Groundbreaking Project Hopes To Bring The Dead 'Back To Life'

A Groundbreaking Project Is Going To Try And Bring A Dead Brain 'Back To Life'

Can you bring a person back from the dead? A groundbreaking trial has just got ethical approval to try and do just that.

A US biotechnology company has been given permission by health watchdogs to take 20 patients who have been declared clinically dead from brain injury and try to regenerate parts of their central nervous system.

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Sebastian Kaulitzki via Getty Images

Scientists at Bioquark will treat the patients with a range of therapies including stem cell injections, nerve stimulation and laser treatments.

While the team aren't expecting any miracles just yet they do have one particular goal in mind which is to see cell regeneration in the upper spinal cord - the part of the brain which controls breathing and heart function.

Bioquark's CEO Dr Ira Pastor believes that they can effectively hit the 'reset' button on the brain's stem cells forcing them to re-start.

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Stem cells are essentially a blank canvas, able to turn into any cell type.
Getty Images/iStockphoto

This is something which is actually already seen on Earth through creatures like Salamanders who are able to regenerate entire limbs.

Speaking to the Telegraph Dr Pastor said, "To undertake such a complex initiative, we are combining biologic regenerative medicine tools with other existing medical devices typically used for stimulation of the central nervous system, in patients with other severe disorders of consciousness."

The team reportedly hopes to see the first results for the trial within two to three months.

While we're still a long way from bringing an entire brain back to life Dr Pastor believes that by focusing on one specific area of the brain they can start to make meaningful steps in the right direction.

Stunning Brain Images Reveal Beauty Of Fragile Brain
Sensory Superhighway(01 of15)
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Just like the electrical wires in the national grid, the electrical connections between brain cells, as shown in this picture, have to be well insulated. If this insulation is lost, neurons lose their ability to communicate efficiently. This is what happens in several neurological diseases including multiple sclerosis (MS). (credit:University of Edinburgh)
Navigating Axons: A Circuitous Route(02 of15)
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This colorful picture shows the wiring in a developing brain. Axons (red) are the cables that neurons use to transmit their information, often over relatively long distances and taking highly circuitous routes. The other colors represent different areas of the brain. (credit:University of Edinburgh)
Glial Grandeur(03 of15)
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At first glance this may look like a spider’s web but this web measures just 1/20 of a millimeter. It is made up of two types of brain cells – astrocytes in green and a white oligodendrocyte. These cells were originally thought of as the support cells for neurons but it is now known they are essential for many brain functions. (credit:University of Edinburgh)
Female Mosaic(04 of15)
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This picture of neurons from a female brain highlights those that have switched off the X chromosome inherited from the mother (in green), and those that have silenced the X chromosome inherited from the father (in red). In cases where an altered gene on one of the X chromosomes causes autism or intellectual disability, only around a half of the cells will be affected. This helps to explain why these conditions are less common in women than in men. (credit:University of Edinburgh)
Breakdown In Communication(05 of15)
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This image shows differences between a typical brain (left) and autism (right). The different colors identify different areas of the brain. (credit:University of Edinburgh)
The Astrocyte(06 of15)
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These star-shaped cells, or “astrocytes,” were once thought to be simple support cells for neurons. Now we know that they are much more important than this--they also help to create and maintain an environment in the brain that is optimized for electrical and chemical communication. (credit:University of Edinburgh)
Neuron Networks(07 of15)
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Scientists can use mathematics to model brain circuitry, as shown in this picture. They use this approach to predict how brain communication is altered in neuropsychiatric disorders, such as anxiety and ADHD. (credit:University of Edinburgh)
Wiring The Brain(08 of15)
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This is a detailed map of the brain wiring in a sleeping newborn baby (left) and an adult in their seventies (right), visualized using MRI. (credit:University of Edinburgh)
Circuit Building Block(09 of15)
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Neurons have branched projections that extend from their cell body called dendrites which give the cells a tree-like appearance. It’s through these dendrites that neurons receive information from hundreds to thousands of other cells. (credit:University of Edinburgh)
Encoding Space(10 of15)
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Our brains hold specialized neurons called grid cells that help us to keep track of where we are. This heat map shows the regions in space where an individual grid cell becomes active during exploration of a circular room. (credit:University of Edinburgh)
The Egg: Mendel's Moment(11 of15)
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This picture shows the egg or “oocyte” preparing the genes that will be passed on to its offspring, which are highlighted in red. (credit:University of Edinburgh)
Regenerating Spinal Cord(12 of15)
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Images such as this one, which shows the spinal cord from a zebrafish repairing itself, are helping scientists to study biological mechanisms that could one day reveal treatments for people who are paralyzed due to spinal cord damage. (credit:University of Edinburgh)
High Fidelity(13 of15)
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This picture shows the difference in brain signals from a typical brain (left) and from a brain affected by a condition similar to Fragile X Syndrome, the most common inherited form of autism (right). (credit:University of Edinburgh)
The Seahorse(14 of15)
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This is a close-up image of a particular area of the brain called the hippocampus, named from the Greek word for “seahorse” because of its shape. (credit:University of Edinburgh)
A Fragile Balance(15 of15)
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This image shows a series of MRI pictures from the brain of an individual with Fragile X Syndrome, the most common inherited form of autism. (credit:University of Edinburgh)

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