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Neuroscience Collection (page 4)

"Unraveling the Mysteries of the Mind: Exploring Neuroscience through Art and Science" Delve into the intricate world of neuroscience

Background imageNeuroscience Collection: Hearing centre, artwork

Hearing centre, artwork
Hearing centre. Computer artwork showing the area of the brains temporal lobe that is associated with hearing (red). This area receives auditory input from the cochlea (coiled)

Background imageNeuroscience Collection: Human brain, anatomical artwork

Human brain, anatomical artwork
Human brain. Anatomical computer artwork of a human brain seen from below, showing the cranial nerves (centre)

Background imageNeuroscience Collection: Substantia nigra, artwork

Substantia nigra, artwork
Substantia nigra. Computer artwork showing a healthy substantia nigra (left) and degenerated substantia nigra (right) from human brains

Background imageNeuroscience Collection: Photic sneeze reflex, artwork C016 / 7700

Photic sneeze reflex, artwork C016 / 7700
Photic sneeze reflex. Computer artwork representing one explanation for the photic sneeze reflex. About a quarter of the population sneeze when they look at a bright light

Background imageNeuroscience Collection: Synapse, artwork C016 / 7535

Synapse, artwork C016 / 7535
Synapse. Computer artwork of a synapse, the junction between nerve cells (orange). Synapses transmit electrical signals from one nerve cell to the next

Background imageNeuroscience Collection: Human brain, artwork C016 / 9370

Human brain, artwork C016 / 9370
Human brain, computer artwork

Background imageNeuroscience Collection: Brain glial cells, light micrograph C016 / 0524

Brain glial cells, light micrograph C016 / 0524
Brain glial cells. Light micrograph of a section through brain tissue, showing numerous glial cells (dark). Glial cells, or neuroglia, are non-neural cells of the central nervous system (CNS)

Background imageNeuroscience Collection: Brain glial cells, light micrograph C016 / 0523

Brain glial cells, light micrograph C016 / 0523
Brain glial cells. Light micrograph of a section through brain tissue, showing numerous glial cells (dark). Glial cells, or neuroglia, are non-neural cells of the central nervous system (CNS)

Background imageNeuroscience Collection: C. elegans worm, illustration C018 / 0731

C. elegans worm, illustration C018 / 0731
Caenorhabditis elegans worm, illustration. C. elegans is a soil-dwelling hermaphrodite nematode worm and one of the most studied animals in biological and genetic research

Background imageNeuroscience Collection: Brain areas, conceptual illustration C018 / 0749

Brain areas, conceptual illustration C018 / 0749
Brian areas, conceptual illustration. Different areas of the cerebral cortex are involved in different cognitive and behavioural tasks

Background imageNeuroscience Collection: Nervous system cells, artwork C017 / 3423

Nervous system cells, artwork C017 / 3423
Nervous system cells. Computer artwork showing neurons (nerve cells, purple), astrocytes (green) and a blood vessel (along right)

Background imageNeuroscience Collection: Myelin sheats and glial cells, artwork C014 / 2647

Myelin sheats and glial cells, artwork C014 / 2647
Computer artwork depicting axons surrounded by a myelin sheath (brown) and microglial cells (light blue). Glial cells are nervous system cells that provide structural support

Background imageNeuroscience Collection: Induced nerve stem cells, micrograph

Induced nerve stem cells, micrograph
Induced nerve stem cells. Fluorescence light micrograph of neural (nerve) stem cells that have been created (induced) from human adult skin fibroblast cells by gene manipulation

Background imageNeuroscience Collection: Stem cell-derived nerve cells

Stem cell-derived nerve cells. Fluorescence light micrograph of neural (nerve) stem cells that have been derived from human embryonic stem cells (HESC)

Background imageNeuroscience Collection: Brain pacemaker, artwork

Brain pacemaker, artwork
Brain pacemaker. Computer artwork showing a deep brain stimulation (DBS) electrode (right and inset) implanted in a persons brain, with a control box located on the persons chest (lower left)

Background imageNeuroscience Collection: EEG, electrodes on head, artwork

EEG, electrodes on head, artwork
Electroencephalography. Computer artwork depicting of a EEG cap on top of a head, showing the electrodes attached to the scalp. EEG measures and records the electrical activity of the brain

Background imageNeuroscience Collection: Neuron firing, conceptual artwork C013 / 5649

