ライフサイエンスコーパス: intravital imaging

1 o and in vivo as shown by flow cytometry and intravital imaging.

2 t membrane (3D rBM) cultures, and mice using intravital imaging.

3 With the advance of intravital imaging, a number of recent papers revealed a

4 Intravital imaging and 3D immunofluorescence reconstruct

5 Using intravital imaging and fluorescence molecular tomography

6 or naive CD4(+) and CD8(+) T cells, then use intravital imaging and mathematical modeling to relate c

7 pulation of tumor cells by multiphoton-based intravital imaging and microarray-based expression profi

8 nitors into immunodeficient mice, we used an intravital imaging approach to follow cartilage maturati

9 Using advanced intravital imaging approaches and newly created reporter

10 in vivo in the primary tumor measured using intravital imaging are significantly increased by ErbB1

11 oncept of virological synapses and introduce intravital imaging as a tool to visualize retroviral spr

12 study, we track individual myeloma cells by intravital imaging as they colonize the endosteal niche,

13 Intravital imaging, coupled with mechanistic studies in

14 ost-pathogen interactions in zebrafish using intravital imaging, Davis and Ramakrishnan provide evide

15 than single-photon excitation, has extended intravital imaging deeper into tissues, with minimal pho

16 Intravital imaging demonstrated a transendothelial migra

17 Intravital imaging demonstrated MA cargo distributed bot

18 ic parasites combined with reporter mice and intravital imaging demonstrated that replication in and

19 Therefore, intravital imaging demonstrates that local myelin recogn

20 Intravital imaging emerged as an indispensible tool in b

21 Intravital imaging enables to study dynamic tumour-strom

22 Intravital imaging experiments further revealed steady-s

23 Using 3D, time-lapse intravital imaging for direct visualization of the muscl

24 These findings stress the need for intravital imaging for dissecting the fine mechanisms of

25 Here we used a combination of confocal intravital imaging, genetically engineered mice, and ant

26 Intravital imaging has started to uncover tumor-related

27 perties were evaluated using high-resolution intravital imaging, histology, whole-pancreas visualizat

28 Using intravital imaging in an antigen-loss CD19-negative rela

29 ose tissue, as demonstrated by single-photon intravital imaging in mice.

30 Intravital imaging in tumor-bearing mice revealed that s

31 More recently, the introduction of intravital imaging into the GC field has opened the door

32 Although intravital imaging is a powerful tool for understanding

33 Intravital imaging is an invaluable tool for understandi

34 this revolution possible and demonstrate how intravital imaging is beginning to provide quantitative

35 al environment, and to extend the utility of intravital imaging methods for estimating the mechanical

36 and plug-in by presenting data collected via intravital imaging of a mouse model of breast cancer.

37 e developed a unique mouse model that allows intravital imaging of autonomous lymphatic vessel contra

38 Intravital imaging of BRAF-mutant melanoma cells contain

39 Intravital imaging of cancer stem cells could be of grea

40 s in shaping cell-mediated immunity by using intravital imaging of CD4(+) T cell interactions with de

41 7BL/6 background provide a valuable tool for intravital imaging of corneal lymphatic vessels and valv

42 Intravital imaging of CXCR4-expressing MCF-7 cells revea

43 Real-time intravital imaging of CXCR6(GFP/+) mouse skin reveals de

44 Super-resolution and intravital imaging of developing Drosophila melanogaster

45 Intravital imaging of exteriorized livers was performed

46 Intravital imaging of fluorescently labeled amphiphilic-

47 Our approach combines intravital imaging of growth cone dynamics in developing

48 platelet aggregometry, bleeding assays, and intravital imaging of laser-induced arterial thrombus fo

49 cells using the novel approach of continuous intravital imaging of Lgr5- Confetti mice.

