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Fluoview fv10 asw 4.0 viewer software

Manufactured by Olympus
Sourced in Japan, Switzerland

The FluoView FV10-ASW 4.0 Viewer Software is a digital imaging software designed for use with Olympus confocal microscopes. The software provides tools for capturing, processing, and analyzing fluorescence images acquired from the microscope system.

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5 protocols using fluoview fv10 asw 4.0 viewer software

1

Subcellular Localization and BiFC Imaging in Plants

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For BiFC and subcellular localization assays performed in N. benthamiana leaves and maize protoplasts, fluorescence signals were examined using an Olympus FluoView 1000 confocal microscope (Olympus, Tokyo, Japan) equipped with Olympus FluoView software FV10-ASW 4.0 Viewer. The GFP and RFP fluorescence were captured in the EGFP and RFP channels, respectively. Because of the weak expression of P8 in plant cells, the images of BiFC and the subcellular localization of P8 were captured at 96 h post agroinfiltration of the N. benthamiana leaves. For subcellular localization assays in N. benthamiana, the GFP and RFP fluorescence signals were excited at wavelength of 488 nm and 543 nm, respectively, with laser intensity of 47%. For the protein expression in maize protoplasts, the fluorescence signals were visualized at 20 h post transformation. All the images were processed using Adobe Photoshop software. At least two independent experiments were performed.
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2

Microscopy Image Analysis Workflow

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Two-photon and confocal images are presented as maximum intensity projections of the imaged z-stack. Projections were made using Imaris (Bitplane, Switzerland) or Olympus Fluoview software (FV10-ASW 4.0 Viewer). Adobe Photoshop was used to adjust for brightness and contrast. Image analysis (cell counts, cell migration tracking, 4D analysis, and movies) was done using Imaris. Image J was used to align time points and correct for occasional drift that occurred during imaging using the Linear Stack Alignment with SIFT plugin (Lowe, 2004 (link)). Graphpad Prism was used for graphs and statistical analysis; statistical significance from cell counts was determined using Welch's t-test. All results are reported as mean ± standard error.
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3

Visualizing MsSPL26 and MsSPL13 Localization

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The coding region of MsSPL26 without termination codons was amplified and inserted into the NcoI/BglII sites of the pCAMBIA1302 vector, resulting in the MsSPL26-GFP fusion construct. The MsSPL13-GFP and MsSPL26-GFP constructs were transformed into A. tumefaciens strain GV3101 and transiently expressed in N. benthamiana leaves. The fluorescence signal was detected after 2 d of incubation using an Olympus FluoView 3000 confocal microscope equipped with Olympus FluoView FV10-ASW 4.0 Viewer Software. As for visualizing the nucleus, 30 μM DAPI was used to stain the nucleus of the epidermal cells in N. benthamiana leaves for 10 min at 37 °C. GFP was excited at 488 nm and the emitted signal was captured at 500 to 540 nm. DAPI was excited at 408 nm and the emitted signal was captured at 425 to 475 nm. Images were captured using 5% of the maximum light intensity value and gain of 600 to 650.
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4

Cloning and Visualization of PavDof2/6/15 and PavARF8

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The CDS of PavDof2/6/15 and PavARF8 containing BglII/SpeI restriction sites were amplified and cloned into the pCAMBIA1302 vector, which enabled PavDof2/6/15 and PavARF8 to be fused with GFP. Transformation was carried out as previously described (Liu et al., 2010 (link)). Fluorescence signals were observed and captured using an Olympus FluoView 3000 confocal microscope equipped with Olympus FluoView FV10-ASW 4.0 Viewer Software. GFP was excited at 488 nm and the emitted signal was captured at 500–540 nm. Images were captured using 5% of the maximum light intensity value and gain of 600–650.
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5

Subcellular Localization of Grapevine MYB Transcription Factors

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The full-length coding sequences of VvMYB20, VvMYB58, VvMYB100, VvMYB170, VvMYB191, VvMYB205, VvMYB251, VvMYB258, and VvMYB263 without a stop codon were amplified from the cDNA obtained from “Crimson seedless” grapevine berries using gene-specific primers. The fragments were identified by sequencing and fused to the green fluorescent protein (GFP) under the control of the double CaMV35S promoter in the modified plant expression vector pCam35s-GFP to produce pVvMYB20-GFP, pVvMYB58-GFP, pVvMYB100-GFP, pVvMYB170-GFP, pVvMYB191-GFP, pVvMYB205-GFP, pVvMYB251-GFP, pVvMYB258-GFP, and pVvMYB263-GFP plasmids, respectively. All recombinant plasmids were independently transferred into the agrobacterium strain GV3101 and infiltrated in N. benthamiana leaves as described in a previous work [35 (link)]. Fluorescence signals in the cells were visualized 72 h post-agroinfiltration using an Olympus FluoView 3000 confocal microscope equipped with an Olympus FluoView FV10-ASW 4.0 Viewer Software. Fluorescence images were captured at an excitation wavelength of 488 nm.
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