An international team of scientists using a combination of radio and optical telescopes has for the first time managed to identify the location of a fast radio burst, allowing them to confirm the current cosmological model ...
Astronomy
Feb 24, 2016
43
2083
The breakthrough findings, reported in the journal Nature, allow better understanding of the counterintuitive behaviour of water at the molecular scale and are important for development of more efficient technologies including ...
Nanophysics
Mar 25, 2015
0
557
Published in the scientific journal Nature Materials, University of Manchester and University of Sheffield researchers show that new 2D 'designer materials' can be produced to create flexible, see-through and more efficient ...
Nanophysics
Feb 2, 2015
0
1945
Graphene, impermeable to all gases and liquids, can easily allow protons to pass through it, University of Manchester researchers have found.
Nanophysics
Nov 26, 2014
0
0
(Phys.org) —The finding of a 'cell-like' structure, which investigators now know once held water, came about as a result of collaboration between scientists in the UK and Greece. Their findings are published in the latest ...
Space Exploration
Sep 15, 2014
2
0
Electrons that break the rules and move perpendicular to the applied electric field could be the key to delivering next generation, low-energy computers, a collaboration of scientists from the University of Manchester and ...
Nanomaterials
Sep 11, 2014
4
0
Sandwiching layers of graphene with white graphene could produce designer materials capable of creating high-frequency electronic devices, University of Manchester scientists have found.
Nanomaterials
Sep 8, 2014
0
0
A stunning video based on fossils of a 410-million-year-old arachnid – one of the first predators on land – recreates the animal walking.
Archaeology
Jul 8, 2014
3
0
Combining black and white graphene can change the electronic properties of the one-atom thick materials, University of Manchester researchers have found.
Nanophysics
Jun 1, 2014
1
0
Scientists from The University of Manchester have discovered that 'lonely' microbes are more likely to mutate, resulting in higher rates of antibiotic resistance.
Cell & Microbiology
Apr 29, 2014
0
0
