
Rat cortical neurons in tissue culture stained with NF-H antibody (red) and GFAP antibody (green). (Via EnCor Biotechnology 2011)

Rat glial cells in mixed cerebral cortex cultures stained with chicken antibody to Vimentin(green) and counterstained with rabbit antibody to GFAP (red). Hoechst dye reveals nuclear DNA in blue.

Activated microglia, astrocyte, and pyramidal neuron in rat hippocampal slice culture. (via Michael Dailey Image Gallery)

Protoplasmic astrocytes (via Cell Centered Database)
![Rat retina astrocytes and blood vessels [source]](http://25.media.tumblr.com/tumblr_lixzhtM1sH1qa6reco1_500.jpg)
Rat retina astrocytes and blood vessels [source]
![Confocal Image of rat cerebral cortex labeled to highlight blood vessels (red), astrocytes (yellow), and cell nuclei (cyan).
[source]](http://24.media.tumblr.com/tumblr_lez9vpCK5P1qa6reco1_500.jpg)
Confocal Image of rat cerebral cortex labeled to highlight blood vessels (red), astrocytes (yellow), and cell nuclei (cyan).
[source]
![Sagittal section of rat brain immunofluorescently labeled for phosphorylated neurofilaments (expressed in neurons).
In addition, glial fibrillary acidic protein (expressed in various astroglia and neural stem cells) was targeted. Cell nuclei were labeled with nuclear counterstain.
[source]](http://25.media.tumblr.com/tumblr_le70ifvVS11qa6reco1_500.jpg)
Sagittal section of rat brain immunofluorescently labeled for phosphorylated neurofilaments (expressed in neurons).
In addition, glial fibrillary acidic protein (expressed in various astroglia and neural stem cells) was targeted. Cell nuclei were labeled with nuclear counterstain.
[source]
![2-Photon fluorescence image of glial cells in the cerebellum (400X)
[source]](http://25.media.tumblr.com/tumblr_laa87j0k301qa6reco1_500.jpg)
2-Photon fluorescence image of glial cells in the cerebellum (400X)
[source]
![Nerve cells and glial cells, coloured scanning electron micrograph (SEM). The nerve cells have small cell bodies (yellow) and fine extensions called axons and dendrites (pale green). The glial cells have large cell bodies (darker green) with thicker extensions (pale green). [source]](http://25.media.tumblr.com/tumblr_l7ritmuPe71qa6reco1_400.jpg)
Nerve cells and glial cells, coloured scanning electron micrograph (SEM). The nerve cells have small cell bodies (yellow) and fine extensions called axons and dendrites (pale green). The glial cells have large cell bodies (darker green) with thicker extensions (pale green). [source]
![Astrocytes (red) and oligodendrocytes (green) dervied from mouse neural stem cells in culture. Both these cells are types of neuroglia and are important for correct brain function. [source]](http://25.media.tumblr.com/tumblr_l7ke0tQQhG1qa6reco1_500.jpg)
Astrocytes (red) and oligodendrocytes (green) dervied from mouse neural stem cells in culture. Both these cells are types of neuroglia and are important for correct brain function. [source]
![neurolove:
This is a cultured motor neuron (red) with a bunch of astrocytes (green) that appeared on the cover of PNAS in 2007. Astrocytes are star-shaped (as you may have guessed from the name) glial cells. Glial cells are the support cells of the brain, and their function isn’t completely understood yet- they may be even more important than the support cell idea gives them credit for. Glial cells maintain homeostasis, form myelin (this is not astrocytes that make up myelin- different glial cells do that), and may even have a critical role in major depression. This role is still under investigation (I’ll talk about what scientists think they might do in a later post because it’s very interesting), but it leads to the critical investigation of what exactly do these glial cells do and how we can understand them better.
[Image Source]](http://25.media.tumblr.com/tumblr_l6dlih1x0N1qb6etto1_500.gif)
This is a cultured motor neuron (red) with a bunch of astrocytes (green) that appeared on the cover of PNAS in 2007. Astrocytes are star-shaped (as you may have guessed from the name) glial cells. Glial cells are the support cells of the brain, and their function isn’t completely understood yet- they may be even more important than the support cell idea gives them credit for. Glial cells maintain homeostasis, form myelin (this is not astrocytes that make up myelin- different glial cells do that), and may even have a critical role in major depression. This role is still under investigation (I’ll talk about what scientists think they might do in a later post because it’s very interesting), but it leads to the critical investigation of what exactly do these glial cells do and how we can understand them better.
[Image Source]


