Neuron Collection

Histological Diagram of a Mammalian Retina
RAMON Y CAJAL, Santiago (1852-1934). Spanish doctor and histologist, Nobel Prize in 1906. Histological diagram of a mammalian retina. Original drawing by Ramon y Cajal

Cerebellum tissue, light micrograph
Cerebellum tissue. Confocal light micrograph of a section through the cerebellum of the brain. Purkinje cells, a type of neuron (nerve cell), are red

Purkinje nerve cells in the cerebellum
Purkinje cells in the cerebellum. Fluorescent light micrograph of Purkinje cells (green) in the cerebellum of the brain. Purkinje nerve cells have a flask-like body from which numerous highly

Nerve and glial cells, light micrograph
Nerve and glial cells, fluorescence light micrograph. These are neural stem cells that have differentiated into neurons (nerve cells, blue) and glial cells (support cells, red)

Hippocampus brain tissue
Hippocampus tissue. Light micrograph of a sagittal (side view) section through the hippocampus of the brain showing the nerve cells within it

Nerve cell, SEM
Nerve cell. Coloured scanning electron micrograph (SEM) of a nerve cell (neuron). Neurons are responsible for passing information around the central nervous system (CNS)

Cell types in the mammalian cerebellum: drawing, 1894, by the Spanish histologist Santiago Ramon y Cajal (1852-1934)
NERVE CELLS, 1894. Cell types in the mammalian cerebellum: drawing, 1894, by the Spanish histologist Santiago Ramon y Cajal (1852-1934)

Synapse nerve junction, TEM
Synapse. Coloured transmission electron micrograph (TEM) of a synapse, a junction between two nerve cells, in the brain. At a synapse an electrical signal is transmitted from one cell to the next in

Brain tissue blood supply. Light micrograph of a section through cortex tissue from a brain, showing the blood vessels (branching) that supply it

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

Glial stem cell culture, light micrograph
Glial stem cell culture. Fluorescent light micrograph of glial stem cells producing the protein NG2 (red) as they mature. These stem cells can differentiate into several types of glial cells

Cerebral cortex nerve cells. Confocal light micrograph of neurons (nerve cells, red) and glial cells (support cells, gold) from the cerebral cortex

Purkinje nerve cells in the cerebellum
Purkinje cells in the cerebellum. Fluorescent light micrograph of Purkinje cells (green) in the cerebellum of the brain. Purkinje nerve cells have a flask-like body from which numerous highly

Myelination of nerve fibres, TEM
Myelination of nerve fibres. Coloured transmission electron micrograph (TEM) of Schwann cells (blue, with brown nuclei) insulating nerve fibres (axons, pink) with a myelin sheath

Cerebellum structure, light micrograph
Cerebellum structure. Fluorescent light micrograph of a section through the cerebellum of the brain. The cerebellum comprises three main layers

Neural stem cell culture. Fluorescent light micrograph of a group of neural stem cells (neurosphere) in culture. Neural stem cells are able to differentiate into neurons (nerve cells)

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

Brain neuron. Computer reconstruction of a medium spiny neuron from the basal ganglia of the brain. Neurons (nerve cells) are responsible for passing information around the central nervous system

Cerebellum tissue, light micrograph
Cerebellum tissue. Confocal light micrograph of a section through the cerebellum of the brain. Purkinje cells, a type of neuron (nerve cell), are red

Rod and cone cells of the eye, SEM C014 / 4866
Rod and cone cells of the eye. Coloured scanning electron micrograph (SEM) of rod and cone cells in the retina of a mammalian eye

Nerve cell, TEM
Nerve cell. Coloured transmission electron micrograph (TEM) of a nerve cell body in cross- section. The cell has a large nucleus (yellow) and inner nucleolus (red)

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

Myelination of nerve fibres, TEM
Myelination of nerve fibres. Coloured transmission electron micrograph (TEM) of Schwann cells (red, with blue nuclei) insulating nerve fibres (axons, orange) with a myelin sheath

Myelinated nerve, TEM
Myelinated nerve. Coloured transmission electron micrograph (TEM) of myelinated nerve fibres and Schwann cells. Myelin (purple) is an insulating fatty layer that surrounds nerve fibres (axons)

Synapse nerve junctions, SEM
Synapse nerve junctions. Coloured scanning electron micrograph (SEM) of nerve cells showing the synapses (junctions, bulges) between them

Nerve cell, artwork F007 / 7448
Nerve cell, computer artwork

Purkinje nerve cell, TEM C014 / 0583
Purkinje nerve cell. Transmission electron micrograph (TEM) of a purkinje nerve cell (green) from the cerebellum of the brain, showing the cell body (centre) and its primary dendrite (cell process)

Brain anatomy. Computer artwork of strands of nerve cells (neurons) in front of an exploded view of the brain seen from behind

