and Dnf2p and their requisite beta-
91 identify two members of the P4 subfamily of P-type ATPases, Dnf1p and Dnf2p, that are necessary for
92 Recently, two members of the P4 family of P-type ATPases, Dnf1p and Dnf2p, were shown to be necess
94 mbers of the DRS2/DNF essential subfamily of P-type ATPases does not affect NBD-PS flip, we conclude
95 ) in cells by regulating the expression of a P-type ATPase efflux pump (Bxa1) and an intracellular me
99 Here we report the characterization of a P-type ATPase-encoding gene, MgAPT2, in the economically
100 ositions mimic the first mechanistic step of P-type ATPase enzymes by forming a phospho-enzyme interm
107 culum Ca(2+)-ATPase (SERCA), a member of the P-type ATPases family, transports two calcium ions per h
111 tion by one of the most popular reagents for P-type ATPases (fluorescein 5'-isothiocyanate) has been
112 sion of cnb1Delta salt sensitivity was ENA1 (P-type ATPase gene)-dependent, due in part to transcript
117 t been positively identified, a subfamily of P-type ATPases has been proposed to function as transpor
119 ene product, a putative copper-translocating P-type ATPase, has been shown to be involved in copper r
120 ive members in all five major subfamilies of P-type ATPases: heavy-metal ATPases (P1B), Ca2+-ATPases
122 hrough mutations in PMR1, encoding a calcium P-type ATPase homologue that also functions in manganese
123 s to the large family of cation-transporting P-type ATPases, however, the detailed characterization o
124 rst biochemical characterization of a type V P-type ATPase, implicates Cod1p in ER function and ion h
126 ese observations indicate a novel role for a P-type ATPase in late Golgi function and suggest a possi
127 they do express ATP7A, a copper transporting P-type ATPase in the trans-Golgi network that is require
128 and ATP synthesis, which the plasma membrane P-type ATPase in turn uses to create more pmf for phloem
132 opper-transporting ATPases differ from other P-type ATPases in their topology and the sequence of the
135 otein with similarity to copper-transporting P-type ATPases, including the human Menkes/Wilson protei
139 (1B)-type ATPases are a ubiquitous family of P-type ATPases involved in the transport of transition m
142 The occurrence of a Hr-like domain in a P-type ATPase is unprecedented and suggests new regulato
149 son proteins, which are copper-translocating P-type ATPases located in the trans-Golgi apparatus and
151 nd characterization of the role of ATP11B, a P-type ATPase membrane protein, in cisplatin resistance.
152 six metal-binding domains (MBDs) of the two P-type ATPases (Menkes and Wilson disease proteins), the
154 unds had any effect on transport by the MgtB P-type ATPase Mg(2+) transporter or the PhoQ Mg(2+) rece
156 three transporters mediate Mg2+ uptake: the P-type ATPases MgtA and MgtB, whose expression is transc
157 isease (ATP7A) encodes a copper transporting P-type ATPase (MNK or ATP7A) with six copper-binding dom
159 The kinetics of conformational changes of P-type ATPases necessary for the occlusion or deocclusio
160 a previously uncharacterized gene, PAA2 (for P-type ATPase of Arabidopsis), which is required for eff
163 otosynthetic eukaryotes, Zn(2+)-transporting P-type ATPases of class IB (ZntA) are crucial for cellul
164 ve mutations in the RAN1 copper-transporting P-type ATPase, once again linking copper ions to the eth
167 not affected by inhibitors of the F-, V- or P-type ATPases, or inhibitors of the Type I or Type II b
176 organisms typically express multiple type IV P-type ATPases (P4-ATPases), which establish plasma memb
177 translocases in the Drs2/Dnf family (type IV P-type ATPases [P4-ATPases]) are downstream targets of K
180 ATPase activity, the activity of a different P-type ATPase, plasma membrane Ca-ATPase (PMCA), was not
183 t from that of the well-characterized Ca(2+) P-type ATPase Pmr1p which is neither required for Hmg2p
184 asing attention, not least because PfATP4, a P-type ATPase postulated to be involved in Na(+) regulat
185 2+ sensitivity of pmc1 mutants, which lack a P-type ATPase presumed to transport Ca2+ into the vacuol
190 a conformational study to describe the PMCA P-type ATPase reaction cycle, adding important features
193 ed to be partially dependent on ENA1/PMR2, a P-type ATPase required for Li+ and Na+ efflux in yeast,
196 ma membrane H(+)-ATPases form a subfamily of P-type ATPases responsible for pumping protons out of ce
197 Mutations in ATP8B1, a broadly expressed P-type ATPase, result, through unknown mechanisms, in di
198 also acquires mutations in a gene encoding a P-type ATPase (ScPMA1) after exposure to spiroindolones
199 cofilin-1 (CFL-1) is required for actin and P-type ATPase secretory pathway calcium ATPase (SPCA)-de
202 at the conserved aspartate (Asp(416)) in the P-type ATPase signature sequence and exists in E(1)P and
203 apparently two parallel efflux pumps: one, a P-type ATPase (SilP); the other, a membrane potential-de
204 tically and mechanistically similar to other P-type ATPases, suggesting its use as a model system for
205 binding sequence and is modified relative to P-type ATPases, suggesting that the F. odoratum Ca2+-ATP
206 lcium activation and the structures of other P-type ATPases suggests the presence of conformational h
207 of E. coli catalyzed by either of these two P-type ATPase superfamily members is inhibited by Pb(II)
208 P-type ATPases (HMAs) are a subgroup of the P-type ATPase superfamily that may contribute to metal h
212 ulum (ER) Ca(2+) ATPase 2 (SERCA2) pump is a P-type ATPase tasked with the maintenance of ER Ca(2+) s
213 ATPase of Escherichia coli is a four-subunit P-type ATPase that accumulates K(+) with high affinity a
218 from the metallothionein gene family, and a P-type ATPase that is a member of the P1B subfamily of p
219 rotein (MNK; ATP7A) is a copper-transporting P-type ATPase that is defective in the copper deficiency
220 odes the protein ATP13A2, a lysosomal type 5 P-type ATPase that is linked to autosomal recessive fami
222 studies indicate that FIC1 is a canalicular P-type ATPase that participates in maintaining the distr
226 Menkes syndrome and Wilson's disease, encode P-type ATPases that are more similar to bacterial CadA t
227 Menkes syndrome and Wilson's disease, encode P-type ATPases that are more similar to the bacterial Ca
228 revisiae genome contains five genes encoding P-type ATPases that are potential aminophospholipid tran
229 Ca(2+)-(SERCA-) ATPase belong to a family of P-type ATPases that undergo a cycle of conformational ch
230 um Ca2+-ATPase, a structurally characterized P-type ATPase, the residue corresponding to Asp714 is a
231 ssociated gene encodes a copper-transporting P-type ATPase, the WND protein, the subcellular location
234 l an interdependent relationship between two P-type ATPases to maintain homeostasis of the organelles
235 A domain movements similar to those of other P-type ATPases to place the conserved TGES motif in the
237 ity of a unique cardiolipin transporter, the P-type ATPase transmembrane lipid pump Atp8b1, a mutant
238 lved in substrate selection suggests a novel P-type ATPase transport pathway at the protein/lipid int
244 at a rabbit gene in the type IV subfamily of P-type ATPases was missing a transmembrane helix (transm
245 o distantly related members of the family of P-type ATPases, which are thought to use similar mechani
246 the 3' UTR of ATP11C, a novel member of the P-type ATPases, which consists of 31 exons with alternat
248 (H(+)-ATPase) found in plants and fungi is a P-type ATPase with a polypeptide sequence, structure, an
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