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Summary: Researchers are utilizing the C. elegnas worm to investigate the emerging theory that Parkinson’s disease starts in the gut and spreads to the brain.

Source: medical college of georgia at augusta university.

A tiny worm called the C. elegans is enabling scientists to explore the emerging theory that Parkinson’s disease starts in the gut.

Magnetic fields abound in the universe. Despite the fact that the Universe is electrically neutral, atoms may be ionized into positively and negatively charged nuclei and electrons.

According to Science Alert, magnetic fields are created when charges are accelerated. Collisions between and inside interstellar plasma are one of the most prevalent sources of large-scale magnetic fields. This is one of the primary generators of magnetic fields at the cosmic scale.

The elixir of life has been sought for thousands of years. Today a scientific revolution has begun. Hannah joins bio-hackers in California, and a neuroscientist along the streets of Tokyo to experience the latest age-defying techniques and examines what it means to live to a healthy, happy old age. What will extended lifespans mean for society, and will the effort all be worthwhile in the end? (Source: Bloomberg)

One of the great questions for humanity is whether we are alone in the universe. Indeed, astrobiologists appear tantalizingly close to being able to spot the signs of life on other Earths — should it exist elsewhere — using modern observatories such as the James Webb Space Telescope.

Now a group of astronomers have taken this question further by asking whether life could exist in other universes. In other words, they want to know whether we are alone in the multiverse. And they have developed a way to explore this question by considering the range of conditions that might exist in other universes.

The question comes about because the fundamental constants that govern physical laws have values that seem perfectly arranged to allow life to emerge.

The Standard Model of particle physics is our current best-guess on what the blue-prints for matter looks like. Of all of its predictions, none are as precise as the magnetic moment of the electron.

Not only is it precisely predicted, it’s among the most accurately measured of any particle’s properties. And while these two values are close, they don’t overlap entirely, providing tantalizing hints of new physics.

Getting closer to the exact value of the electron magnetic moment – simply put, how strongly an electron behaves like a tiny magnet – might one day unlock a greater understanding of the building blocks of physics and how they interact.

An updated metric for prioritizing species’ conservation that incorporates scientific uncertainty and complementarity between species, in addition to extinction risk and evolutionary distinctiveness, has been published on February 28 in the open access journal PLOS Biology, authored by Rikki Gumbs from the Zoological Society of London (ZSL), U.K., and colleagues.

In 2007, ZSL established the Evolutionarily Distinct and Globally Endangered (EDGE) metric to prioritize species for conservation based on preserving embodied within . The approach allocates each species a score based on the evolutionary distance, measured in millions of years, that separates a species from its closest living relatives, and its conservation status in the IUCN Red List.

EDGE has since been applied to mammals, amphibians, birds, sharks and rays, corals, and flowering plants, and is used to allocate conservation funding. To update the EDGE metric to incorporate recent advances in and conservation, ZSL hosted a workshop for conservation scientists and practitioners, who reached a consensus on EDGE2—an updated metric that includes the of closely related species and uncertainty in species’ relationships and conservation status.