Nerve Cell Collection (#7)

Immunofluorescent LM of rat brain cells and axons
Cortical brain cells and axons. Immunofluorescent Light Micrograph of rat cortical brain cells and axons growing in culture

Nerve cells, light micrograph
Nerve cells, or neurons, light micrograph. Neurons are responsible for passing information around the central nervous system (CNS) and from the CNS to the rest of the body

Purkinje nerve cell, light micrograph
Purkinje nerve cell. Confocal light micrograph of a purkinje cell (stained with green fluorescent protein), a type of neuron (nerve cell)

Creating new neural pathways, artwork
Creating new neural pathways. Artwork showing the process involved in the formation of new nerve cells (neurogenesis) and neural pathways

Spinal nerve ganglion, light micrograph
Spinal nerve ganglion. Light micrograph of a cross-section through a spinal nerve ganglion. This is a node of nerve cells located just outside the spinal cord at the point where it is joined by

Nerve cell synapses, computer artwork
Nerve cell synapses. Computer artwork of the chemical synapses between two nerve cells, or neurons, (one red and one blue)

Epilepsy. Conceptual computer artwork of a brain during an epileptic seizure. Neurons (nerve cells) are green. Epilepsy is an abnormal chaotic electrical activity in the brain

Synapse, computer artwork
Synapses. Computer artwork of synapses, the junctions between the ends (blue, swollen) of two nerve cells (neurons). Nerve cells are responsible for passing information around the central nervous

Nerve cell injury response
Nerve cell response to brain injury. Fluorescent light micrograph of a section through an injured brain. Glial progenitor cells are green and reactive astrocytes

Astrocyte nerve cells. Light micrograph of astrocyte cells from a human brain. Astrocytes are a type of glial cell. They provide structural support and protection for neurons (nerves cells)

Nerve cell, abstract artwork
Nerve cell. Abstract computer artwork of a nerve cell, or neuron. Neurons are responsible for passing information around the central nervous system (CNS) and from the CNS to the rest of the body

Neurosphere culture. Fluorescent light microscope of a group of neural stem cells (neurosphere) in culture. The stem cells are differentiating into neurons (red) and nerve support cells (green)

Foetal neurons. Light micrograph of human foetal neurons (nerve cells). Neurons are responsible for passing information around the central nervous system (CNS)

Nerve support cell, SEM
Nerve support cell. Coloured scanning electron micrograph (SEM) of an oligodendrocyte cell. This cell forms the myelin sheaths around nerve fibres in the central nervous system (brain and spinal cord)

Nerve cell growth. Fluorescent light micrograph of a PC12 cell following stimulation by nerve growth factor. The cell body contains the nucleus (green)

Cultured nerve cells. Coloured scanning electron micrograph (SEM) of a cultured piece of spinal cord (centre). Each nerve cell (neuron) in the cord has an axon (long thin strand) growing from it

Nerve cell culture, SEM
Nerve cell culture. Coloured scanning electron micrograph (SEM) of new growth from a cultured sample from a spinal cord. The numerous branching strands are neurites

Cerebral cortex nerve cells

Purkinje nerve cell, SEM

Granule nerve cell, SEM
Granule nerve cell. Coloured scanning electron micrograph (SEM) of a granule nerve cell (yellow) from the cerebellum of the brain

Purkinje nerve cell

Purkinje nerve cells, SEM
Purkinje nerve cells. Scanning electron micrograph (SEM) of two Purkinje nerve cells from the cerebellum of the brain. The cells comprise a flask-shaped cell body

Unmyelinated intestinal nerve fibre, TEM
Unmyelinated intestinal nerve fibre. Coloured transmission electron micrograph (TEM) of a section across an nerve fibre from the intestine

Brain and lightning, artwork
Brain and lightning. Computer artwork of a brain, a nerve cell (red) and lightning. This could represent electrical activity, thoughts and ideas, or an epileptic attack

Brain power. Conceptual computer artwork of a Rubiks cube with neurological images on its surfaces. At top is a coloured magnetic resonance imaging (MRI) scan of a section through the head

Artwork showing action of sleeping drugs
Sleeping drug action. Artwork showing the action of various sleeping drugs on a nerve cell. The cell membrane (pink) is shown, along with associated proteins (orange)

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The intricate world of nerve cells, also known as neurons, is a fascinating realm within our bodies. These specialized cells play a crucial role in transmitting information throughout the nervous system. In the cerebellum tissue, under the lens of a light micrograph, we can observe the complex network formed by nerve and glial cells. This interplay between different cell types ensures proper functioning and communication within this region of the brain. Zooming in further with a transmission electron microscope (TEM), we witness the mesmerizing synapse nerve junctions - where two nerve cells meet to exchange vital signals. The intricacy of these connections highlights their importance in relaying messages across our neural pathways. Switching gears to scanning electron microscopy (SEM), we get an up-close look at individual nerve cells themselves. Their elongated structures and branching extensions showcase their ability to transmit electrical impulses efficiently. Moving on to hippocampus brain tissue, another essential area for memory formation and learning, we encounter Purkinje nerve cells nestled within the cerebellum. These large neurons have distinctive dendritic trees that receive inputs from various sources, contributing to motor coordination. As we explore further into brain tissue's complexity, it becomes evident that blood supply plays a crucial role in nourishing these delicate neural networks. A healthy flow ensures optimal functioning of all interconnected regions. Venturing beyond natural tissues into neural stem cell culture reveals exciting possibilities for regenerative medicine and understanding neurodevelopmental processes better. These cultured stem cells hold immense potential for repairing damaged nerves or studying neuronal growth patterns. Finally, let us not forget about cerebral cortex nerve cells - responsible for higher cognitive functions such as perception and decision-making. Their intricate arrangements enable us to process information effectively while navigating through daily life challenges. Whether observing cerebellum tissue or exploring neural stem cell cultures or marveling at synaptic connections under various microscopes – each glimpse into the world of nerve cells unveils new layers of complexity and highlights their indispensable role in our intricate neural symphony.