Tidally Locked Exoplanets may be more Common than previously thought

Tidally locked bodies such as the Earth and moon are in synchronous rotation, each taking as long to rotate around its own axis as it does to revolve around its host star or gravitational partner. New research from UW astronomer Rory Barnes indicates that many exoplanets to be found by coming high-powered telescopes also will probably be tidally locked — with one side permanently facing their host star, as one side of the moon forever faces the Earth. Credit: NASA

Tidally locked bodies such as the Earth and moon are in synchronous rotation, each taking as long to rotate around its own axis as it does to revolve around its host star or gravitational partner. New research from UW astronomer Rory Barnes indicates that many exoplanets to be found by coming high-powered telescopes also will probably be tidally locked — with one side permanently facing their host star, as one side of the moon forever faces the Earth. Credit: NASA

Tidal locking results when there is no side-to-side momentum between a body in space and its gravitational partner and they become fixed in their embrace...

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Herpesvirus study in mice leads to discovery of potential Broad-Spectrum antiviral

Image: The spread of herpes simplex virus infection (green, left) is suppressed in cells treated with EZH2/1 inhibitors (GSK126 or GSK343). Credit: NIAID

Image: The spread of herpes simplex virus infection (green, left) is suppressed in cells treated with EZH2/1 inhibitors (GSK126 or GSK343). Credit: NIAID

After herpesviruses infect a cell, their genomes are assembled into specialized protein structures called nucelosomes. Many cellular enzyme complexes can modulate these structures to either promote or inhibit the progression of infection. Scientists studying how one of these complexes (EZH2/1) regulated herpes simplex virus (HSV) infection unexpectedly found that inhibiting EZH2/1 suppressed viral infection...

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New Method for the 3D Printing of Living Tissues

This is an image of the 3-D droplet bioprinter, developed by the Bayley Research Group at Oxford, producing mm-sized tissues. Credit: Sam Olof/ Alexander Graham

This is an image of the 3-D droplet bioprinter, developed by the Bayley Research Group at Oxford, producing mm-sized tissues. Credit: Sam Olof/ Alexander Graham

Scientists at the University of Oxford have developed a new method to 3D-print laboratory- grown cells to form living structures. The approach could revolutionise regenerative medicine, enabling the production of complex tissues and cartilage that would potentially support, repair or augment diseased and damaged areas of the body...

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Single Molecules can work as Reproducible Transistors/ Diodes – at Room Temperature

Columbia researchers wired a single molecular cluster to gold electrodes to show that it exhibits a quantized and controllable flow of charge at room temperature. Credit: Bonnie Choi/Columbia University

Columbia researchers wired a single molecular cluster to gold electrodes to show that it exhibits a quantized and controllable flow of charge at room temperature.
Credit: Bonnie Choi/Columbia University

Researchers are first to reproducibly achieve the current blockade effect using atomically precise molecules at room temperature, a result that could lead to shrinking electrical components + boosting data storage + computing power. Current blockade is the ability to switch a device from the insulating to the conducting state where charge is added and removed one electron at a time.

Bonnie Choi, a graduate student in the Roy group created a single cluster of geometrically ordered atoms with an inorganic core made of just 14 atoms – resulting in a diameter of about 0...

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