Lifeboat Foundation

Researchers at the Masdar Institute are creating 3D printed high performance materials with custom-designed mechanical, thermal and electrical properties by manipulating the materials’ internal structures.

Way cool.

Ideally, injectable or implantable medical devices should not only be small and electrically functional, they should be soft, like the body tissues with which they interact. Scientists from two UChicago labs set out to see if they could design a material with all three of those properties.

The material they came up with, published online June 27, 2016, in Nature Materials, forms the basis of an ingenious light-activated injectable device that could eventually be used to stimulate nerve cells and manipulate the behavior of muscles and organs.

Continue reading “Injectable biomaterial could be used to manipulate organ behavior” »

Definitely makes sense when you consider how things work in nature.

Generally, water repellent objects and those that attract or absorb water have very different microscopic-level attributes that endow them with their behavior. For example, the myriad tiny hairs on a gecko’s body help it to efficiently repel water, whilst specially treated cotton designed for harvesting water from the air contains millions of tiny pores that draw in liquid. Now researchers have discovered a way to use a single type of material to perform both functions, switching between liquid attraction and liquid repulsion, simply through the application of an electric voltage.

Developed by a team of scientists from TU Wien, the University of Zurich, and KU Levin, the new material alters its water-handling behavior by changing its surface structure at the nanoscale to effect a change at the macroscale. Specifically, the behavior of liquid on the new material is as a result of altering the “stiction” (static friction) of the molecular surface. One with a high-level of stiction keeps moisture clinging to it, whilst one with a low-level allows the liquid to run right off.

Continue reading “New material switches from water-repelling to water-loving with electric current” »

Researchers use graphene to create a new way of converting electricity into light, delivering the possibility of dramatic speed improvements over today’s chips.

Great writeup and goes well with the other posting on DiAmanti’s new perfected synthetic diamonds.

Scientists in Japan have successfully recorded the atomic bonds between diamond and cubic boron nitride: the hardest known materials on earth. This feat could ultimately lead to the design of new types of semiconductors.

Diamond is the hardest material in existence but is useless for cutting steel because it reacts with iron, from which steel is made, at high temperatures. Cubic boron nitride, a synthetic material, is the second hardest substance after diamond but is chemically stable against iron at high temperatures. If desirable composites of diamond and cubic boron nitride crystals could be obtained, a unique machining tool could be developed for work on hard rock and substances that contain iron. Also, a better understanding of the bonds formed between these two unique semiconducting materials could lead to the development of new types of semiconductors. The nature of these bonds was previously unknown.

Continue reading “Map of diamond-boron bond paves way for new materials” »

The newest material of modern art? Bone.

Researchers at MIT and elsewhere have found a new way of generating light and other electromagnetic radiation, using a sheet of graphene, a pure two-dimensional form of carbon.

In experiments at two Department of Energy national labs – SLAC National Accelerator Laboratory and Lawrence Berkeley National Laboratory – scientists at Hewlett Packard Enterprise (HPE) have experimentally confirmed critical aspects of how a new type of microelectronic device, the memristor, works at an atomic scale.

This result is an important step in designing these solid-state devices for use in future computer memories that operate much faster, last longer and use less energy than today’s flash memory. The results were published in February in Advanced Materials.

“We need information like this to be able to design memristors that will succeed commercially,” said Suhas Kumar, an HPE scientist and first author on the group’s technical paper.

Continue reading “X-ray Experiments Show Hewlett Packard Team How Memristors Work” »

Originally published on Gas2.

Hyperloop Transportation Technologies (HTT) says it has created a new material that is ten times stronger than steel but 5 times lighter than aluminum. Think about that for a minute. Assuming those claims can be verified, and also assuming the material is not otherworldly expensive, it may take the place of carbon fiber the way Saran Wrap displaced waxed paper.

Continue reading “Hyperloop Company Claims New Material Is 10X Stronger Than Steel, 5X Lighter Than Aluminum” »