Nerve synapse, TEM
Nerve synapse. Coloured transmission electron micrograph (TEM) of the neuron (nerve) terminal at a synapse in the diaphragm

Nerve cell, SEM
Nerve cell. Coloured scanning electron micrograph (SEM) of a neuron (nerve cell). The cell body is the central structure with neurites (long and thin structures) radiating outwards from it

Nerve cells, computer artwork
Nerve cells. Computer artwork of nerve cells, or neurons

Map of nerve bundles in the human brain by Paul Broca
5309460 Map of nerve bundles in the human brain by Paul Broca; (add.info.: Map of nerve bundles in the human brain by Paul Broca)

An engraving depicting a diagram showing the supposed functions of various areas of the brain, 19th century
5311364 An engraving depicting a diagram showing the supposed functions of various areas of the brain, 19th century; (add.info.: Date: 1886); Universal History Archive/UIG.

An engraving depicting Descartes' drawing of the human brain, 17th century
5311365 An engraving depicting Descartes' drawing of the human brain, 17th century; Universal History Archive/UIG.

Wilhelm Waldeyer, 1880
1576978 Wilhelm Waldeyer, 1880; (add.info.: Wilhelm Waldeyer (6th October 1836 - 23 January 1921) was a German anatomist, famous for development of the neuron theory.); Universal History Archive/UIG.

A cartoon commenting on the fashionable revival of phrenology, 19th century
5311366 A cartoon commenting on the fashionable revival of phrenology, 19th century; (add.info.: Date: 1878); Universal History Archive/UIG.

Neuron
Mei Xu

Substantia nigra in Parkinsons disease, illustration
Substantia nigra. Computer illustration showing a degenerated substantia nigra and dopaminergic neurons in Parkinsons disease

Ramon y Cajal, Santiago (Petilla of Aragon, Navarra, 1852-Madrid, 1934). Professor of Medicine and Surgery. Spanish histologist and pathologist

Santiago Ramon y Cajal (Petilla of Aragon, Navarra, 1852-Madrid, 1934), Professor of Medicine and Surgery, histologist and pathologist

Santiago Ramon and Cajal (1852-1934) Spanish histologist, physician and pathologist
Santiago Ramon and Cajal (1852-1934).. Spanish histologist, physician and pathologist. He made important discoveries such as laws governing the morphology and connections of nerve cells in the brain

brain cells
microscopic image

ai, ar, artificial, artificial intelligence, atom, augmented reality, beauty, brain
Woman with artificial intelligence brain

Illustration of atom with nucleus of protons and neurons, based on the Bohr model

Transverse section of the midbrain

Nerve synapse and serotonin molecule
Nerve synapse and serotonin neurotransmitter molecule. Computer artwork of a junction, or synapse, between two nerve cells (neurons, blue)

Neurology slide show C016 / 9008
Conceptual computer artwork depicting neurology. From left to right: MRI brain scans, 3D dsi white matter brain scan, brain, Alzheimers brain versus normal brain, MRI brain scan

Rod and cone cells of the eye, SEM C014 / 4864
Rod and cone cells of the eye. Coloured scanning electron micrograph (SEM) of rod and cone cells in the retina of a mammalian eye

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"Unveiling the Intricacies of Neurons: Exploring the Wonders Within Our Brain" Delving into the depths of our brain, we encounter a histological diagram of a mammalian retina. This intricate network showcases the complexity and beauty of neurons that enable us to perceive light and color. Moving further, we explore cerebellum tissue through a light micrograph. The mesmerizing patterns reveal nerve and glial cells working in harmony, orchestrating our body's movements with precision. Zooming in closer, we witness a synapse nerve junction captured by TEM. This microscopic marvel highlights how information is transmitted between neurons, forming connections crucial for our thoughts and actions. Shifting gears to SEM imagery, we are introduced to an awe-inspiring nerve cell. Its intricate structure resembles an elaborate work of art—a testament to nature's ingenuity in crafting these building blocks of intelligence. Tracing back history, we stumble upon Santiago Ramon y Cajal's 1894 drawing depicting cell types within the mammalian cerebellum. His meticulous observations laid foundations for understanding neural networks that govern our motor skills. Venturing deeper into brain tissue, we discover hippocampus tissue—an essential region responsible for memory formation and spatial navigation. Here lies another realm where neurons weave together memories that shape who we are. Intriguingly unique are Purkinje nerve cells found within the cerebellum—majestic giants among their peers. Their distinctive appearance signifies their vital role in coordinating movement and maintaining balance. As if peering through a microscope lens once again, another nerve cell captures our attention—the epitome of elegance amidst complexity; it reminds us how intricately woven life truly is at its core. Diving into glial stem cell culture under bright illumination reveals their remarkable regenerative potential—a beacon of hope for treating neurological disorders as they hold promises yet untapped. Examining brain tissue blood supply uncovers an indispensable lifeline, nourishing neurons with oxygen and nutrients.