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Its six compact jet engines will send you hurtling through the sky at 100 mph.


The media is bursting at its seams with what seems to be the superhero revolution. Comic book publishers like Marvel and DC have spilled over onto the big screen, and now it may look as though they’re spilling over into our technology in the real world. While we have been making efforts at a superhero heads up display or an iron man workout suit, we are also inching our way up to a functional flight suit.

Gravity is a British technology start-up started by Richard Browning on March 31, 2017. The company has developed a human propulsion system to re-imagine manned flight. With miniaturized jet engines and a customized exoskeleton, the Daedalus is expected to push us into a new era of aviation. Browning and his team developed the suit over the course of 2016, with the team’s journey covered in this short documentary:

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The team tested their device on a prosthetic hand. When the skin patches on the skin were enabled, the prosthetic could touch and grab soft objects like a normal hand. But when the skin was not turned on, the hand crushed the objects.

The skin requires just 20 nanowatts of power per square centimeter, according to the paper. Right now, the energy captured by the photovoltaic cells has to be used immediately, but the team has another prototype in development that includes flexible supercapacitors to store excess energy.

They are also working on scaling up the material to cover larger areas of a prosthetic or robot, using a method the team pioneered in 2015 for inexpensively producing large sheets of graphene. Dahiya expects the skin will eventually be produced for just $1 for 5 to 10 centimeters of the material.

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In case you missed it, Elon Musk is rather concerned about the fate of humanity, given the extreme advancements being made in artificial intelligence (AI). Ultimately, he fears that our AI will, one day, overtake us. When this happens, he claims that humans will likely become second class citizens (or slaves, or something even worse).

Now, reports have surfaced which assert that he is backing a brain-computer interface venture that was founded to allow humans to keep up with the advancements made in machines. The interface is intended to work by augmenting that which makes us human: our brains.

The find comes from The Wall Street Journal. According to them, the company – which is called Neuralink – is still in the earliest stages of development. To that end, it has no public presence at all.

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Roboticists frequently turn to nature for inspiration for their inventions, reverse engineering the traits that evolution has developed over millennia. Others are taking a shortcut by simply integrating modern technology with living animals.

The idea may seem crazy, but animals and machines are not so different. Just as a network of wires carry electrical signals between a robot’s sensors, processing units and motors, the flow of action potentials around our nervous system connects our sensory organs, brain and muscles.

But while there are similarities, the natural world has come up with some intricate solutions to problems that engineers are nowhere near replicating in silicon. That has prompted some scientists to try and piggyback on evolution’s innovations by building part-animal, part-machine cyborgs. Here’s a rundown of some of the most eye-catching examples.

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Part man, part machine: Researchers at the University of Oxford are making The Terminator a reality.

Pierre-Alexis Mouthuy and Andrew Carr, of the Oxford Musculoskeletal Biomedical Research Unit, test medical technology by dressing robots in human flesh.

The cyborgs “wear” tissue grafts to help develop artificial muscles and tendons before transplantation.

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A team of engineers at the University of California San Diego and La Jolla-based startup Nanovision Biosciences Inc. have developed the nanotechnology and wireless electronics for a new type of retinal prosthesis that brings research a step closer to restoring the ability of neurons in the retina to respond to light. The researchers demonstrated this response to light in a rat retina interfacing with a prototype of the device in vitro.

They detail their work in a recent issue of the Journal of Neural Engineering. The technology could help tens of millions of people worldwide suffering from neurodegenerative diseases that affect eyesight, including macular degeneration, retinitis pigmentosa and loss of vision due to diabetes.

Despite tremendous advances in the development of over the past two decades, the performance of devices currently on the market to help the blind regain functional vision is still severely limited—well under the acuity threshold of 20/200 that defines legal blindness.

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