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1 lar dynamics study of the closed form of the P2X4 receptor.
2 ding of these antagonists are present in the P2X4 receptor.
3 toma cells stably transfected with the human P2X4 receptor.
4 EK293 cells transfected to express the human P2X4 receptor.
5 g that the 58-kDa protein was a glycosylated P2X(4) receptor.
6 LB fusion with the PM, but not activation of P2X(4) receptors.
7 profile characteristic of the involvement of P2X(4) receptors.
8 revealed a novel physiologic function of the P2X(4) receptor and suggested the importance of N-linked
9 ated current in WT cells, implying that both P2X4 receptor and another yet-to-be-identified P2X recep
10 ion results in the translocation of P2X1 and P2X4 receptors and pannexin-1 hemichannels to the immune
11                                              P2X4 receptor antagonists have potential as drugs for th
12 aracterizing the biochemical property of the P2X(4) receptor, antibody against cP2X(4)R detected a 44
13                    Here, we demonstrate that P2X(4) receptors are expressed in neurons of the spinal
14                                              P2X4 receptors are ATP-gated cation channels that are wi
15                 Thus, our data indicate that P2X4 receptors are dynamically regulated mobile ATP sens
16          These studies provide evidence that P2X4 receptors are functionally important in hepatocyte
17                                              P2X4 receptors are likely involved because the calcium r
18   However, the nature of how plasma membrane P2X4 receptors are regulated in microglia is not fully u
19                         ATP-gated ionotropic P2X4 receptors are up-regulated in activated microglia a
20 r at other sites in the nervous system where P2x4 receptors are widely expressed.
21                  This perspective focuses on P2X(4) receptors as a new cardioprotective target in hea
22 cetate (PMA), results in a cation influx via P2X(4) receptors at the site of LB fusion with the plasm
23 mpletely abolished the pH sensitivity of the P2X4 receptor at all agonist concentrations.
24 ic lactone that stabilizes the open state of P2X(4) receptor channels.
25 purification and pulldown assays reveal that P2X4 receptors complex with aminobutyric acid, type A (G
26                                    The chick P2X4 receptor (cP2X(4)R) mRNA was expressed in the heart
27 2X receptors, ion currents through homomeric P2X4 receptors exhibit intermediate desensitization when
28                                  To identify P2X4 receptor-expressing cells, we generated BAC transge
29  well-characterized tool with which to study P2X4 receptor-expressing cells.
30       Iba1 protein, a microglial marker, and P2X(4) receptor expression were significantly increased
31                                              P2X4 receptor expression in the liver, liver histology,
32               Furthermore, increased surface P2X4 receptor expression significantly decreases the fre
33 de that pannexin-1 hemichannels and P2X1 and P2X4 receptors facilitate ATP release and autocrine feed
34 ever, it was not clear whether the lysosomal P2X4 receptors function as channels and how they are act
35 expressing tdTomato under the control of the P2X4 receptor gene (P2rx4).
36 tations of equivalent residues in P2X(2) and P2X(4) receptors have similar effects and if these mutan
37                   Cells expressing ATP-gated P2X4 receptors have proven problematic to identify and s
38 313)-Ile(333) ectodomain sequence of the rat P2X(4) receptor in ATP binding and transduction of signa
39  present crystal structures of the zebrafish P2X(4) receptor in its closed, resting state.
40  study a potential physiological role of the P2X(4) receptor in mediating the positive inotropic effe
41 eport the crystal structure of the zebrafish P2X4 receptor in complex with ATP and a new structure of
42 aracterize the electrophysiologic actions of P2X4 receptors in cardiac myocytes and to determine whet
43  cells, consistent with an important role of P2X4 receptors in mediating the ATP current not only in
44 t previously unanticipated roles for ATP and P2X4 receptors in the neural circuitry controlling feedi
45                   The crystal structure of a P2X4 receptor, in combination with mutagenesis studies,
46 l and functional data regarding the P2X2 and P2X4 receptors indicate that the central trihelical TM2
47                  These results indicate that P2X(4) receptors influence inflammasome signaling involv
48 hibition, mutation, or silencing of P2X1 and P2X4 receptors inhibits Ca(2+) entry, nuclear factors of
49             The data suggest that the native P2X(4) receptor is involved in mediating the P2 agonist-
50         Biochemical evidence showed that the P2X(4) receptor is the major subtype shared by these air
51 ranes and that transfer of the TM regions of P2X(4) receptors is sufficient to convey sensitivity to
52                                          The P2X4 receptor is a newly identified receptor expressed i
53 e and have shown further that ATP-responsive P2X4 receptor is required for Tbeta4-induced HUVEC migra
54                                          The P2X4 receptor is unique among family members in its sens
55                         Ca(2+) entry through P2X4 receptors is known to trigger downstream signaling
56                 We find that plasma membrane P2X4 receptor lateral mobility in resting microglial pro
57 ted morphine-induced migration, suggesting a P2X(4) receptor-mediated effect.
