ライフサイエンスコーパス: finite element analysis

1 ice designs through theoretical modeling and finite element analysis.

2 ure characterization, fracture mechanics and finite element analysis.

3 ing was also visualized by simulations using finite element analysis.

4 ymer substrates to MoS2 by three-dimensional finite element analysis.

5 luates the usefulness of this methodology by finite element analysis.

6 ating the strain output with beam theory and finite element analysis.

7 nown models suffices for macroscopic dynamic finite element analysis.

8 ary arteries were studied using large-strain finite element analysis.

9 le Class V cavity preparation was modeled in finite element analysis.

10 ed by in situ nanomechanical experiments and finite-element analysis.

11 millimeter-size glass ball, together with a finite-element analysis.

12 ring electrode were calculated by numerical (finite element) analysis.

13 ussed, and theoretical calculations based on finite element analysis allowed the fabrication of FBARs

14 e measurement on a dynamically scaled model, finite-element analysis, analytical estimation of hydrod

15 Finite element analysis and active microrheology demonst

16 Regional wall stresses were calculated using finite element analysis and compared with stresses in co

17 Coupling between the finite element analysis and network-based tools is estab

18 ical electrode were calculated by numerical (finite element) analysis and compared to an earlier appr

19 ng currents were calculated using numerical (finite element) analysis and compared to those obtained

20 tomography, estimated vertebral strength by finite element analysis, and self-reported fractures.

21 ography, and bone strength with the use of a finite element analysis, and we evaluated dietary protei

22 CONCLUSION Finite element analysis applied to high-spatial-resoluti

23 s the neonatal pig and computer models using finite element analysis are promising experimental techn

24 em to facilitate the analysis of AAA using a finite element analysis based approach.

25 Finite element analysis confirms that this effect is due

26 ation of RF heating by using two-dimensional finite-element analysis (ETherm) was performed with para

27 f theoretical skull shapes was studied using finite element analysis (FEA) and visualized as function

28 Finite element analysis (FEA) is used by industrial desi

29 We employed a probabilistic finite element analysis (FEA) method to determine how va

30 We employed finite element analysis (FEA) of abstract and realistic

31 Finite element analysis (FEA) simulations demonstrate th

32 skull, and the results were transferred to a finite element analysis (FEA) to estimate the pattern of

33 Here, we used finite element analysis (FEA) to investigate the biomech

34 d increase in the number of biologists using finite element analysis (FEA) to investigate the mechani

35 trabecula segmentation (ITS)-based analysis, finite element analysis (FEA), energy dispersive X-ray s

36 ll with the simulation results obtained from finite element analysis (FEA).

37 al properties were further interpreted using finite element analysis (FEA).

38 Rayfield et al. have used finite-element analysis (FEA) to investigate such struct

39 brant-loaded extraction phase, CL-EP, with a finite-element analysis (FEA) using COMSOL Multiphysics

40 Wall stress calculated using finite element analysis has been used to predict rupture

41 A greatly simplified 3D finite element analysis has made it possible to quickly

42 Here, we test this hypothesis using finite element analysis in conjunction with comparative,

43 ft ventricular wall stress was calculated by finite element analysis in three regions (infarcted, non

44 PSS was calculated by finite element analysis in whole vessels, in individual

45 Finite element analysis indicated high stress levels bel

46 calculation of stress distribution with the finite element analysis method (dividing an object into

47 Purpose To describe a nonlinear finite element analysis method by using magnetic resonan

48 A nonlinear finite element analysis method was developed to estimate

49 lusion This experiment demonstrates that the finite element analysis model can consistently and relia

50 A complete 3-dimensional (3D) finite element analysis model of a minimally reduced mol

51 Finite element analysis modeling demonstrates that struc

52 thickness can significantly increase PWS in finite element analysis models of thoracic aortic aneury

53 A numerical model based on finite element analysis, Monte Carlo simulations, and st

54 ation of computational biomechanical models (Finite Element Analysis, Multibody Dynamics Analysis) de

55 ccular geometry on peak wall stress (PWS) in finite element analysis of descending thoracic aortic an

56 Electromagnetic Finite Element Analysis of photonic heating is coupled t

57 The approach we use involves finite element analysis of the coupled hydrogen transpor

58 xperiments are compared with calculations by finite element analysis of the deformation of a homogene

59 This provides a target for finite element analysis of the flow of silk proteins, wi

60 ing X-ray computed tomography, and performed finite-element analysis of the mechanical response withi

61 Finite element analysis revealed the cause of increase i

62 Finite-element analysis revealed that stresses generated

63 Finite-element analysis reveals that early stiffening of

64 ized software for tissue motion-tracking and finite element-analysis showed that changes in airway si

65 Finite element analysis shows that the resolved domain w

66 Finite element analysis shows uneven heating, with the m

67 system was first considered by conducting a finite element analysis simulation, and then a demonstra

68 MR imaging-based micro-finite-element analysis suggests that stiffness and fail

69 related mechanics is further rationalized by finite element analysis, the generalized shear-lag theor

70 images by using phantomless calibration and finite element analysis to measure bone mineral density

71 is balloon-artery interaction, we have used finite element analysis to model how balloon-artery cont

72 We apply finite-element analysis to explore the role of strain st

73 ve material model will be used in a detailed finite-element analysis to improve our understanding of

74 Finite element analysis was applied to compute elastic m

75 A MRI-based finite element analysis was generated to characterize th

76 Finite element analysis was used to analyze the stress p

77 Finite element analysis was used to optimize the crucifo

78 Computational fluid dynamics based on finite element analysis was used to optimize the flow co

79 Finite element analysis was used to predict the LCD and

80 Finite Element Analysis was used to predict wall stress

81 From these tests, finite-element analysis was performed to model and simul

82 t transfer and structural mechanics based on finite element analysis, we demonstrated that pore openi

83 Using finite element analysis, we present a three-dimensional

84 on in a transmission electron microscope and finite-element analysis, we show that the mechanical pro

85 were acquired from the samples, and CTRA and finite element analysis were performed to obtain the fai

86 Experimental compaction and finite element analysis were utilized to rationalize the