Self-cleaning walls, counter tops, fabrics, even micro-robots that can walk on water -- all those things and more could be closer to reality thanks to research recently completed by scientists at the University of Nebraska-Lincoln (UNL) and at Japan's RIKEN institute.
A material just six atoms thick in which electrons appear to be guided by conflicting laws of physics depending on their direction of travel has been discovered by a team of physicists at the University of California, Davis.
EU-funded scientists have developed a new, non-viral way of getting genes into a cell. The technique appears to avoid the side-effects, such as cancer, which can occur when viruses are used to smuggle genes into a cell.
In future, cartilage, tendon and blood vessel tissue will be produced in the laboratory, with cells being grown on a porous frame, such as non-wovens. A new software program helps to characterize and optimize the non-wovens.
Chemists at Ludwig-Maximilians-University Munich have analyzed a molecule, which has an extremely short bond length. As reported by the researchers in Nature Chemistry, the carbon atom and the chlorine atom in the so-called chlorotrinitromethane molecule are only 1.69 Angstroms apart from one another.
Carbon nanotubes have made a meteoric career in the past 15 years, even if their applications are still limited. One aspect which has rarely been considered so far is now addressed by researchers of the research center Forschungszentrum Dresden-Rossendorf.
Yale researchers describe a breakthrough in safe and effective administration of potential antiviral drugs - small interfering RNA (siRNA) molecules that silence genes - the first step in development of a new kind of treatment for sexually transmitted diseases (STDs).