Animators have
created remarkable pictures that resemble an alien landscape from the latest
science fiction blockbuster, but are in fact ultra-realistic representations of
the inside of a human body.
An underwater world? This is an image of kinesin
(yellow, centre), a motor protein that is capable of moving across a cell.
Kinesins are able to 'walk' along micro tubules, filament-like protein
structures within cells that are involved in a variety of cellular processes,
ranging from cell division to transportation of certain chemicals within cells.
Animators have included motion images of the inner ear, bone marrow and the protective structure inside the gastrointestinal tract amongst other areas. Although the project used real data, the equipment used to produce the microscopic imagery produces no colour, so illustrators added their own shades, tints and tones.
Animators have included motion images of the inner ear, bone marrow and the protective structure inside the gastrointestinal tract amongst other areas. Although the project used real data, the equipment used to produce the microscopic imagery produces no colour, so illustrators added their own shades, tints and tones.
Michael Astrachan,
a partner in XVIVO said 'Aesthetically inspirational art moves people. We
can take information that is typically taught in a bland, uninspiring two
dimensional textbook and bring it to life through a meaningful and
inspirational journey.
'He added: 'Beauty and scientific-accuracy exemplifies XVIVO's work. Our animations allow people to clearly understand complex science and biological processes.' Here intestinal microvilli from the small intestine are pictured. Microvilli are responsible for absorbing nutrients into the bloodstream, for transport to the liver and other cells. In order to increase the amount of nutrients taken into the bloodstream, each villus itself has dozens of microvilli, to increase greatly the surface area. Image of transforming growth in factor beta (TGF-beta), a polypeptide found in the human body and milk.
Golgi apparatus are minute organelles found inside most complex cells. They help package proteins inside the cell before they are sent to a part of the body to perform a whatever their job is. Pericytes (green) are pictured on a capillary (a small blood vessel). Pericytes regulate capillary blood flow as well as the clear vessel of cellular debris. In the brain they help sustain the blood-brain barrier.
'He added: 'Beauty and scientific-accuracy exemplifies XVIVO's work. Our animations allow people to clearly understand complex science and biological processes.' Here intestinal microvilli from the small intestine are pictured. Microvilli are responsible for absorbing nutrients into the bloodstream, for transport to the liver and other cells. In order to increase the amount of nutrients taken into the bloodstream, each villus itself has dozens of microvilli, to increase greatly the surface area. Image of transforming growth in factor beta (TGF-beta), a polypeptide found in the human body and milk.
Golgi apparatus are minute organelles found inside most complex cells. They help package proteins inside the cell before they are sent to a part of the body to perform a whatever their job is. Pericytes (green) are pictured on a capillary (a small blood vessel). Pericytes regulate capillary blood flow as well as the clear vessel of cellular debris. In the brain they help sustain the blood-brain barrier.
This Imagery
resembles an alien bio dome it’s a magnified image of a virus 'blebbing' inside
human body.
In cell biology, a 'bleb' is an irregular bulge in the plasma membrane of a cell. This often occurs when a cell dies but blebbing also has important functions in other cellular processes, including cell movement and cell division Image of a marrow cavity where Hematopoietic stem cells are found inside human body.
These cells are called 'multipotent stem cells', and are responsible for the production of all blood cells. Through a process known as 'hematopoiesis' these cells mature into white blood cells (which protect us from infection), red blood cells (which carry oxygen to the cells in our bodies), and platelets (which help curb bleeding after injury).
A creature from another world infact this correct our own. This image is of a microscopic bacteriophage, a type of virus that infects and replicates within bacteria. Extra-terrestrial canyons: A computer generated image of Sterocilia, the sensing organelles of hair cells found in the inner ear. They respond to motion for various functions, including hearing and balance inside human body. The hair cells turn the fluid pressure and other stimuli into electrical signals that travel to the brain where they are interpreted as sound. This image shows the microscopic process of how how ATP - a form of energy - is produced within mitochondria inside cells.
In cell biology, a 'bleb' is an irregular bulge in the plasma membrane of a cell. This often occurs when a cell dies but blebbing also has important functions in other cellular processes, including cell movement and cell division Image of a marrow cavity where Hematopoietic stem cells are found inside human body.
These cells are called 'multipotent stem cells', and are responsible for the production of all blood cells. Through a process known as 'hematopoiesis' these cells mature into white blood cells (which protect us from infection), red blood cells (which carry oxygen to the cells in our bodies), and platelets (which help curb bleeding after injury).
A creature from another world infact this correct our own. This image is of a microscopic bacteriophage, a type of virus that infects and replicates within bacteria. Extra-terrestrial canyons: A computer generated image of Sterocilia, the sensing organelles of hair cells found in the inner ear. They respond to motion for various functions, including hearing and balance inside human body. The hair cells turn the fluid pressure and other stimuli into electrical signals that travel to the brain where they are interpreted as sound. This image shows the microscopic process of how how ATP - a form of energy - is produced within mitochondria inside cells.
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