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Lsm 780 microscope

Manufactured by Zeiss
Sourced in Germany, United States, United Kingdom

The LSM 780 is a high-performance confocal laser scanning microscope developed by Zeiss. It is designed for advanced imaging applications in life science research. The LSM 780 provides high-resolution, multicolor imaging capabilities with a range of configurable options to meet the specific needs of users.

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348 protocols using lsm 780 microscope

1

Multifaceted Characterization of Nanoparticles

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SEM images were processed usinga FEI NanoSEM 450 scanning electron microscope at 15 kV. EDX were acquired using same system which is supplied with EDAX® AMETEK® (material analysis division). TEM images were collected on a JEOL-JEM 1400 operating at 120 kV using Gatan camera with Digital Micrograph Imaging software. Samples were prepared by depositing 1 μl of the nanoparticles dispersed onto 400 mesh Formvar/Carbon-supported copper grid. X-ray diffraction (XRD) patterns were recorded using Bruker D8 Diffractometer using Cu Kα radiation operated at 40 kV and 2 Ɵ scan range from 20° to 70°. FTIR spectra (400–4000 cm−1) were recorded as KBr pellets using Shimadzu IRAffinity-1. DLS and zeta potential measurements were assessed on Malvern Zetasizer Nano ZS instrument. Calcinations were carried out either under flowing air or under argon. The following heating profile was used for APMS calcination: 2 °C/min ramp to 450 °C, 240 min hold at 450 °C, 10 °C/min ramp to 550 °C, 480 min hold at 550 °C. Confocal images were visualized using inverted Zeiss LSM 780 multiphoton laser scanning confocal microscope equipped with 20× and 40× (oil immersion) objectives and Axiocam cameras. Z-stack images of tissue sections were acquired using above mentioned Zeiss LSM780 microscope.
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2

Membrane-protein interaction studies

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All experiments were performed at room temperature (RT). Experimental buffer was Hepes 10 mM, pH = 7.4, KCl 150 mM, EDTA 2 mM except for QCM-D binding experiments. All images were acquired with a Zeiss LSM 780 microscope (Carl Zeiss, Inc.) using a 63x NA 1.4 oil objective and quantified using Image J software (NIH, MD, USA). Detailed materials, methods for model membranes (LUV, GUV, SLB) preparation and for protein purification are in SI.
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3

Quantifying DNA Damage Response in HeLa Cells

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WT HeLa Kyoto cells were seeded into an 8-well Lab-Tek (Thermo Scientific) and grown for 16 h. Then, different concentrations of 4sT (2mM-10mM; Carbosynth) and 50 μM etoposide (Sigma) were added and cells were incubated for 24 h. For immunofluorescence (IF), cells were washed two times with PBS and fixed using 4 % formaldehyde (Sigma) in PBS for 5 min. formaldehyde was quenched using 20 mM TRIS-HCl (Sigma; adjusted to pH 7.5) in PBS for 3 min and washed with PBS. Cells were permeabilized using 0.5 % Triton-X100 (Sigma) in PBS for 10 min. Then, cells were blocked using 2 % BSA in PBS for 30 min at RT, followed by incubation with 1:500 α-phospho-γ-H2A.X (ABCAM ab2893) in 2 % BSA [PBS] for 1.5 h at RT. Then, cells were washed 3x for 5 min using PBS, followed by incubation with 1:1000 α-mouse-AF488 (Molecular Probes A11001) in 2 % BSA [PBS] for 30 min at RT in the dark. Then, cells were washed one time using PBS for 5 min, followed by staining using 1 μg/ml 4,6-diamidino-2-phenylindole (DAPI; Thermo Scientific) for 5 min. Then, cells were washed again for 5 min in PBS. Samples were imaged on a customized Zeiss LSM780 microscope using a 20x, 0.8 NA, Oil DIC Plan-Apochromat objective (Zeiss). Images were analyzed using CellCognitionExplorer 1.0.252 (link) for segmentation and intensity extraction and Python scripts to visualize the data.
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4

Confocal Microscopy for Live-Cell Imaging

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Confocal laser scanning microscopy was performed on a Zeiss LSM780 microscope using a 40 × 1.4 NA Oil DIC Plan-Apochromat objective (Carl Zeiss, Jena, Germany) or a Zeiss LSM710 microscope, using 63 × 1.4 NA Oil DIC Plan-Apochromat objective (Carl Zeiss), both controlled by ZEN 2011 software. Fast time-lapse imaging was performed on a spinning-disk confocal microscope (UltraView VoX, Pelkin Elmer, Waltham, MA) with a 100 × 1.45 NA alpha Plan-Fluar objective (Carl Zeiss), controlled by Volocity 6.3 software (Perkin Elmer, Waltham, MA). All three microscopes were equipped with an incubation chamber (European Molecular Biology Laboratory (EMBL), Heidelberg, Germany), providing a humidified atmosphere at 37°C with 5% CO2.
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5