58 in, indicating that these responses were not P2X(4) receptor-mediated.
59  GABA(A) receptors in recombinant system and P2X4 receptor-mediated GABAergic depression in SF-1 GFP-
60 nd clear evidence for functional presynaptic P2X4 receptor-mediated responses in terminals of AgRP-NP
61 ATP decreased cellular glycogen content; and P2X4 receptor messenger RNA increased in glycogen-rich l
62 uantum dot-labeled P2X4 receptors to explore P2X4 receptor mobility in the processes of resting and a
63 1 microM), while at recombinant rat P2X2 and P2X4 receptors no enhancing or antagonistic properties w
64            Genetic deletion of the PSD-95 or P2X4 receptors obliterated ATP-mediated down-regulation
65 ogical evidence for functional expression of P2X4 receptors on AgRP-NPY neuron somata, but instead, w
66 ned in myocytes from both wild-type (WT) and P2X4 receptor-overexpressing transgenic (TG) mice.
67                                          The P2X4 receptor (P2X4R) is a member of a family of puriner
68                                              P2X4 receptors (P2X4R) have emerged as potentially impor
69                   Of the seven P2X subtypes, P2X4 receptors (P2X4Rs) are richly expressed in the brai
70              Activation of a cardiac myocyte P2X4 receptor protects against heart failure.
71 nd involves increased expression of Iba1 and P2X(4) receptor protein, which imparts a promigratory ph
72 tures of the detergent-solubilized zebrafish P2X4 receptor provide a blueprint for receptor mechanism
73            The recent crystal structure of a P2X4 receptor provides a 3D view of their topology and a
74 es activate NLRP1 inflammasomes, but whether P2X(4) receptors regulate inflammasome signaling is esse
75 tion with zinc, which potentiates P2X(2) and P2X(4) receptor responses, or lowering the pH to 6.8, wh
76 on feeding-related regulation of presynaptic P2X4 receptor responses, and the rationale to explore ex
77 ing ion channel structure with the ATP-gated P2X(4) receptor reveals similarity in pore architecture
78                       In the presence of the P2X4 receptor-selective allosteric enhancer ivermectin (
79  conclusion, these data show that epithelial P2X(4) receptors serve as ATP-gated calcium entry channe
80                                          The P2X(4) receptor subunit (P2X(4)R) is likely to be import
81                   In intact heart study, the P2X4 receptor TG mouse exhibited significantly elevated
82 on with no associated heart pathology in the P2X4 receptor TG mouse suggests a novel physiologic role
83 use suggests a novel physiologic role of the P2X4 receptor, that of stimulating the cardiac contracti
84                              Furthermore, in P2X4 receptors, this ability to alter ion selectivity ca
85 ncreased responsiveness of the overexpressed P2X4 receptor to endogenous ATP is responsible for the e
86 olecule imaging to track quantum dot-labeled P2X4 receptors to explore P2X4 receptor mobility in the
87 4)R showed that only the glycosylated 58-kDa P2X(4) receptor was expressed on the cell surface, indic
88                   The nonglycosylated 44-kDa P2X(4) receptor was resistant to various detergent/aqueo
89                                              P2X4 receptors were expressed in hepatocytes and Kupffer
90 ia a novel interaction between mu-opioid and P2X(4) receptors, which is dependent upon PI3K/Akt pathw
91 -2,4-disulfonate, with residues from the rat P2X4 receptor, which is insensitive to these antagonists
92 nsistent with overexpression of a functional P2X4 receptor with consequent increase in the receptor-m

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