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Exoskeletons that alow soldiers to carry more wieght, be faster, and stronger. And a set that allows people paralyzed in the legs to walk.

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Exoskeletons that alow soldiers to carry more wieght, be faster, and stronger. And a set that allows people paralyzed in the legs to walk.

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scientist have geneticly engenered a cat to glow in the dark. Scientist injected proteins safely injected jellyfish protiens in the cat to make it glo in the dark

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The bionic eye is a retinal implant, placed at the back of the eye to restore a sense of vision for people with profound vision loss due to degenerative conditions of the retina. An  external camera captures the visual scene and sends data to the implant. This app is not able to exactly represent the kind of vision processing that will be deployed with the full bionic eye devices.

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This app was made to show what a person with a bionic eye's vision would be like. It also mentions how the image produced on the app wouldn't be the same as the real bionic eye. The bionic eye is just a camera that produces some sort of image ans sends it to the retina nerve cells.

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With the world reaching a shortage on food in the near future scientists discus plans to change the diet of humans in the future

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A cat glows florescent green in the dark. his skin cell glows all throughout his body

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Nazi scientists tried using malaria as biological weapon in world war 2.

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the Turritopsis Dohrnii is a small unique species is the only known case of animal capable of reverting completely to a sexual immature

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scientist inject a jelly fishes protein so that the cat and glow in the dark

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Glow in the dark cat named Mr.GreenJeans

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Glow in the dark cat named Mr.GreenJeans

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Bionic eye and eye app to see what they saw, and bionic arms, and how they kind of work.

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Bionic eye and eye app to see what they saw, and bionic arms, and how they kind of work.

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Tiny Robots are Powered by Living Tissue

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Tiny Robots are Powered by Living Tissue

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In 2012 there was a bio-bot controlled by heart cells in the University of Illinois. Made by 3D printer.Can be used for environmental monitoring. 3D printing makes it easy to change the design.

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Janet Sinn-Hanlon, University of Illinois

Creating an articulated robot usually involves putting together a series of parts and utilising one or more technologies to make it move, including hydraulics, rubber bands and wheels. These are often fairly limited; omni-directional, for example, or unable to adjust to uneven terrain -- one of the biggest challenges for locomotive robots.

If, however, robots could use muscles, like a biological body does, they would be able to get around much more easily -- and could be controlled with greater finesse. An entirely muscular robot is, of course, a long way off; but researchers at the University of Illinois at Urbana-Champaign, led by head of bioengineering Professor Rashid Bashir, have created a series of tiny walking robots powered by muscle tissue.

Previously, Professor Bashir's team had developed a robot powered by beating heart cells from rats -- an imperfect solution, since heart cells contract constantly, making the movement of the robot difficult to control. The team's new robots, however, are powered by a strip of skeletal muscle, which can be controlled using an electric pulse -- easy to administer and program.

"Skeletal muscles cells are very attractive because you can pace them using external signals," Professor Bashir said. "For example, you would use skeletal muscle when designing a device that you wanted to start functioning when it senses a chemical or when it received a certain signal. To us, it's part of a design toolbox. We want to have different options that could be used by engineers to design these things."

The robot is put together in a system similar to bone-muscle-tendon. A 3D-printed hydrogel base forms the robot's "backbone", strong enough to maintain structure, but flexible enough to move with the muscle. The strip of muscle is anchored to the backbone by two posts, which act like tendons, but also serve as the robot's feet. Electric pulses are then administered; the higher the frequency, the faster the robot moves.

At the moment, it can only move in one direction, and the team's next challenge is taking steps to integrate the ability to turn: a more flexible backbone, and perhaps even neurons integrated into the robot so that it can be steered using light or chemical gradients.

These robots could one day be used in a variety of applications, the team believes, particularly medical; precision surgical robots, smart implants, even environmental surveying.

"The idea of doing forward engineering with these cell-based structures is very exciting," Bashir said. "Our goal is for these devices to be used as autonomous sensors. We want it to sense a specific chemical and move towards it, then release agents to neutralise the toxin, for example. Being in control of the actuation is a big step forward toward that goal."

The full paper, "Three-dimensionally printed biological machines powered by skeletal muscle", can be found in the journal PNAS.

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Tiny robots powered by living muscle tissue

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Creating an articulated robot usually involves putting together a series of parts and utilising one or more technologies to make it move, including hydraulics, rubber bands and wheels. These are often fairly limited; omni-directional, for example, or unable to adjust to uneven terrain -- one of the biggest challenges for locomotive robots.

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Scientists injected jellyfish proteins into a cat to make it glow in the dark

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People introduced a gene that produces proteins that create a green. They gave these genes to the cat. These genes causes the cat to glow in the dark, without harming the cat

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A bio robot less than a centimeter is powered by blood cells,the importance of the bio robot is that it is support to mimic muscles tendons and bones complex in the body it helps monitor the environment and 3D printing makes it easier for researchers to experiment with designs.

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Tiny Robots are powered by living Tissue

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Tiny Robots are powered by living Tissue

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I watched a video of these 1 centimeter bio-bots that are powered by muscle cells. They are controlled by electric pulses.They are designed to imitate the muscle tendon bone complex found in the body. They move slowly and can be powered off.

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In a new development in tissue engineering, they have grown a human-like ear from animal tissue.

The technique may one day be used to help people with missing or deformed outer ears, they believe.

This was then implanted into a rat whose immune system they had suppressed enabling the ear to grow.

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I watched a video about tiny robots that where powered by living tissue. They created these bots from a 3-D printer. In order for the Biobots to survive, they need to be in warm fluid.

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A team of experts from five pounds of the Institutes, have discovered a way to produce artificial blood vessels in a laboratory. They will use these blood vessels to help patients that need transplants. They use organic ink to print the Blood Vessels.

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The recovery of genomes from meta-genomic data sets is a critical step of defining problems in underlying populations. Maxbin 2.0 is a automated software that can access meta-genomic bases and recover genomes to test them.  This system can bin  a single sample as well as as well as comparing the microbial community composition between different sampling environments.

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machines powered by muscle tissue that can help clean the environment and monitor the environment

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Nazis used mosquitoes that had malaria as weapons on the other soldiers in WW2

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Jellyfish glow in the dark so scientists injected jellyfish protein that glowed to see what would happen. They then realized that this made the cat "glow in the dark" too.

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Biots are biological robots that use muscle to walk or crawl. They inch across the surface of muscle like caterpillars. They are designed to conduct massive surgery or even venture out the world to clear pollution. Researchers designed these biots with 3D printers that are simple to use and only survive around warm fluids.

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Scientists introduced a gene that produced proteins that glowed a fluorescent green when in the dark.

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Cats are genetically very close to humans. Scientists realized that injecting jelly fish proteins, will make a cat '' glow in the dark''.

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Back in World War 2, the Nazis tried using mosquitoes as weapons. They tried to infect the mosquitoes with malaria and release them in the enemy territory.  Only certain species of mosquitoes were used for those experiments.

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The Bionic Eye App simulates what a person might experience using a bionic eye. This app is for used for only educational purposes. By using the Bionic Eye it can help you get a better understanding of what it might be like for someone who is visually impaired. It is placed at the back of the eye to restore the sense of vision for people with impaired vision.