ライフサイエンスコーパス: microbeam

1 ir cells were killed individually by a laser microbeam.

2 as severed near the kinetochore with a laser microbeam.

3 th the power density of the two-photon laser microbeam.

4 k to each cell individually by using a laser microbeam.

5 reexisting hair cells were killed by a laser microbeam.

6 nderwent irradiation with arrays of parallel microbeams.

7 several groups are also developing electron microbeams.

8 red as arrays of parallel microplanar beams (microbeams), 25- to 90-microm thick and spaced 100-300 m

9 en conducted a series of studies using laser microbeam ablation of amphidial cell bodies in the L1 to

10 in the living L1 was prepared, so that laser microbeam ablation studies can be conducted.

11 The succession of two microbeam analyses on an individual particle allows the

12 e, speed of preparation, and suitability for microbeam analysis, all of which are favorable for nucle

13 ere ablated in hatchling larvae with a laser microbeam, and these were grown to the L3 stage and test

14 X-ray microbeams are an emerging characterization tool with br

15 termined the activation potential of the NIR microbeam as a function of wavelength.

16 The availability of the microbeam at the Radiological Research Accelerator Facil

17 Together with muXRD, microbeam Ca K-edge X-ray absorption near-edge structure

18 However, such thin microbeams can only be produced by synchrotron sources a

19 techniques were applied in external (in-air) microbeam configuration for the trace and main element d

20 Apart from localized heating effects, the microbeam damage is probably associated with the O3 load

21 of the SHG spatial profiles following X-ray microbeam exposure was consistent with an EFISH mechanis

22 helium ions using the Gray Cancer Institute microbeam facility targeting individual cells.

23 -speed polarized optical microscopy, in situ microbeam grazing incidence wide-angle X-ray-scattering

24 The development of microbeams has allowed nontargeted responses such as bys

25 tweezers based on tightly focused ultrasound microbeam have attracted considerable attention owing to

26 geting of cells in experimental systems with microbeams have led to a reassessment of the model of ho

27 ing subcellular targeting using a soft X-ray microbeam in combination with GNPs.

28 using a soft X-ray (carbon K-shell, 278 eV) microbeam in MDA-MB-231 breast cancer and AG01522 fibrob

29 sed near-infrared continuous wave (CW) laser microbeam in the path of an advancing axon, we discovere

30 h knowledge of the long-term radiobiology of microbeams in healthy tissues is required.

31 micropallet release produced by pulsed laser microbeam irradiation at lambda = 532 nm using pulse dur

32 ed by picosecond and nanosecond pulsed laser microbeam irradiation in adherent cell cultures.

33 pallet release accomplished via pulsed laser microbeam irradiation is an energy-driven plasma-mediate

34 recent improvements in throughput now permit microbeam irradiation of large cell numbers, allowing th

35 Microbeam irradiation of sensorimotor cortex did not aff

36 cellular outcome resulting from pulsed laser microbeam irradiation spanning a nearly two-orders-of-ma

37 was used to examine the use of pulsed laser microbeam irradiation to produce cell lysis.

38 The time-resolved images show the laser microbeam irradiation to result in plasma formation at t

39 n be precisely controlled by combining laser microbeam irradiation with different fluorescent fusion

40 s of 0.5 ns to 50 mus after the pulsed laser microbeam irradiation, and fluorescence assays assess th

41 time that simple DSBs, induced by USX or NIR microbeam irradiation, are repaired rapidly involving Ku

42 ata, combined with data from studies of 6 ns microbeam irradiation, demonstrates the primacy of shear

43 red cell studies, we examined alpha-particle microbeam irradiation-induced bystander effects in human

44 l airway epithelial cells, using a precision microbeam irradiator with a beam width of 1 mum.

45 availability of a precision single-particle microbeam, it is possible to demonstrate, unequivocally,

46 scein (6-CF) dye and cut with an argon laser microbeam (lambda = 488 nm).

47 velopmental potential of the PTCs by using a microbeam laser to ablate specific clusters in larvae.

48 ere necessary for DLM development by using a microbeam laser to ablate them singly and in combination

49 uclear volumes of cells by means of a pulsed microbeam laser, gamma-H2AX foci form at these sites.

50 A laser microbeam marked the location of cultured neurons on cov

51 in diameter) of the guard cell wall using a microbeam of ultraviolet light generated by a nitrogen l

52 ividual cells by focussing a sublethal laser microbeam onto them.

