ライフサイエンスコーパス: voltage dependent K channel

1 inactivation caused by the "ball" peptide in voltage-dependent K+ channels.

2 matched closely the nodal presence of these voltage-dependent K+ channels.

3 + channels, Ca(2+)-activated K+ channels and voltage-dependent K+ channels.

4 c densities that clusters NMDA receptors and voltage-dependent K+ channels.

5 l types: ATP-sensitive, Ca(2+)-regulated and voltage-dependent K(+) channels.

6 on with peptide toxins that target different voltage-dependent K(+) channels.

7 Patch-clamp techniques were used to survey voltage-dependent K+ channel activities in different cel

8 ever, we were able to identify four types of voltage-dependent K(+) channels and we categorized them

9 The sequence of H5 is similar in voltage-dependent K+ channels and features a strictly co

10 Voltage-dependent K+ channels are members of the family

11 Regulation by voltage is similar to that in voltage-dependent K+ channels, arising from positively c

12 Here, we report that guard cells utilize voltage-dependent K+ channels as targets of the osmosens

13 The Kv1 family voltage-dependent K(+) channels assemble with cytosolic

14 The Kv-like (potassium voltage-dependent) K(+) channels at the plasma membrane,

15 4-aminopyridine or related voltage-dependent K channel blockers could be a useful a

16 The regulation of voltage-dependent K+ channels by phosphorylation/dephosp

17 Like other voltage-dependent K(+) channels, Ca(2+)-activated K(+) c

18 A non-voltage-dependent K+ channel does not exhibit the same d

19 In voltage-dependent K+ channels, each of the four identica

20 We have analysed by electron microscopy a voltage-dependent K(+) channel from Aeropyrum pernix (Kv

21 tarantula venom voltage-sensor toxins on the voltage-dependent K+ channel from Aeropyrum pernix (KvAP

22 Here we present the structure of KvAP, a voltage-dependent K+ channel from Aeropyrum pernix.

23 of a variety of antiproliferative agents on voltage-dependent K+ channel function in cortical oligod

24 ontrols the membrane expression of the human voltage-dependent K(+) channel human ether-a-go-go-relat

25 to establish the basic gating mechanisms of voltage-dependent K(+) channels, implying prior independ

26 Voltage-dependent K(+) channels in the apical dendrites

27 the major somatodendritic delayed rectifier voltage-dependent K+ channel in central neurons, is regu

28 lcium-dependent potassium (BK-type) Ca2+ and voltage-dependent K+ channels in chromaffin cells exhibi

29 This could be due to blockade of voltage-dependent K+ channels in the heart, leading to a

30 died the role of Kv1.4, a presynaptic A-type voltage-dependent K+ channel, in both memory and LTP.

31 terminus but not as expected by analogy with voltage-dependent K+ channels, in H5.

32 rprisingly large effect on the function of a voltage-dependent K(+) channel, including its pharmacolo

33 Our data suggest that voltage-dependent K+ channel inhibition with 4-aminopyri

34 variety of conditions that the function of a voltage-dependent K+ channel is dependent on the negativ

35 and (ii) cell depolarization and blockage of voltage-dependent K+ channels is likely to be the trigge

36 with the recent proposal that the sensor in voltage-dependent K+ channels is located at the membrane

37 structural basis for the activation gate of voltage-dependent K+ channels is not known, but indirect

38 ctively decreases 4-aminopyridine sensitive, voltage-dependent K(+) channel (K(v)) currents by approx

39 Pore-blocking toxins inhibit voltage-dependent K(+) channels (Kv channels) by pluggin

40 STRACT: Large-conductance KCa (BK) and other voltage-dependent K(+) channels (Kv) are highly expresse

41 ance Ca(2+) -activated K(+) channel (BK) and voltage-dependent K(+) channels (Kv) on [Ca(2+) ]i respo

42 test directly the hypothesis that different voltage-dependent K+ channel (Kv channel) alpha subunits

43 Whereas many aspects of inactivation of voltage-dependent K+ channels (Kv) can be described by a

44 The voltage-dependent K+ channel Kv1.2 grew three-dimensiona

45 actory information by decreasing activity of voltage-dependent K channels (Kv1.3).

46 In this study we identified a voltage-dependent K(+) channel (Kv1.1) expressed in ICC

47 We have cloned the cDNA encoding the voltage-dependent K+ channel Kv2.1 from human brain (hKv

48 d phospholipid interface of the VSD from the voltage-dependent K(+) channel KvAP (prokaryotic Kv from

49 We present two structures of the voltage-dependent K(+) channel KvAP, in complex with mon

50 KOR sequence to the crystal structure of the voltage-dependent K+ channel KvAP from Aeropyrum pernix

51 al structure and dynamics of the prokaryotic voltage-dependent K+ channel (KvAP) at 0 millivolts, usi

52 tretch of eight residues that are similar in voltage-dependent K+ channels, Kvs, and this stretch is

53 Many voltage-dependent K+ channels open when the membrane is

54 The HERG voltage-dependent K+ channel plays a role in cardiac ele

55 This rise in [Ca2+]i causes inhibition of voltage-dependent K+ channels (possibly Kv1.5), membrane

56 The inactivation peptides of voltage-dependent K(+) channels reach their site of acti

57 Voltage-dependent K(+) channels rely on precise dynamic

58 Voltage-dependent K(+) channels serve to set the excitab

59 2 clonal cell line expresses an O2-sensitive voltage-dependent K+ channel similar to that recorded in

60 Ca(2+)-activated voltage-dependent K(+) channels (Slo1, KCa1.1, Maxi-K, o

61 Mutations in the K(V)7.2 gene encoding for voltage-dependent K(+) channel subunits cause neonatal e

62 The Slack gene encodes a voltage-dependent K(+) channel that has a unitary conduc

63 In KvAP, a prokaryotic voltage-dependent K+ channel, the S4 helix forms part of

64 mbrane depolarizes, but in contrast to other voltage-dependent K(+) channels, they also open when int

65 f channel opening on membrane voltage allows voltage-dependent K+ channels to turn on almost like a s

66 The structure of the cytoplasmic assembly of voltage-dependent K+ channels was solved by x-ray crysta

67 Single voltage-dependent K+ channels were recorded in cell-atta

68 he IfastAHP is predominantly attributable to voltage-dependent K+ channels, whereas Ca2+-dependent an

69 ere we describe the structure of a chimaeric voltage-dependent K+ channel, which we call the 'paddle-

70 Voltage-dependent K(+) channels with a conductance of 55