Quantifying DNA Damage Response in HeLa Cells

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WT HeLa Kyoto cells were seeded into an 8-well Lab-Tek (Thermo Scientific) and grown for 16 h. Then, different concentrations of 4sT (2mM-10mM; Carbosynth) and 50 μM etoposide (Sigma) were added and cells were incubated for 24 h. For immunofluorescence (IF), cells were washed two times with PBS and fixed using 4 % formaldehyde (Sigma) in PBS for 5 min. formaldehyde was quenched using 20 mM TRIS-HCl (Sigma; adjusted to pH 7.5) in PBS for 3 min and washed with PBS. Cells were permeabilized using 0.5 % Triton-X100 (Sigma) in PBS for 10 min. Then, cells were blocked using 2 % BSA in PBS for 30 min at RT, followed by incubation with 1:500 α-phospho-γ-H2A.X (ABCAM ab2893) in 2 % BSA [PBS] for 1.5 h at RT. Then, cells were washed 3x for 5 min using PBS, followed by incubation with 1:1000 α-mouse-AF488 (Molecular Probes A11001) in 2 % BSA [PBS] for 30 min at RT in the dark. Then, cells were washed one time using PBS for 5 min, followed by staining using 1 μg/ml 4,6-diamidino-2-phenylindole (DAPI; Thermo Scientific) for 5 min. Then, cells were washed again for 5 min in PBS. Samples were imaged on a customized Zeiss LSM780 microscope using a 20x, 0.8 NA, Oil DIC Plan-Apochromat objective (Zeiss). Images were analyzed using CellCognitionExplorer 1.0.252 (link) for segmentation and intensity extraction and Python scripts to visualize the data.
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6

Confocal Microscopy of Callose Staining

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Confocal laser-scanning microscopy of ABF-stained callose followed the description in Ellinger et al.8 (link). The Zeiss LSM 780 microscope (Carl Zeiss MicroImaging GmbH, Jena, Germany) was used. S4B was excited at 561 nm by using an optically pumped semiconductor laser (Coherent Inc.). Emission filtering was achieved using a 568 – 595-nm bandpass filter. Emission signals were gathered by a gallium-arsenite-phosphid nondescanned photodetector (Zeiss GmbH). Image processing, including maximum intensity 3D reconstruction, surface rendering, and video generation, was performed with integral functions of the ZEN 2010 (Zeiss GmbH) operating software.
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7

Lipid Droplet Imaging in McArdle Cells

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McArdle cells were plated on 35-mm glass bottom dishes (Ibidi GmbH München, Germany) in DMEM supplemented with FBS (20%) and oleate (0.4 mM) 16 h prior to siRNA transfection. Live cell images were acquired 24 hr after transfection using a Zeiss LSM 780 microscope (Carl Zeiss) equipped with a stage heated to 37°C in a chamber containing 5 % CO2 (v/v)/95 % (v/v) air. Images were captured at the frame-rate of 30 frame/sec using a 60X.1.4 objective and numerical aperture with the laser selected to the dye specificity.
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8

Fluorescence Microscopy of Transfected Cells

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HCC 1954 cells were seeded in 8-well chamber slides at a density of 25,000 cells per well (Permanox Slide, Nunc, Thermo Fisher Scientific) and allowed to grow for 24 h at 37 °C in 5% CO2. Polyethylenimine (PEI), Lipofectamine (LF), or Tf–PEI polyplexes made with Tye563-labeled siRNA (Ex/Em: 543/563 nm) were used to transfect cells as described earlier. Subsequently, the cells were washed with PBS and fixed using 3% paraformaldehyde (Affymetrix, Cleveland, OH, USA) for 30 min, followed by nuclei staining with DAPI (Ex/Em: 405/470 nm). Finally, the cells were embedded using Fluorsave reagent (Calbiochem, Merck, Darmstadt, Germany) and covered with a coverslip. The images were recorded with a Zeiss LSM 780 microscope (Zeiss, Oberkochen, Germany). Representative pictures are shown in Figure 9 (100× magnification).
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9

Pyramidal Neuron Dendritic Spine Imaging

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Higher-order apical dendrites of TdTomato-positive pyramidal neurons in the piriform cortex were imaged in z-series at 63x magnification with 3x digital zoom using a Zeiss LSM 780 microscope (Carl Zeiss, Oberkochen, Germany) with the experimenter blinded to genotype and treatment. Pyramidal neurons were selected for imaging based on the following criteria: (1 (link)) adequate brightness and isolation to allow for clear reconstruction of spine density and morphology, (2 (link)) clear attachment of dendrite to cell body to allow for unambiguous identification of branch order (i.e., we did not image “floating” branches in which cell bodies were in another plane or different section), and (3 (link)) close proximity to the coverslip to allow for capture of all branches in the z-dimension. We imaged 44 dendrites from 4 brains for Bdnf-e1 −/− ECS, 35 dendrites from 4 brains for Bdnf-e1 −/− Sham, 52 dendrites from 4 brains for Bdnf-e1 −/+ ECS, and 58 dendrites from 4 brains for Bdnf-e1 −/+ Sham. Each dendrite was imaged from a different neuron.
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10

Quantifying Calvaria Cell Morphology

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Calvaria were harvested in triplicate at 72 hours after transplant, placed in PBS, and immediately imaged using a 40× 1.1 NA LD C-Apochromat water immersion objective on a Zeiss LSM 780 microscope (Carl Zeiss Microscopy). Internal detectors were used, and the GFP signal was spectrally unmixed from the td-Tomato signal. Excitation was with a Coherent Chameleon Ti:Sapphire laser tuned to 900 nm. Three 200 × 200 micron fields of view within bone marrow cavities were analyzed per calvarium. Bone marrow cavities were identified by the absence of a second harmonic signal from the surrounding bone. For enumeration of round versus spindle-like cells, the investigator was blinded to the treatment group of calvarial images.
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