Lifeboat Foundation

Constantly changing contact lenses is annoying and tedious. MIT developed a new hydrogel that could be the future of longer lasting contacts.

Luv this.

Researchers at The University of Manchester have developed a method of producing water-based and inkjet printable 2D material inks, which could bring 2D crystal heterostructures from the lab into real-world products.

Examples include efficient light detectors, and devices that are able to store information encoded in binary form which have been demonstrated, in collaboration with the University of Pisa.

Continue reading “Water-based and biocompatible 2D inks for printed electronics” »

Wonder which 3D printer she used?

Together with scientists, fashion designers have used graphene — a Nobel-Prize winning material that’s tougher than diamonds — to give their LBD a high-tech cut.

“We are trying to showcase the amazing properties of graphene,” Francesca Rosella, the co-founder of fashion company CuteCircuit, told CNN.

Continue reading “This graphene dress lights up when you breathe” »

Graphene is extremely versatile and ideal for biosensor technology, BMI, etc. we really have just began understanding its capabilities.

An international team of researchers under the umbrella of the EU-funded Graphene Flagship have taken a significant step in thermal infrared (IR) photodetctors with the development of the most sensitive uncooled graphene-based thermal detector yet fabricated. These new photodetectors, known as bolometers, are so sensitive that they can register the presence of a scant few nanowatts of radiation. That level of radiation is about a thousandth of what would be given off by a hand waving in front of the detector.

In the research described in the journal Nature Communications, scientists from the University of Cambridge, UK; the Institute of Photonic Sciences (ICFO), Spain; the University of Ioannina, Greece; and from Nokia and Emberion found that the combination of graphene and pyroelectric materials—which generate a voltage when they are heated or cooled—yields a unique synergy that boosts the performance of thermal photodetectors.

Continue reading “Graphene Infrared Eye Needs No Signal Amplification” »

A new technology for cleaning and maintaining your aquarium as well as useful for zoos, public aquariums, etc.

A new technology for fishing industry and hobbyists.1092647.htm

Engineers at MIT have fabricated transparent, gel-based robots that move when water is pumped in and out of them. The bots can perform a number of fast, forceful tasks, including kicking a ball underwater, and grabbing and releasing a live fish.

Continue reading “Transparent gel-based robots can catch and release live fish” »

Another write up on last week’s news on the Hydrogen metal discovery. Definitely impacting many industries tech, auto, construction/ building materials, etc.

It’s been over 80 years since the idea of metallic hydrogen was first theorized.

Continue reading “Has The ‘Holy Grail’ Of Solid Metallic Hydrogen Finally Been Created?” »

There are many people who could use a bit of help moving their limbs, but they don’t necessarily need a full-on exoskeleton. Well, imagine if their clothes could provide that help. Such a thing may one day be possible, thanks to the recent creation of “textile muscles.”

In a study conducted at Sweden’s Linköping University and University of Borås, scientists coated mass-producible cellulose yarn with a flexible electroactive polymer known as polypyrrole.

When a low voltage is applied to the polymer, it increases in volume, causing the yarn fibers to increase in length accordingly – when the electrical current is switched off, the fibers retract back to their original length. By varying the manner in which those fibers are woven together, it’s possible to tune the force of the material toward different tasks.

Nearly a century after it was theorized, Harvard scientists have succeeded in creating metallic hydrogen. In addition to helping scientists answer fundamental questions about the nature of matter, the material is theorized to have a wide range of applications, ranging from room-temperature superconductors to powerful rocket propellant.

Researchers at EPFL’s Laboratory of Photonic Materials and Fibre Devices, which is run by Fabien Sorin, have come up with a simple and innovative technique for drawing or imprinting complex, nanometric patterns on hollow polymer fibers. Their work has been published in Advanced Functional Materials.

The potential applications of this breakthrough are numerous. The imprinted designs could be used to impart certain optical effects on a fiber or make it water-resistant. They could also guide stem–cell growth in textured fiber channels or be used to break down the fiber at a specific location and point in time in order to release drugs as part of a smart bandage.