ライフサイエンスコーパス: dynamical behavior

1 m walk is defined to include various quantum dynamical behavior.

2 rties by surface-induced modification of its dynamical behavior.

3 m to an alternative state with a contrasting dynamical behavior.

4 conformations, thus suggesting a pronounced dynamical behavior.

5 d; and finally (iii) genes that have similar dynamical behavior.

6 about which interactions contribute to p53's dynamical behavior.

7 movements is critical to understanding their dynamical behavior.

8 us modular structures and the range of their dynamical behavior.

9 reported here, the results reveal unexpected dynamical behavior.

10 d switching functions or exhibit predictable dynamical behavior.

11 ested by an abrupt first-order transition in dynamical behaviors.

12 ract after their initiation, exhibiting rich dynamical behaviors.

13 mental demands by switching between distinct dynamical behaviors.

14 ion between synchronized and de-synchronized dynamical behaviors.

15 presents an intriguing example of collective dynamical behavior among the simplest forms of life and

16 n a nonseasonal environment that relates the dynamical behavior and competitive abilities of plant po

17 role to play in linking these data with the dynamical behavior and function of these proteins.

18 The dynamical behavior and the temperature dependence of the

19 Bacteria often inhabit and exhibit distinct dynamical behaviors at interfaces, but the physical mech

20 y the first complete characterization of the dynamical behavior by the mean fitness through time unde

21 the parameter space, where such interesting dynamical behavior can be observed.

22 orescence microscopy shows that a variety of dynamical behaviors can be reached by the combination of

23 To understand how certain dynamical behaviors can or cannot persist as the underly

24 Different dynamical behavior during the first 4 ns indicates that

25 This allows prediction of dynamical behavior even when the underlying reaction gra

26 e opens the way to tunable field-induced and dynamical behaviors.Exploring unconventional magnetism f

27 othesis that mitochondria manifest nonlinear dynamical behavior for efficiently regulating energy met

28 A variety of rich dynamical behavior has been uncovered, although usually

29 electron tomography and analysis of spindle dynamical behavior in living cells, we investigated the

30 This has important consequences for dynamical behavior in particular leading to a simultaneo

31 e delays on quantum coherence and excitation dynamical behavior in the time domain generally consider

32 peptides interact with each other and their dynamical behaviors in different homooligomeric states.

33 exhibit characteristically distinct types of dynamical behaviors, in spite of identity of the oscilla

34 -activating kinase is sufficient to generate dynamical behaviors including bistability and limit cycl

35 We find a host of nonlinear dynamical behaviors including multistability, chaos, and

36 we show that a number of distinct classes of dynamical behaviors, including correlated fluctuations c

37 er systems offer a rich repertoire of useful dynamical behaviors, including the excitable dynamics al

38 , we predict that it is a robust motor whose dynamical behavior is not compromised by reasonable pert

39 ver, at approximately 225 K, between the two dynamical behaviors known as fragile and strong, which i

40 The static and dynamical behavior of a fluorescently labeled mutant of

41 ation (RACIPE), for interrogating the robust dynamical behavior of a gene regulatory circuit even wit

42 We studied the dynamical behavior of a mononucleosome under tension usi

43 ve techniques to characterize the structural/dynamical behavior of a pH-triggered switching mechanism

44 We studied the dynamical behavior of a two-species aquatic laboratory c

45 We study the dynamical behavior of a unit of three positive transcrip

46 The dynamical behavior of biomacromolecules is a fundamental

47 des the optical pulse (electron impact), the dynamical behavior of carriers manifests itself in a dar

48 lly detailed glimpse into the structural and dynamical behavior of double helical DNA over many times

49 A new development in the dynamical behavior of elementary quantum systems is the

50 ividual members of the network on the global dynamical behavior of LINE-1 was examined from a theoret

51 ermined the detailed molecular alignment and dynamical behavior of MAG2 in oriented lipid bilayers by

52 erface, and this has a greater impact on the dynamical behavior of nanoconfined water than the actual

53 The qualitative dynamical behavior of our experimental system, that is,

54 interactions, and the "rules" governing the dynamical behavior of regulated components of the networ

55 We also compare the dynamical behavior of several simplified models of CDK r

56 robe changes in the nature and subnanosecond dynamical behavior of solvation waters that accompany pa

57 To characterize the dynamical behavior of the active process, we introduce a

58 The observed dynamical behavior of the arginine side-chains at this p

59 model we find that bistability is the major dynamical behavior of the CDK signaling network, and tha

60 tically), with the objective of matching the dynamical behavior of the cell (e.g., action potential s

61 The dynamical behavior of the cortex is extremely complex, w

62 motion in live cells, revealing a wealth of dynamical behavior of the genomic material once believed

63 t long-lasting sparks emerge as a collective dynamical behavior of the network of diffusively coupled

64 Does selection operate on the global dynamical behavior of the networks?

65 rmed state of the cell is at the core of the dynamical behavior of the positive feedback loop linking

66 The dynamical behavior of the probability flux correlation f

67 The dynamical behavior of the system showed a tendency for o

68 drogens and carboxylate oxygens modulate the dynamical behavior of the system.

69 The functions of proteins depend on the dynamical behavior of their native states on a wide rang

70 We show how the dynamical behavior of this model depends on an entire se

71 ose a computational model to account for the dynamical behavior of this positive inflammatory feedbac

72 We studied the response profile and dynamical behavior of two populations of projection neur

73 Mechanistic models that describe the dynamical behaviors of biochemical systems are common in

74 Overall, our studies show that the dynamical behaviors of motile bacteria at anisotropic LC

75 eep CV restitution leads to more complicated dynamical behaviors of the system.

76 interplay between alpha and tau affects the dynamical behaviors of the system.

77 ions as well as mathematical analyses of the dynamical behaviors of various created networks.

78 voltage coupling combined with the nonlinear dynamical behaviors of voltage and Ca cycling play a key

79 The solvent dynamical behavior on the protein surface reveals signif

80 n rod photoreceptors (I(h)) confer different dynamical behavior onto the two types of neurons.

81 of our society generates qualitatively novel dynamical behavior, producing a new stable regime of cul

82 In the temporal domain, dynamical behaviors such as oscillations and pulses of p

83 Correlation of spindle architecture with dynamical behavior suggests that microtubule pairing is

84 ore realistic cases our model introduces new dynamical behavior that influences competitive outcomes.

85 viscosity and asymptotically approached the dynamical behavior that was previously observed in room

86 We identify three typical dynamical behaviors that occur dependent on the geometri

87 hylesterification pattern attain the correct dynamical behavior to facilitate processive catalysis.

88 All three peptides exhibited unexpected dynamical behavior, undergoing a transition from an alph

89 elements, their integration generates novel dynamical behavior, whereas inputs affecting the same el