<p>Thanks to graphene, research institutes worldwide are already looking at ways to build better touch-screens, ultrafast transistors and photo-detectors.<br /><br />Graphene permits flow of electrons at much higher speeds than they do in silicon, the substance that existing computer chips rely on.<br /><br />The material's amazing flexibility would help scientists design smartphones and computers that could be folded into any shape or design. Graphene is also 200 times tougher than steel, according to a University of Manchester, Britain, statement.<br /><br />Graphene, a single layer of carbon atoms, was discovered by Konstantin Sergeevich Novoselov and Andre Geim, at the university. They shared the 2010 Nobel Prize for physics for work on the material.<br /><br />They prepared extremely high-quality graphene devices by suspending the sheets of the material in a vacuum to avoid scattering electrons, engaging them to interact much more intensely. <br /><br />"The progress has been possible due to a quantum leap in improvement of the sample quality which could be produced at the University of Manchester," Geim said.<br /></p>
<p>Thanks to graphene, research institutes worldwide are already looking at ways to build better touch-screens, ultrafast transistors and photo-detectors.<br /><br />Graphene permits flow of electrons at much higher speeds than they do in silicon, the substance that existing computer chips rely on.<br /><br />The material's amazing flexibility would help scientists design smartphones and computers that could be folded into any shape or design. Graphene is also 200 times tougher than steel, according to a University of Manchester, Britain, statement.<br /><br />Graphene, a single layer of carbon atoms, was discovered by Konstantin Sergeevich Novoselov and Andre Geim, at the university. They shared the 2010 Nobel Prize for physics for work on the material.<br /><br />They prepared extremely high-quality graphene devices by suspending the sheets of the material in a vacuum to avoid scattering electrons, engaging them to interact much more intensely. <br /><br />"The progress has been possible due to a quantum leap in improvement of the sample quality which could be produced at the University of Manchester," Geim said.<br /></p>