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Zen 2011 sp3

Manufactured by Zeiss

The ZEN 2011 SP3 is a software suite developed by Zeiss for the acquisition, processing, and analysis of microscopy data. It provides a comprehensive platform for managing and visualizing images, performing advanced image analysis, and integrating with various imaging hardware systems.

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5 protocols using zen 2011 sp3

1

Fluorescent Labeling of Pollen Aggregates

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The pollen aggregates collected in PBS was soaked in PBS containing FluoSphere Carboxylate-Modified Microspheres, 0.5 µm, red fluorescent (580/605) (#F8812, ThermoFisher) and/or WGA-CF488A (Biotium) in a well of µ-Plate 96 Well Black plate (#89626, ibidi, Germany). The fluorescence was observed under the LSM 700 confocal microscope (Zeiss) using ZEN2011 SP3 software (Zeiss).
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2

RBC Spectral Emission Analysis

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RBCs were washed once in phosphate-buffered saline (PBS) and analyzed in LabTek chamber slides (Sigma Aldrich) using a LSM780 (Zeiss) confocal microscope equipped with a spectral detector. Cells were excited with a 405-nm laser beam, and the emission spectrum was recorded within the 450-to 700-nm range. Analysis of spectra was performed using linear unmixing software provided by Zeiss (Zen 2011 sp3 software with the spectral detector GaAsP). A representative spectrum was given a distinct color code: red for the 630-nm maximum emission spectra and green for the 515-nm maximum emission spectra.
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3

Confocal Microscopy Imaging Protocol

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For imaging, the Confocal Laser Scanning Microscopes LSM700 and LSM710 from Zeiss were used and gratefully provided by the microscopy core facility of SCI-TReCS (Spinal Cord Injury and Tissue Regeneration Center Salzburg). Images were taken with the ZEN 2011 SP3 or SP7 (black edition) software (all from Zeiss). Quantitative analysis was done using × 20 magnification with 0.5 or 0.6 zoom, and for qualitative analysis, images were taken in × 20, × 40, or × 63 oil magnification. Images were taken as confocal z-stacks and combined to merged maximum intensity projections. For 3D reconstruction, images were processed at the LSM 710 using the Zen 2011 SP7 (black edition) software.
All images were edited and processed with the ZEN 2012 (blue edition) software (version 1.1.2.0) and Microsoft PowerPoint.
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4

Confocal Microscopy of Spinal Cord

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For imaging the Confocal Laser Scanning Microscopes LSM700 and LSM710 from Zeiss were used and gratefully provided by the microscopy core facility of SCI-TReCS (Spinal Cord Injury and Tissue Regeneration Center Salzburg). Images were taken with the ZEN 2011 SP3 or SP7 (black edition) software (Zeiss). Images were taken as confocal z-stacks using 20x, 40x, 63x oil magnification with 0.5 or 0.6 zoom and combined to merged maximum intensity projections. For qualitative analysis 2–3 animals per group were immunohistologically stained and analyzed. For quantitative analysis 5 animals per group were stained and analyzed. All images were edited and processed with the ZEN 2012 (blue edition) software (version 1.1.2.0) and Microsoft PowerPoint. 3D Render was performed using Imaris Software (version 9.1.2, Bitplane).
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5

Localization of LjCSyGT Fusion Proteins

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LjCSyGT stop-less cDNA was cloned into pDONR™221 using the primer pairs, 23 and 24’. LjCSyGT cDNAs were transferred from pDONR entry clones to the pK7WGR2 or pK7RWG253 (link) vector through an LR clonase reaction, generating plasmids no. 22 and 23. Hairy roots transformed with RFP-LjCSyGT and LjCSyGT-RFP were generated using Agrobacterium rhizogenes AR1193, as described52 . The plasmids ER-gk and G-gk were used as ER system and Golgi apparatus markers, respectively54 (link). The localisation of RFP-LjCSyGT or LjCSyGT-RFP was examined with a confocal microscope (LSM710, Carl Zeiss) using an EC Plan-Neofluar objective lens. RFP fluorescence was excited at 543 nm and emission was detected at 548–680 nm. GFP fluorescence was excited at 488 nm and emission was detected at 493–538 nm. Microscopic images were taken with LSM710 (Carl Zeiss) and ZEN2011 SP3 (Carl Zeiss) and analysed with ZEN2.3 SP1 (Carl Zeiss).
Hairy roots of mutant lines transformed with either RFP-LjCSyGT or LjCSyGT-RFP were harvested and extracted as described previously for LC–MS analysis. Two individual transformants with the same construct were combined to obtain sufficient sample.
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