コーパス検索結果 (1語後でソート)
通し番号をクリックするとPubMedの該当ページを表示します
1 Consistently, ADP decreased K(actin) of the actin-activated ATPase.
2 ctin binding, ATP-induced actin release, and actin-activated ATPase.
3 C to study structural correlates of myosin's actin-activated ATPase.
5 sured basal ATPase, V(max), and K(ATPase) of actin-activated ATPase, actin-sliding velocities, rigor
7 We found that, based upon the change in the actin-activated ATPase activities and actin translocatin
8 tions in a manner that reflects the relative actin-activated ATPase activities of the donor myosins.
11 e domain sequence switch conferred beta-like actin-activated ATPase activities to the chimeric myosin
14 n vitro motility (2.7-fold), and the Vmax of actin-activated ATPase activity (up to 2-fold), the prop
15 n comprising an N-terminal motor domain with actin-activated ATPase activity and a C-terminal globula
16 these cells exhibited 4-5-fold reduction in actin-activated ATPase activity and a decrease in motor
17 We found calcium moderately increases the actin-activated ATPase activity and completely inhibits
18 lated Myo2 were obtained that exhibited high actin-activated ATPase activity and in vitro actin filam
19 defective properties in vitro, particularly actin-activated ATPase activity and sliding velocity.
20 ila, mouse, and human myosin 18A (M18A) lack actin-activated ATPase activity and the ability to trans
23 The Ala and Asn mutants had the same low actin-activated ATPase activity as unphosphorylated wild
24 tation does not significantly change maximum actin-activated ATPase activity but slows actin sliding
25 Mg(2+) modulated actin-sliding velocity and actin-activated ATPase activity by changing the rate of
28 ve for both actin-translocating activity and actin-activated ATPase activity in the dephosphorylated
29 bed here, we have found that the kcat of the actin-activated ATPase activity is changed by the loop 2
34 ion significantly decreased the K(m) for the actin-activated ATPase activity of both alpha- and beta-
35 e been shown previously to down-regulate the actin-activated ATPase activity of both the full-length
38 t exogenous GTD is capable of inhibiting the actin-activated ATPase activity of GTD-deleted myosin Va
40 o suggest a reciprocal shift, with basal and actin-activated ATPase activity of IFI-3a showing reduce
47 at the inhibitory action of caldesmon on the actin-activated ATPase activity of myosin in solution an
49 und that melanophilin directly activates the actin-activated ATPase activity of myosin Va and thus it
52 tern blot analysis (116 kDa) and inhibit the actin-activated ATPase activity of purified adrenal myos
54 ingly, the tail domain markedly inhibits the actin-activated ATPase activity of tailless DM7A at low
56 om the wild-type ABL significantly increased actin-activated ATPase activity of the dephosphorylated
59 large as that of the monomer form, while the actin-activated ATPase activity of the two forms was ide
60 a as determined by (i) the dependence of its actin-activated ATPase activity on heavy-chain phosphory
61 e E56G mutation has no significant effect on actin-activated ATPase activity or actomyosin affinity i
62 ble for USH1B cause the complete loss of the actin-activated ATPase activity or the reduction of duty
63 (1) Both the actin sliding activity and the actin-activated ATPase activity showed phosphorylation d
64 ATPase activity for 2-3-fold but reduced the actin-activated ATPase activity to 50% of the wild type.
65 urements at the same temperature showed that actin-activated ATPase activity was 2.9-fold greater for
66 slocating activity of myosin VI although the actin-activated ATPase activity was not affected by Ca(2
69 the 50-20K sequence specifically affects the actin-activated ATPase activity while the 25-50K sequenc
70 Q mutant myosin demonstrated 2.3-fold higher actin-activated ATPase activity, 2.2-fold greater averag
71 IFI relay domain, we find a 50% reduction in actin-activated ATPase activity, a significant increase
72 nd actin in an ATP-sensitive manner, exhibit actin-activated ATPase activity, and generate force and
73 unts for the low actin-sliding velocity, low actin-activated ATPase activity, and high duty ratio.
74 ted the overall shape of a myosin, exhibited actin-activated ATPase activity, and moved actin filamen
76 he N-dependence of actin sliding velocities, actin-activated ATPase activity, force generation agains
78 nine and glutamic acid substitutions reduced actin-activated ATPase activity, slowed the in vitro sli
79 n the other hand, ADP markedly inhibited the actin-activated ATPase activity, suggesting a high affin
80 All three mutants, however, have impaired actin-activated ATPase activity, with apparent second-or
90 phorylated and dephosphorylated MIC(IQ) show actin-activated ATPase activity; however, HCP increases
91 ed for both actin-translocating activity and actin-activated ATPase activity; however, these activiti
94 atic increase in intrinsic motor properties, actin-activated ATPase and in vitro actin gliding veloci
96 ep (ADP release) in the smooth muscle myosin-actin-activated ATPase cycle that is modulated by regula
97 atalytic motor domain, and characterized its actin-activated ATPase cycle using quantitative equilibr
99 DP release is the rate-limiting step for the actin-activated ATPase cycle; thus, HuM5B is a high duty
100 king strokes, the MYH7b isoforms have slower actin-activated ATPase cycles and actin sliding velociti
102 lly decreased in vitro motility velocity and actin-activated ATPase, in contrast to other MYH7 mutati
111 sence of 14-3-3beta had little effect on the actin-activated ATPase or motile activities of Myo1c.
113 indicate that it has a 2-fold higher maximum actin-activated ATPase rate (kcat = 1.5 +/- 0.1 s-1) and
114 , V0 is linearly correlated with the maximal actin-activated ATPase rate (vmax), which is limited by
115 t sliding velocity, whereas Loop 2 modulates actin-activated ATPase rate in Dictyostelium myosin, but
117 ate of actin filament sliding or the maximal actin-activated ATPase rate of S1 or HMM constructs.
118 D515N mutation had no effect on steady-state actin-activated ATPase rate or load-dependent detachment
119 found, surprisingly, that in vitro solution actin-activated ATPase rates were increased (higher Vmax
121 ity and doubles myosin in vitro motility and actin-activated ATPase velocities, thereby involving a c