Neuron firing, conceptual artwork C013 / 5649
Neuron firing, conceptual computer artwork

Background imageNeuroscience Collection: Visual processes, conceptual artwork

Visual processes, conceptual artwork

Background imageNeuroscience Collection: Neuropeptide Y neurotransmitter molecule C015 / 6240

Neuropeptide Y neurotransmitter molecule C015 / 6240
Neuropeptide Y neurotransmitter molecule. Molecular model showing the structure of the neurotransmitter neuropeptide Y (NPY). NPY is found in the brain and autonomic nervous system

Background imageNeuroscience Collection: Myelinated nerve, TEM C016 / 5840

Myelinated nerve, TEM C016 / 5840
Myelinated nerve. Coloured transmission electron micrograph (TEM) of a section through a myelinated nerve fibre and Schwann cell

Background imageNeuroscience Collection: Myelinated nerve, TEM C016 / 5839

Myelinated nerve, TEM C016 / 5839
Myelinated nerve. Coloured transmission electron micrograph (TEM) of a section through a myelinated nerve fibre and Schwann cell

Background imageNeuroscience Collection: Myelinated nerve, TEM C016 / 5838

Myelinated nerve, TEM C016 / 5838
Myelinated nerve. Coloured transmission electron micrograph (TEM) of a section through a myelinated nerve fibre and Schwann cell

Background imageNeuroscience Collection: Myelinated nerve, TEM C016 / 5448

Myelinated nerve, TEM C016 / 5448
Myelinated nerve. Transmission electron micrograph (TEM) of a section through a myelinated nerve fibre and Schwann cell. Myelin (black)

Background imageNeuroscience Collection: Myelinated nerve, TEM C016 / 5370

Myelinated nerve, TEM C016 / 5370
Myelinated nerve. Transmission electron micrograph (TEM) of a section through a myelinated nerve fibre and Schwann cell (centre)

Background imageNeuroscience Collection: Neuropeptide Y neurotransmitter molecule C014 / 0013

Neuropeptide Y neurotransmitter molecule C014 / 0013
Neuropeptide Y neurotransmitter molecule. Molecular model showing the structure of the neurotransmitter neuropeptide Y (NPY)

Background imageNeuroscience Collection: Synapses, artwork C014 / 0002

Synapses, artwork C014 / 0002
Synapses. Computer artwork of synapses, the junction between nerve cells (orange). Synapses transmit electrical signals from one nerve cell to the next

Background imageNeuroscience Collection: Synapses, artwork C014 / 0004

Synapses, artwork C014 / 0004
Synapses. Computer artwork of synapses, the junction between nerve cells (blue). Synapses transmit electrical signals from one nerve cell to the next

Background imageNeuroscience Collection: Synapses, artwork C014 / 0003

Synapses, artwork C014 / 0003
Synapses. Computer artwork of synapses, the junction between nerve cells (blue). Synapses transmit electrical signals from one nerve cell to the next

Background imageNeuroscience Collection: Myelinated nerves, SEM C013 / 7142

Myelinated nerves, SEM C013 / 7142
Myelinated nerves. Coloured scanning electron micrograph (SEM) of a section through the sciatic nerve, showing the myelinated nerve fibres (axons)

Background imageNeuroscience Collection: Myelinated nerves, SEM C013 / 7141

Myelinated nerves, SEM C013 / 7141
Myelinated nerves. Coloured scanning electron micrograph (SEM) of a section through the sciatic nerve, showing the myelinated nerve fibres (axons)

Background imageNeuroscience Collection: Myelinated nerves, SEM C013 / 7138

Myelinated nerves, SEM C013 / 7138
Myelinated nerves. Coloured scanning electron micrograph (SEM) of a section through a myelinated nerve fibre (axon, beige, centre) from the sciatic nerve

Background imageNeuroscience Collection: Ciliary hairs in the cerebral ventricle

Ciliary hairs in the cerebral ventricle. Coloured scanning electron micrograph (SEM) of the wall of a cerebral ventricle. The cerebral ventricles are four communicating cavities within the brain that

Background imageNeuroscience Collection: Brain anatomy, 14th century artwork

Brain anatomy, 14th century artwork. The cranial vault (top of the skull, left) has been removed and two of the skull sutures (zig-zag lines) are shown

