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Seeking to “push the limits of what humans can do,” researchers at Georgia Tech have developed a wearable robotic limb that transforms drummers into three-armed cyborgs.

The remarkable thing about this wearable arm, developed at GT’s Center for Music Technology, is that it’s doing a lot more than just mirroring the movements of the drummer. It’s a “smart arm” that’s actually responding to the music, and performing in a way that compliments what the human player is doing.

The two-foot long arm monitors the music in the room, so it can improvise based on the beat and rhythm. If the drummer is playing slowly, for example, the arm will mirror the tempo.

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A new chip designed for the brain is now wireless. Now that it is no longer connected using wires, will it compromise its accuracy?

The Nanyang Technological University in Singapore has developed a smart chip that can be used for neural implants in order to wirelessly transmit brain signals to the rest of the body with 95% accuracy. These neural implants, and the data that they register, are expected to help curtail symptoms of diseases like Parkinson’s, and they could also help paraplegic patients move their prosthetic limbs.

For operations, external devices can use the the 5mm by 5mm chip to receive and analyze data before sending back important details, instead of sending the entire data stream all at once. This drastically decreases its power consumption, making the tech far more viable.

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With the success of Graphene as a material for BMI plus the new micro stints that can travel through blood cells to the brain; prosthetic technology is only going to continue to improve to maybe even a point where some athletes may wish to have physical and endurance capabilities improved through this type of technology if it is approved and allowed by the various athletic associations.


A team of researchers has demonstrated the first-ever successful prosthetic arm that can control individual fingers with thoughts.

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Amazing.

The Singularity isn’t NEAR…

It’s in progress.


For the first time ever, researchers have successfully demonstrated a system that enables a person to move the individual fingers of a prosthetic hand using just their thoughts.

“We will find new things everywhere we look.” –Hunter S. Thompson

At the rate of 21st century technological innovation, each year brings new breakthroughs across industries. Advances in quantum computers, human genome sequencing for under $1,000, lab-grown meat, harnessing our body’s microbes as drugs, and bionic eye implants that give vision to the blind —the list is long.

As new technologies push the boundaries of their respective industries, fields are now maturing, growing, and colliding with one another. This cross-pollination of ideas across industries and countries has changed the world—and will continue to—and it’s one of the reasons Singularity University exists.

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The US military is looking for ways to insert microscopic devices into human brains to help folks communicate with machines, like prosthetic limbs, with their minds. And now, DARPA’s saying scientists have found a way to do just that—without ripping open patients’ skulls.

In the DARPA-funded study, researchers at the University of Melbourne have developed a device that could help people use their brains to control machines. These machines might include technology that helps patients control physical disabilities or neurological disorders. The results were published in the journal Nature Biotechnology.

In the study, the team inserted a paperclip-sized object into the motor cortexes of sheep. (That’s the part of the brain that oversees voluntary movement.) The device is a twist on traditional stents, those teeny tiny tubes that surgeons stick in vessels to improve blood flow.

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A team of researchers from Germany have developed what could become a revolutionary treatment for male infertility — they build spermbots. The key is a tiny metal helix that attaches to individual sperm cells, allowing them to move more effectively. You can think of it like a prosthetic tail for sperm.

Male fertility issues are usually not related to having an unusually low sperm count, but to having sperm with low motility. That is, they don’t get around very well. Each sperm has a copy of half of a man’s genome in the “head” portion. The tail is actually a flagella with banks of energy-producing mitochondria to power its movement. If either the tail or power source don’t work correctly, a sperm cell will have trouble reaching and fertilizing an egg.

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Cool new story and video on transhumanism:


SANTA CLARA (CBS SF) –During Super Bowl 50, the world saw the Denver Broncos throttle the Carolina Panthers. The game’s MVP Von Miller dominated Cam Newton in a display of super human strength and skill.

You may not know it, but a growing number of engineers, biohackers and entrepreneurs hopes one day we’ll all be super human as well.

A bionic eye may not that far away.

A DARPA-funded research team has created a novel neural-recording device that can be implanted into the brain through blood vessels, reducing the need for invasive surgery and the risks associated with breaching the blood-brain barrier. The technology was developed under DARPA’s Reliable Neural-Interface Technology (RE-NET) program, and offers new potential for safely expanding the use of brain-machine interfaces (BMIs) to treat physical disabilities and neurological disorders.

In an article published in Nature Biotechnology, researchers in the Vascular Bionics Laboratory at the University of Melbourne led by neurologist Thomas Oxley, M.D., describe proof-of-concept results from a study conducted in sheep that demonstrate high-fidelity measurements taken from the motor cortex—the region of the brain responsible for controlling voluntary movement—using a novel device the size of a small paperclip.

This new device, which Oxley’s team dubbed the “stentrode,” was adapted from off-the-shelf stent technology—a familiar therapeutic tool for clearing and repairing blood vessels—to include an array of electrodes. The researchers also addressed the dual challenge of making the device flexible enough to safely pass through curving blood vessels, yet stiff enough that the array can emerge from the delivery tube at its destination.

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