Neurology Collection (page 8)

Conceptual image of human nervous system

Medical illustration showing thyroid cartilage and nerves around neck and head area
Medical illustration showing thyroid cartilage and nerves around human neck and head area

Human skull showing brain and circulatory system

Conceptual image of cranial nerves in human brain

Conceptual image of human foot with nervous system

Schematic of the hypothalamus receiving nerve impulses from the body and sending messages to the circulatory and nervous system

Human brain showing the layout of the sensory cortex
Coronal section through human brain showing the layout of the sensory cortex

Conceptual image of synaptic transmission

Human skeleton with transectional view of skull exposing the brain

Human hand with nervous system, lymphatic system and circulatory system

Anatomy of human brain, side view

Endorphins released in the hypothalamus travel down the spinal cord
Serotonin released in the brain travels down the spinal cord to close the pain gates and block pain messages

Sagittal view of human brain showing the corpus callosum

Human brain with nerves

Close-up view of the synapse in the nervous system. A synapse is a structure that permits a neuron (or nerve cell) to pass an electrical or chemical signal to another cell

Human skeleton with nervous system and larynx organ of neck

Human foot with nervous system, lymphatic system and circulatory system

Side view of human brain showing internal carotid artery

Conceptual image of GABA receptors. The GABA receptors are a class of receptors that respond to the neurotransmitter gamma-aminobutyric acid

Central nervous system with human brain

Conceptual image of a neuron ligntning signal passing

X-ray view of human face, profile view

View of top of human head showing hemispheres of the human brain

Conceptual image of human brain

Detail of ateries of the human head and the trigeminal nerve

Human body with internal organs, lymphatic system and circulatory system
Transparent human body with internal organs, lymphatic system and circulatory system

Microscopic view of inner nervous system

Illustration of action potential of a nerve cell

Conceptual image of a neuron

Conceptual image of human brain at different angles

Medical illustration of human brain and brain stem, perspective view

Anatomy of female body with nervous system

Directed differentiation of multipotential human neural progenitor cells
Human neural progenitor cells were isolated under selective culture conditions from the developing human brain and directed through lineage differentiation to GFAP + (glial fibrillary acid protein)

Human brain anatomy, lateral view, with labels

Anatomy of human skull, eyeball and arteries to brain

Albrecht von Haller (1708-1777), Swiss physician and scientist who was the founder of neurology, c1770. Experimental physiology. Engraving c1790

Rear view of Male Body with Major Nerves Superimposed

Human brain

Basic cutaway illustration of the human brain showing the thalamus, cerebrum, hypothalmus, cerebellum and brain stem

Illustrated diagram of the brain

Prion disease treatment, artwork C018 / 1838
Prion disease treatment. Artwork of three pyramidal neurons (nerve cells). The cell at left is healthy. The cell at back has died because of a prion (pink) infection

Neural network, artwork C017 / 2276
Neural network, computer artwork

Astrocyte nerve cells, artwork C017 / 3425
Astrocyte nerve cells, computer artwork. Astrocytes are a type of glial cell.They provide structural support and protection for neurons (nerve cells) and also supply them with nutrients and oxygen

Pyramidal nerve cells, artwork C017 / 2273
Pyramidal nerve cells. Computer artwork of pyramidal nerve cells from the cerebral cortex of the brain. Pyramidal cells are so named for their triangular cell bodies

Nerve synapse, artwork C017 / 3427
Nerve synapse. Computer artwork of of a junction, or synapse, between two nerve cells (neurons). As the electrical signal reaches the presynaptic end of a neuron it triggers the release of

Brain scan, conceptual image C017 / 7392
MODEL RELEASED. Brain scan, conceptual composite image

Bennet percussor, circa 1860 C017 / 6934
Bennet percussor with ivory pleximeter dating from 1860s, England. A percussor is a small hammer used for testing reflexes and for percussive examinations of the chest

Brain scan, conceptual image C017 / 7394
MODEL RELEASED. Brain scan, conceptual composite image

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Neurology, the fascinating study of the nervous system, unravels the intricate workings of our brain and its various components. From the Motor homunculus model that depicts how different body parts are represented in our motor cortex to the Histological Diagram of a Mammalian Retina revealing the complexity of our visual processing, every aspect is awe-inspiring. The Cerebellum tissue, as seen through a light micrograph, showcases its unique structure responsible for coordinating movement and balance. Meanwhile, an inferior view of the Anatomy of human brain highlights its remarkable organization and interconnectedness. Through Brain fibres captured by DTI MRI scans like C017 / 7099 or C017 / 7035, we gain insights into neural pathways that facilitate communication between different regions. These pathways form a complex network crucial for transmitting information throughout our brain. Exploring Brain blood vessels using a 3D angiogram (C007 / 1981) reveals their vital role in supplying oxygen and nutrients to sustain neuronal function. Additionally, understanding Motor and sensory homunculi helps us comprehend how specific areas within our brains control different bodily functions. Delving deeper into neurology brings us face-to-face with Medulla oblongata artwork depicting this critical region involved in regulating essential autonomic functions such as breathing and heart rate. Furthermore, observing Nerve and glial cells under a light microscope illustrates their diverse roles in supporting neurons' health and functionality. Finally, examining Synapse nerve junctions through TEM unveils these microscopic structures where electrical signals are transmitted from one neuron to another—a fundamental process underlying all brain activity. In essence, neurology takes us on an incredible journey deep within ourselves—unveiling mysteries at both macroscopic levels like anatomical structures or microscopically exploring cellular intricacies, and is through this exploration that we gain profound knowledge about how our brains work—the very essence of who we are as individuals.