Background imageNeuroscience Collection: Spinal anatomy, 14th century artwork

Spinal anatomy, 14th century artwork. The spinal cord is shown running down the back, with eighteen spinal nerves braching off through holes in the vertebrae (spinal bones)

Background imageNeuroscience Collection: Impossible shape

Impossible shape, computer artwork

Background imageNeuroscience Collection: Scintillating grid illusion

Scintillating grid illusion. This illusion, based on the Hermann grid, was created in 1994. When the grid is observed, the white dots at the intersection of the grey lines appear to scintillate

Background imageNeuroscience Collection: Square illusion - subdivision

Square illusion - subdivision leads to apparent enlargement. There are three squares of identical area. However, the middle square appears to be wider than it is tall

Background imageNeuroscience Collection: Muller-Lyer illusion

Muller-Lyer illusion. The two lines with arrows at each end appear to be different lengths on the left. In fact they are the same length

Background imageNeuroscience Collection: Impossible rectangle

Impossible rectangle. This is an impossible object - one that can be drawn in 2 dimensions but not created

Background imageNeuroscience Collection: Illusory contours

Illusory contours forming circles. This illusion demonstrates the false perception of areas of increased brightness. Lines are apparently joined to bright circles. In fact no such circles exist

Background imageNeuroscience Collection: Freemish crate

Freemish crate. This representation of an impossible cube is based upon the standard 2- dimensional depiction of a cube, but with some of the edges crossing in a way that could not be achieved in 3

Background imageNeuroscience Collection: Jastrow illusion

Jastrow illusion. The bottom shape appears to be larger than the top shape. They are actually identical

Background imageNeuroscience Collection: Circle in a square illusion

Circle in a square illusion. The two red circles in the image are the same size. However, the one inside a blue square looks larger than the one enclosing a blue square

Background imageNeuroscience Collection: Hering illusion

Hering illusion. This illusion was created by the physiologist Edward Hering in the 19th century. It exploits the brains understanding of perspective to fool it into thinking that the two horizontal

Background imageNeuroscience Collection: Bullseye illusion

Bullseye illusion. The blue shaded area in the centre of the circle appears larger than the blue perimeter area. In fact they are the same area. This is easily proven by calculation

Background imageNeuroscience Collection: Framing colour illusion

Framing colour illusion
Framing colours illusion. Black borders around colours enhance their brightness and prevent clashing. The colours in the pattern on the left appear to be brighter and bolder than those on the right

Background imageNeuroscience Collection: Poggendorff illusion

Poggendorff illusion. The two red lines crossing the blue bar are colinear. Many people see them as being offset. There are still no satisfactory explanations as to why this should be the case

Background imageNeuroscience Collection: Three arc illusion

Three arc illusion. The three arcs shown give the impression of belonging to circles of increasing radius when viewed from top to bottom. They actually come from circles of the same radius



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"Unraveling the Mysteries of the Mind: Exploring Neuroscience through Art and Science" Delve into the intricate world of neuroscience, where art meets science to unravel the complexities of the human brain. Starting with an inferior view, witness a captivating portrayal of its anatomy, showcasing the mesmerizing Medulla Oblongata – a vital structure responsible for controlling essential bodily functions. Moving to a superior view, be enchanted by colored lobes and labels that demystify different regions within our brain. Marvel at how these distinct areas work in harmony to shape our thoughts, emotions, and actions. Prepare to question your perception as you encounter mind-bending artwork like the Hollow-face illusion. Witness how our brains can be deceived by optical tricks, highlighting their remarkable ability to interpret reality. Venturing further into lateral views of human brain anatomy reveals another fascinating aspect – glial cells. Observe them through confocal light micrography; these unsung heroes play crucial roles in supporting neurons and maintaining overall brain health. Returning once more to artistic interpretations, explore additional illusions such as Ouchi illusion and Goblet illusion. These captivating artworks challenge our understanding of visual perception while reminding us that our brains are constantly processing information in unique ways. But it's not all about illusions; we must also acknowledge the importance of blood supply within brain tissue. Discover how this intricate network ensures oxygenation and nourishment for optimal cognitive function. Concluding this journey is yet another stunning artwork depicting various aspects of brain anatomy. Reflect on what you have learned throughout this exploration - from structural intricacies to perceptual wonders - gaining a deeper appreciation for neuroscience's ongoing quest to understand one of humanity's greatest enigmas.