53 tunable titanium-sapphire (700-990 nm) laser microbeam optical traps.

54 In those studies, a laser microbeam or ototoxic antibiotics were used to damage th

55 ments were suspended between the tips of two microbeams oriented perpendicular to the filament axis:

56 Reactive gliosis was evident in the microbeam path of rats irradiated with 150 Gy, whereas n

57 ing mechanisms by which optical tweezers and microbeams perturb metabolic function and cellular viabi

58 2+ and K+, we used a quantitative technique, microbeam proton-induced X-ray emission, to measure Ca2+

59 Using laser microbeam pulse durations of 180-1100 ps and pulse energ

60 Reductions in both the threshold laser microbeam pulse energy for plasma formation and the cavi

61 Pulsed laser microbeam radiation at lambda = 532 nm was delivered to

62 Microbeam radiation therapy (MRT) using high doses of sy

63 Microbeam radiation therapy is a novel preclinical techn

64 nchrotron X-ray broad beam and a multiplanar microbeam radiotherapy beam.

65 the X-ray dose, the XEOL-XANES data from the microbeam showed significant dose-dependent changes to t

66 ions in an ensemble of scanning transmission microbeam small-angle X-ray scattering (muSAXS) patterns

67 sophisticated targeting strategy, involving microbeams smaller than the crystal, and translations of

68 Using the recently available microbeam source at the Radiological Research Accelerato

69 exposed transaxially to four 400-Gy, 0.68-mm microbeams, spaced 4 mm, and all four rats irradiated to

70 asma mass spectrometric (ICPMS) analyses and microbeam synchrotron X-ray fluororescence (mu-SXRF) map

71 ine Blue for laser microdissection with PALM microbeam systems.

72 ise to the germ line are killed with a laser microbeam, the lifespan of the animal is extended.

73 irradiated with helium ions from a particle microbeam, the yield of micronuclei (MN) in the nontarge

74 et microtubule-based structures with a laser microbeam through the use of enhanced yellow fluorescent

75 We therefore used a laser microbeam to create DNA damage at discrete sites in the

76 By using a laser microbeam to cut just the lateral projections of the AP

77 We have used a laser microbeam to damage the postsynaptic fibers at individua

78 We used a laser microbeam to either sever a univalent along the plane of

79 excitation with a near-infrared (NIR) laser microbeam to investigate activation of channelrhodopsin

80 this model was directly tested by using a UV microbeam to sever axoneme-nucleated microtubules and th

81 We have used a laser microbeam to sever the connection between the motile cen

82 it is the first report applying a soft X-ray microbeam to study the radiobiological effects of GNPs t

83 In this paper, we used a precision microbeam to target an exact fraction (either 100% or <

84 Gamma-H2AX analysis allowed microbeams to be traced and DNA damage foci to be quanti

85 sed focused, polychromatic synchrotron X-ray microbeams to penetrate multilayer materials and simulta

86 ue that uses polychromatic synchrotron X-ray microbeams to probe local crystal structure, orientation

87 suggest potential application of interlaced microbeams to treat tumors or to ablate nontumorous abno

88 A charged-particle microbeam was used, allowing irradiation of cells in def

89 Using a laser microbeam, we ablated single cells from both o and p bla

90 nction of power of the two-photon excitation microbeam, we determined the activation potential of the

91 ing the Columbia University charged particle microbeam, we found that mitochondrial DNA-depleted huma

92 Using a precision charged particle microbeam, we show here that irradiation of 20% of rando

93 also ablated single blast cells with a laser microbeam, which allowed us to assess potential signals

94 estigated by using a high-LET heavy particle microbeam, which allows selected cells to be individuall

95 ngle alpha particles uses a charged-particle microbeam, which irradiates individual cells or cell nuc

96 emonstrated by the use of the two-photon NIR microbeam, which was not possible using single-photon ac

97 tron emission spectromicroscopy (X-PEEM) and microbeam X-ray diffraction (muXRD).

98 dard samples measured with tabletop confocal microbeam X-ray fluorescence setup and by comparing the

99 The confocal microbeam X-ray fluorescence technique is a well-establi

100 from an original combination of synchrotron microbeam X-ray fluorescence, absorption spectroscopy, a

101 of transition metal dichalcogenides by using microbeam X-ray photoelectron spectroscopy and scanning

102 As well as charged particle microbeams, X-ray microprobes have been developed, and s