ライフサイエンスコーパス: automaton

1 e as an excitable automaton network (F-actin automaton).

2 s until there is a draw or a victory for the automaton.

3 )which, in turn, affect the evolution of the automaton.

4 ng that simulates a one-dimensional cellular automaton.

5 can become established within the evolutive automaton.

6 A deoxyribozyme-based molecular automaton.

7 As a quantum-mechanical cellular automaton, a discrete-time quantum walk is defined to in

8 The small-molecule ratchet is a finite-state automaton: a special case(24) of a Turing machine that m

9 and multiply small numbers, and a molecular automaton able to diagnose Ebola and Marburg virus seque

10 Modified cellular automaton and diffusion reaction models demonstrate prot

11 lso has some of the properties of a cellular automaton and shows an unexpected emergence of spatial p

12 des new conceptual insights into fuel-driven automatons and autonomous materials design.

13 DNA nanostructures, and enable the design of automatons and life-like systems of higher structural co

14 lattice-Boltzmann (LB) method is a cellular automaton approach to simulating fluid flow with many ad

15 The employed cellular automaton-based computer model examines the life history

16 ta recently available, we present a cellular-automaton-based modeling framework focussing on high-lev

17 Unlike automatons building perfectly replicated hexagons, these

18 umour cells are modelled by using a cellular automaton (CA) approach, where each cell has its own int

19 We extended a two-dimensional cellular automaton (CA) Daisyworld to include mutation of optimal

20 Cellular automaton (CA) simulations are performed with Mathematic

21 We describe a molecular automaton, called MAYA, which encodes a version of the g

22 In this sense, a physical Push-Down Automaton can be more powerful than a sequential physica

23 The automaton cannot be defeated because it implements a per

24 We set up a cellular automaton computational model that simulates ECM penetra

25 dic control valve technology, a microfluidic automaton consisting of a two-dimensional microvalve cel

26 A cellular automaton constructed by Bak, Tang, and Wiesenfeld (BTW)

27 The automaton covers all possible responses to two consecuti

28 nsumption of a limiting nutrient; a cellular automaton describing cell migration, proliferation, and

29 tal simulation is based on a hybrid cellular automaton design using genetic rules to determine each c

30 An efficient deterministic finite automaton (DFA) based model is then developed to search

31 del of neuroblastoma comprising a continuous automaton, discrete cell agents, and a centre-based mech

32 arios is all the more remarkable because the automaton does not include many important physical proce

33 tent workers act as architects versus simple automatons during these irregular building scenarios.

34 plemented on a PDMS-based microfluidic chip (automaton), followed by single nucleic acid fluorescence

35 biologically driven discrete hybrid cellular automaton (HCA) model of bone metastatic prostate cancer

36 This automaton in turn controls the differentiation of the ce

37 The automaton is a Boolean network of deoxyribozymes that in

38 rategy that can be encoded by a finite state automaton is a possible mutant.

39 onstructing a discrete model like a cellular automaton is a powerful method for understanding various

40 A higher level of fuel-driven automaton is achieved by combining two subsystems for th

41 A computer-based evolutive automaton is used to explore possible evolutionary scena

42 r, computationally equivalent to a Push-Down Automaton, is exponentially fast when implemented in mol

43 We use a newly developed cellular automaton model (ViSTA-HD), to evaluate the environmenta

44 e directly compared with a previous cellular automaton model and experimental measurements made at th

45 our primary scientific interests: a cellular automaton model for earthquakes, a multifractal random w

46 We present a stochastic cellular automaton model for the behavior of limb bud precartilag

47 Here, we describe a cellular automaton model for this type of self-organization, in w

48 y simulating the RF response with a cellular automaton model immune system, we demonstrate that patho

49 A hybrid cellular automaton model is described and used to simulate early

50 , discrete/continuous computational cellular automaton model of a generalised stem-cell driven tissue

51 I show that an empirically derived cellular automaton model of a rocky intertidal mussel bed based o

52 vel and versatile three-dimensional cellular automaton model of brain tumor growth.

53 We present a cellular automaton model of clonal evolution in cancer aimed at i

54 developed a two-dimensional hybrid cellular automaton model of early brain tumor growth that couples

55 We propose a cellular automaton model of solid tumour growth, in which each ce

56 Here we use a spatial stochastic cellular automaton model of tumour growth that accounts for somat

57 Using a two-dimensional hybrid cellular automaton model of tumour growth, we evaluate the effect

58 In this paper, we introduce a cellular automaton model of viral propagation based on the known

59 our arguments in an elasto-plastic model, an automaton model similar to those used in depinning, but

60 We develop a cellular automaton model that tracks the temporal evolution of th

61 Here, we introduce a cellular automaton model to investigate the spatiotemporal spread

62 report the development of a hybrid cellular automaton model to mimic the growth of avascular tumours

63 A three-dimensional cellular automaton model was developed, for the first time, to pr

64 We propose a cellular automaton model where local rules focus on fertilization

65 Using a cellular automaton model, 3D oxygen diffusion, delivery of radiat

66 a filamentous actin molecule as an excitable automaton network (F-actin automaton).

67 Computer simulations using a novel cellular-automaton network model provide quantitative insights in

68 We implemented the cellular automaton on a two-dimensional (2D) square lattice to em

69 Our microfluidic automaton provides a fully automated, portable microflui

70 The continuous automaton represents the tumour microenvironment as a gr

71 The cycle of human player input and automaton response continues until there is a draw or a

72 inary counting and Turing universal cellular automaton Rule 110, the latter of which is, in principle

73 Based on cellular automaton simulations we argue that the effect of group

74 findings are supported by explicit cellular automaton simulations, which justify the mean-field trea

75 n an on-lattice, hybrid, multiscale cellular automaton spanning three spatial dimensions.

76 ive microvessels as components of a cellular automaton state vector.

77 uild a multipurpose reprogrammable molecular automaton that goes beyond single-purpose 'hard-wired' m

78 as shown by the classic deoxyribozyme-based automaton that plays tic-tac-toe(42), to direct structur

79 The final output of a molecular automaton that successfully completes its analysis is th

80 ror correction procedure based on a cellular automaton, the sweep rule, which is applicable to a broa

81 describe a novel application of finite-state automaton to map Illumina short-read sequence data for i

82 The abelian sandpile is a cellular automaton which serves as the archetypical model to stud

83 lls are considered as elements of a cellular automaton, whose evolution rules are inspired by the dif

84 is assigned a bit at time 0 and is a finite automaton with m bits of memory (i.e., [Formula: see tex

85 Here, we propose a simple cellular automaton with power-law interactions that gives rise to

86 A combination of a state automaton with stochastic local rules and a set of diffe

87 s, experimentally realizing a Dirac cellular automaton with tunable mass parameter.