ライフサイエンスコーパス: mechanical test

1 failure load (FL) was determined by using a mechanical test.

2 s spanning from neutron scattering to static mechanical testing.

3 emale C57BL/6 mice for in vitro vascular and mechanical testing.

4 7-deazaguanine (DeUG) units was evaluated by mechanical testing.

5 ng anterior knee laxity as demonstrated with mechanical testing.

6 it is more flexible and confirmed by direct mechanical testing.

7 higher reliability under mouth-motion cyclic mechanical testing.

8 ing and then characterized by microscopy and mechanical testing.

9 d collagen gel subjected to an off-axis hold mechanical test and subsequently to biaxial extension.

10 use in situ transmission electron microscopy mechanical testing and atomistic simulations to demonstr

11 Tensile mechanical testing and compositional analysis reveal tha

12 The material was subjected to mechanical testing and was assayed for in vitro cytotoxi

13 Finite element modeling, mechanical testing, and immunohistochemical analyses at

14 erties of PLGA have been characterized using mechanical tests, and a finite-element model has been de

15 Before mechanical testing, cytochalasin D, acrylamide, or colch

16 This study aimed to collect mechanical test data from freshly excised lung, obtained

17 d vessel mechanical properties, by combining mechanical testing (distension) of excised porcine coron

18 ansfer, microstructure characterization, and mechanical testing extremely challenging.

19 lysis included radiographs, basic histology, mechanical testing, flow cytometry, and immunohistochemi

20 Mechanical testing has revealed that each is elastomeric

21 By quantitative mechanical tests in an environmental transmission electr

22 Mechanical testing indicated inferior material propertie

23 Mechanical tests indicated that the constructs could wit

24 Mechanical test lung and artificial trachea simulations

25 frequency oscillatory ventilation (HFOV) and mechanical test lung models with respect to delivered ti

26 d on previous statistical measurements while mechanical testing of arteries (n = 5) were performed in

27 Mechanical testing of collagenous tissues at different l

28 Mechanical testing of degraded samples revealed hard seg

29 Mechanical testing of dorsal skin correlates these chang

30 ent with the findings of the recent in vitro mechanical testing of micropatterned neuronal cultures.

31 extensive molecular-dynamics simulations of mechanical testing of model polymer (high-density polyet

32 system for in situ electron microscopy (EM) mechanical testing of nanostructures.

33 Ex vivo mechanical testing of SIS-ECM valve tissue showed normal

34 Mechanical testing of the femurs demonstrated that loss

35 binding, integrin activation, spreading, and mechanical testing of the surface.

36 atures under ambient pressure, and therefore mechanical tests on (Mg,Fe)SiO3 perovskite are difficult

37 compared with data obtained previously from mechanical tests on adherent cells.

38 We describe a cell culture and mechanical testing protocol for generating freely suspen

39 hen compared with conventional stress-strain mechanical test results.

40 Mechanical testing revealed increased repair strength, c

41 Our mechanical testing revealed that the compressed MT behav

42 Multiscale mechanical testing reveals that as the size, complexity,

43 Mechanical testing showed a propensity for skin to tear

44 Mechanical testing showed that TNF-alpha decreases the s

45 lly, the results from mechanical and dynamic mechanical tests showed that performances dramatically i

46 In a parallel study, tissue adjacent to the mechanical test specimens was apportioned for each of fi

47 ipulating these lipid vesicles for sampling, mechanical testing, spectroscopic observation, and chemi

48 astin insufficiency was also shown by aortic mechanical testing that demonstrated incrementally abnor

49 Here, we use in situ mechanical testing to examine how physiologically pertin

50 Mechanical testing using microindentation gives a Vicker

51 Mechanical testing was performed on corneal flaps from s

52 Mechanical tests were conducted to characterize the phys

53 SEM, FTIR and mechanical tests were further employed to investigate th

54 he requisite use of conventional destructive mechanical testing, which is necessarily retrospective.

55 Here we perform in situ mechanical testing with synchrotron X-ray computed micro

56 The 80 femurs were fractured via mechanical testing, with random assignment of one femur

57 dulus and the tensile strength with a single mechanical test, without the need for other experimental