Predicting the Efficiency of Oxygen-Evolving Electrolysis on the Moon and Mars

Lomax and Just. Credit The University of Manchester

Scientists at The University of Manchester and The University of Glasgow have today provided more insight into the possibility of establishing a pathway to generate oxygen for humans to potentially call the Moon or Mars ‘home’ for extended periods of time.

Creating a reliable source of oxygen could help humanity establish liveable habitats off-Earth in an era where space travel is more achievable than ever before. Electrolysis is a popular potential method which involves passing electricity through a chemical system to drive a reaction and can be used to extract oxygen out of lunar rocks or to split water into hydrogen and oxygen...

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Researchers discover Repair Properties of a Protein Critical for Wound-Healing in Gut Diseases

An international team led by the Case Western Reserve University School of Medicine has discovered novel properties of the protein Gasdermin B that promotes repair of cells lining the gastrointestinal tract in people with chronic inflammatory disorders like Crohn’s disease and ulcerative colitis.

The new findings, recently published in the journal, Cell, are significant because the impact of Gasdermin B (GSDMB) on healing epithelium — a type of body tissue that lines the organs that have direct contact with the external environment — will play a key role in research on wound formation and designing novel therapeutics to enhance wound repair, said Theresa Pizarro, lead study author and the Louis Pillemer Professor of Experimental Pathology at the School of Medicine...

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Mutating Quantum Particles Set in Motion

​Density plots showing how two particles move through bosonic (“0”) and pseudo-fermionic (π) regions after being released next to each other in two different scenarios. Left: The particles start out as bosons and move together (solid lines) left and right before impinging on a 0-π; border, where they are partially reflected (solid lines) and partially split (dotted lines). For each splitting, one particle escapes the bosonic region. Right: Starting as pseudo-fermions, the particles move in a “superposition” of two ways: in one, they rapidly move apart as ordinary fermions and pass straight through the π-0 borders (dotted lines); in the other, they are bound together, move very slowly, and are forever trapped in the fermionic region (solid lines).

In the world of fundamenta...

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How Mars Lost its Oceans

Experiments to simulate Mars’ core may explain the loss of its magnetic field. It has long been known that Mars once had oceans due in part to a protective magnetic field similar to Earth’s. However, the magnetic field disappeared, and new research may finally be able to explain why. Researchers recreated conditions expected in the core of Mars billions of years ago and found that the behavior of the molten metal thought to be present likely gave rise to a brief magnetic field that was destined to fade away.

Whether it’s due to science fiction or the fact that you can see it with your own eyes from Earth, Mars has captured the imagination of people for centuries...

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