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Intestine section with prominently stained epithelial cells comprising the intestinal villi. Confocal microscopy

Intestine section with prominently stained epithelial cells comprising the intestinal villi. Confocal microscopy

Confocal microscopy of plant tissues    (Microscope slide from Jim: www.flickr.com/photos/haseloff/ )

Confocal microscopy of plant tissues (Microscope slide from Jim: www.flickr.com/photos/haseloff/ )

Reflectance Confocal Microscopy for Skin Diseases

Reflectance Confocal Microscopy for Skin Diseases (Paperback)

Reflectance Confocal Microscopy for Skin Diseases

Marvel at 2013's best microscopic photography

Marvel at 2013's best microscopic photography

Kieran Boyle, University of Glasgow, Institute of Neuroscience and Psychology, Scotland Subject: Hippocampal neuron receiving excitatory contacts Technique: Fluorescence and Confocal Magnification:

Fernan Federici, Confocal microscopy of plants (specimen microsection from Jim Haseloff's colllection).

Fernan Federici, Confocal microscopy of plants (specimen microsection from Jim Haseloff's colllection).

Rat cerebellum showing Purkinje neurons (green), glia cells (red), and cell nuclei (purple). Confocal microscopy.

Rat cerebellum showing Purkinje neurons (green), glia cells (red), and cell nuclei (purple). Confocal microscopy.

Confocal microscopy captures every cell mitosis, migration and death in the eye of a living zebrafish embryo (green: nuclei, red: cell membrane).    FRASER

Confocal microscopy captures every cell mitosis, migration and death in the eye of a living zebrafish embryo (green: nuclei, red: cell membrane). FRASER

Two Photon Confocal Microscopy: What it is and How to Use it to Your Advantage

Two Photon Confocal Microscopy: What it is and How to Use it to Your Advantage

Quadruple fluorescence image of the mouse retina, showing optic nerve axons and glia stained red and green, respectively, actin in endothelial cells of the blood vessel walls stained blue and nucleic acids stained orange.

Quadruple fluorescence image of the mouse retina, showing optic nerve axons and glia stained red and green, respectively, actin in endothelial cells of the blood vessel walls stained blue and nucleic acids stained orange.

Cancer Drug Resistance | i3S CAPTION: The intercellular transfer of Pgp from drug resistant to drug sensitive cells may be mediated by extracellular vesicles.  This confocal microscopy image shows expression of Pgp in non-Pgp expressing drug sensitive cells following co-culture with extracellular vesicles from drug resistant (Pgp-overexpressing) cells. Nuclei are labelled in blue (with DAPI), plasma membrane and Golgi are stained in red (with WGA) and Pgp is detected in green (with FITC).

Cancer Drug Resistance | i3S CAPTION: The intercellular transfer of Pgp from drug resistant to drug sensitive cells may be mediated by extracellular vesicles. This confocal microscopy image shows expression of Pgp in non-Pgp expressing drug sensitive cells following co-culture with extracellular vesicles from drug resistant (Pgp-overexpressing) cells. Nuclei are labelled in blue (with DAPI), plasma membrane and Golgi are stained in red (with WGA) and Pgp is detected in green (with FITC).

Human fibroblast cells showing cell nuclei (red) and actin protein filaments which make up part of the cytoskeleton (green). Confocal microscopy

Human fibroblast cells showing cell nuclei (red) and actin protein filaments which make up part of the cytoskeleton (green). Confocal microscopy

Human fibroblast cells showing cell nuclei (red) and actin protein filaments which make up part of the cytoskeleton (green). Confocal microscopy

Human fibroblast cells showing cell nuclei (red) and actin protein filaments which make up part of the cytoskeleton (green). Confocal microscopy