50 Intravital imaging of lymph nodes revealed that all thre

51 A model system that allows long-term intravital imaging of lymph nodes would facilitate the s

52 erized, we developed a facile method for the intravital imaging of mammary cells in transgenic mice t

53 e, using retrospective study of patients and intravital imaging of mice, we identify some of these ne

54 Intravital imaging of mouse LNs revealed persistent, but

55 Intravital imaging of nanoparticle extravasation and tum

56 Intravital imaging of post-ischemic kidneys revealed red

57 In this study, we used intravital imaging of reactive lymph nodes (LNs) to show

58 Quantification of reporter mRNA and intravital imaging of reporter expression in the outer s

59 Here we use intravital imaging of signalling reporter cell-lines com

60 Furthermore, using intravital imaging of solid tumors, we showed that Ab re

61 n combined with two-photon laser microscopy, intravital imaging of surgically exposed lymph nodes pro

62 Intravital imaging of the bone marrow showed that CP tre

63 n imaging approach called LIMB (longitudinal intravital imaging of the bone marrow) to analyze cellul

64 at the site of inflammation in the CNS using intravital imaging of the brainstem of EAE-affected livi

65 ndow (CLNW) surgical preparation that allows intravital imaging of the inguinal lymph node in mice.

66 s review, we examine the approaches used for intravital imaging of the kidney and summarize the insig

67 Intravital imaging of the liver in mice confirmed that t

68 Stable, high-resolution intravital imaging of the lung has become possible throu

69 ently implantable window for high-resolution intravital imaging of the murine lung that allows the mo

70 se, and subsequently allows for longitudinal intravital imaging of the murine lymph node and surround

71 cells moving in live rats were generated by intravital imaging of the primary tumor in situ on a las

72 In this study, using time-lapse intravital imaging of the spleen, we identify a tropism

73 Standard fluorophores hamper simultaneous intravital imaging of these components.

74 ersion properties that allow high-resolution intravital imaging of vascular endothelium for periods o

75 etastases or micrometastases are detected by intravital imaging or fluorescence microscopy.

76 g techniques is the current lack of suitable intravital imaging probes.

77 Intravital imaging revealed a failure of the mutant neut

78 Intravital imaging revealed heterogeneous cell behaviour

79 Intravital imaging revealed immune complexes moving alon

80 The use of intravital imaging revealed that activated CD4(+) T cell

81 Intravital imaging revealed that within the inguinal lym

82 Intravital imaging reveals that vessel growth in murine

83 s of multiphoton microscopy to thick-tissue "intravital" imaging, second-harmonic generation (SHG) fr

84 he same tumor microenvironment over multiple intravital imaging sessions in living mice.

85 Intravital imaging shows that CCT129254 or AT13148 treat

86 Intravital imaging shows that macrophages and tumor cell

87 The intravital imaging studies using a chronic calvarial bon

88 However, intravital imaging suggests that early B-cell recognitio

89 Here we report the development of a new intravital imaging system for studying LC efflux and inf

90 Advances in live tissue and intravital imaging technologies combined with the abilit

91 ting ways stem cells are being visualized by intravital imaging, the intriguing discoveries that have

92 provides access to the mouse cerebellum for intravital imaging, thereby allowing for a detailed char

93 Here we use intravital imaging to demonstrate that secretion of exos

94 Here we have used intravital imaging to demonstrate that transfer of arthr

95 we use in vivo B cell competition models and intravital imaging to examine the adhesive mechanisms go

96 y and transcriptomics, must be combined with intravital imaging to fully understand a cell's phenotyp

97 FP-ki mice and performed single, nonterminal intravital imaging to investigate BSCB permeability simu

98 Here, we used microfabricated channels and intravital imaging to observe and manipulate T-cell kina

99 We used two-photon intravital imaging to show that, after exiting high-endo

100 presents a new discovery effort that employs intravital imaging to study immune players directly in t

101 Here we use intravital imaging to track the fate of mouse skin epith

102 We used intravital imaging to visualize the behavior of human CL

103 Intravital imaging was used for quantification of growth

104 Using intravital imaging, we established that, upon anti-CD20

105 y multiple approaches, including multiphoton intravital imaging, we found that antigen capture by sin

106 Using intravital imaging, we found that selection is mediated

107 Using mouse models and multiphoton intravital imaging, we have identified a crucial effect

108 Using intravital imaging, we show that knockout of Ccn1 in end

109 Here, using two-photon intravital imaging, we show that SAP deficiency selectiv

110 in vivo invasion assay and multiphoton-based intravital imaging, we show that the interaction between

111 By intravital imaging, we show that the less malignant tumo

112 The combination of functional analysis by intravital imaging with cellular characterization has re

113 Intravital imaging with surgical exposure of the lymph n