Researchers have found that the temperature increase caused by the probe beam could be utilized to generate a signal per se for detecting objects. Notably, this so-called 'active thermal detection' enables super-resolution imaging at all scales, compared to conventional techniques whose application are confined to microcopy only.
Sunday, December 22, 2019
Super-resolution at all scales with active thermal detection
Researchers have found that the temperature increase caused by the probe beam could be utilized to generate a signal per se for detecting objects. Notably, this so-called 'active thermal detection' enables super-resolution imaging at all scales, compared to conventional techniques whose application are confined to microcopy only.
Researchers realize a quantum heat engine in the lab
A new experimental proof-of-concept quantum Otto cycle, using nuclear spins, has reached an efficiency close to its thermodynamic limit at maximum power.
Friday, December 20, 2019
Why are alloy metal nanoparticles better than monometallic ones for carbon nanotubes growth?
Revealing a long-term mystery of why certain nanoparticles are more efficient in incorporating carbon atoms and achieving a faster carbon nanotube growth.
Thursday, December 19, 2019
Researchers directly measure 'Cheerios effect' forces for the first time
In a finding that could be useful in designing small aquatic robots, researchers have measured the forces that cause small objects to cluster together on the surface of a liquid -- a phenomenon known as the 'Cheerios effect'.
Researchers apply temperature gradients to grow and move liquid crystals
Researchers have discovered that applying a small difference in temperature to a watered-down mixture of a compound called zirconium phosphate initiates its liquid crystallization. As zirconium phosphate particles move toward warmer temperatures, they start aligning themselves with each other and eventually turn into pure liquid crystals.
Playing the angles with dramatic effect
Researchers develop new materials theory relevant to ultrafast electronics, batteries and more.
New quantum material with intrinsically magnetic and topological properties
An international consortium of chemists and physicists has discovered a new type of quantum material with intrinsic magnetic and topological properties. Since they manifest without doping or strong external magnetic fields, this material may lead the way to new applications in spintronics, two-dimensional magnetism and quantum transport.
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