Lifeboat Foundation

BMI’s (according to DARPA and David Axe) could begin as early as 2017 on humans. The plan is to use stentrodes. Testing has already proven success on sheep. I personally have concerns in both a health (as the article highlighted prone to blood clots) as well as anything connecting via Wi-Fi or the net with hackers trying to challenge themselves to prove anything is hackable; that before this goes live on a person we make sure that we have a more secure hack-resistant net before someone is injured or in case could injure someone else.

Soldiers could control drones with a thought.

After that stem-cell synth yesterday, we’re in the mood for some serious bodymods—so let’s take it from Cronenberg and into Gibson. Software company Chaotic Moon is currently working on tattoos made with conductive ink, which they’re calling Tech Tats. While still mainly used in the medical field, we can already imagine a fully developed 303 implemented under your skin. Who needs a hoverboard when you can make acid with a tattoo?

(via designboom)

Continue reading “Circuit Board Tattoos Turn Your Skin Into A Synth” »

Nanoparticles form in a 3-D-printed microfluidic channel. Each droplet shown here is about 250 micrometers in diameter, and contains billions of platinum nanoparticles. (credit: Richard Brutchey and Noah Malmstadt/USC)

USC researchers have created an automated method of manufacturing nanoparticles that may transform the process from an expensive, painstaking, batch-by-batch process by a technician in a chemistry lab, mixing up a batch of chemicals by hand in traditional lab flasks and beakers.

Continue reading “A practical solution to mass-producing low-cost nanoparticles” »

Are cotton candy machines the key to making full-scale artificial organs? Discovery News.

You could say that Illumina is to DNA sequencing is what Google is to Internet search, but that would be underselling the San Diego-based biotech company. Illumina’s machines, the best and cheapest on the market, generate 90 percent of all DNA sequence data today. Illumina is, as they say, crushing it.

But as lucrative as that 90 percent slice is for Illumina now, the whole pie is likely to get even bigger in the future. Less than 0.01 percent of the world’s population has been sequenced so far. So recently, Illumina has made bold moves positioning itself for the future: The company is consolidating its core hardware business—this week, it sued an upstart competitor, Oxford Nanopore Technologies, for patent infringement—while moving into the genetic testing business with new ventures like the liquid cancer biopsy spinoff, Grail.

The company is a looking toward a future in which a lot more people gets genetic tests—and a lot more often. “Grail’s business will be very different than Illumina’s core business,” Eric Endicott, Illumina’s director of global public relations, said in an email. “We are at a tipping point in genomics, where a broad community of scientists and researchers continue to translate the potential of the genome from science to discoveries and applications.”

Continue reading “Illumina, the Google of Genetic Testing, Has Plans for World Domination” »

Ciliates can do amazing things: Being so tiny, the water in which they live is like thick honey to these microorganisms. In spite of this, however, they are able to self-propel through water by the synchronized movement of thousands of extremely thin filaments on their outer skin, called cilia. Researchers from the Max Planck Institute for Intelligent Systems in Stuttgart are now moving robots that are barely perceptible to the human eye in a similar manner through liquids. For these microswimmers, the scientists are neither employing complex driving elements nor external forces such as magnetic fields. The team of scientists headed by Peer Fischer have built a ciliate-inspired model using a material that combines the properties of liquid crystals and elastic rubbers, rendering the body capable of self-propelling upon exposure to green light. Mini submarines navigating the human body and detecting and curing diseases may still be the stuff of science fiction, but applications for the new development in Stuttgart could see the light-powered materials take the form of tiny medical assistants at the end of an endoscope.

Their tiny size makes life extremely difficult for swimming microorganisms. As their movement has virtually no momentum, the friction between the water and their outer skin slows them down considerably — much like trying to swim through thick honey. The viscosity of the medium also prevents the formation of turbulences, something that could transfer the force to the water and thereby drive the swimmer. For this reason, the filaments beat in a coordinated wave-like movement that runs along the entire body of the single-celled organism, similar to the legs of a centipede. These waves move the liquid along with them so that the ciliate — measuring roughly 100 micrometres, i.e. a tenth of a millimetre, as thick as a human hair — moves through the liquid.

“Our aim was to imitate this type of movement with a microrobot,” says Stefano Palagi, first author of the study at the Max Planck Institute for Intelligent Systems in Stuttgart, which also included collaborating scientists from the Universities of Cambridge, Stuttgart and Florence. Fischer, who is also a Professor for Physical Chemistry at the University of Stuttgart, states that it would be virtually impossible to build a mechanical machine at the length scale of the ciliate that also replicates its movement, as it would need to have hundreds of individual actuators, not to mention their control and energy supply.

https://www.youtube.com/watch?v=deCY0_Zveeg&feature=youtu.be

An Australian neurosurgeon has completed a world-first marathon surgery removing cancer-riddled vertebrae and successfully replacing them with a 3D-printed body part.

And it begins.

Judge Deborah Katz, a former scientist, is presiding over the case of who holds the key intellectual property rights for CRISPR.