Sustainable Flourishing

Their findings were published in the scientific journal Plant Biotechnology Journal. To reach these conclusions, the researchers rebuilt enzymes that no longer exist today but were active millions of years ago in early ancestors of the cannabis plant. Enzymes are essential to cannabinoid production in cannabis, driving the chemical reactions that create these bioactive compounds with recognized medicinal potential.

Researchers from the University of Colorado Boulder, University of Arizona, and Sandia National Laboratories have developed a new device that generates controlled vibrations on the surface of a microchip. These waves could help future smartphones become thinner, faster, and more efficient at handling wireless signals.

According to the research paper, they have developed a surface acoustic wave (SAW) phonon laser that can create “the tiniest earthquakes imaginable”. Instead of light, this laser sends mechanical waves that skim along the surface of a material.

Phones already rely on surface acoustic waves to clean up messy wireless signals, but it requires multiple components. This new approach aims to compress much of that work into a single, compact chip, freeing up space while improving performance.

As he addressed an audience of virologists from China, Australia, and Singapore at October’s Pandemic Research Alliance Symposium, Wei Zhao introduced an eye-catching idea.

The gene-editing technology Crispr is best known for delivering groundbreaking new therapies for rare diseases, tweaking or knocking out rogue genes in conditions ranging from sickle cell disease to hemophilia. But Zhao and his colleagues at Melbourne’s Peter Doherty Institute for Infection and Immunity have envisioned a new application.

A RARE blue parrot declared extinct in the wild has hatched for the first time at a conservation centre, sparking new hope for the species.

The Spix’s macaw chick was born at the Centre for the Conservation of Endangered Bird Species in Pairi Daiza, a zoo in Cambron-Casteau, Belgium, on September 21.

It is the first chick of its species to hatch at the park after 100 previous eggs failed to be fertilised, marking a major breakthrough in an international breeding programme to save the world’s rarest parrot.

The zoo said: “Egg 101 is a true miracle of life, the result of years of effort and patience,” and described it as “a birth more precious than gold.”

Specialists decided to remove the egg from its inexperienced parents before it hatched to increase the chick’s chances of survival.

Its caretaker Thomas Biagi said having to feed the chick every two hours was exhausting but motivating because “we’re literally holding the future of one of the world’s most endangered species in our hands.”

Imagine a future where the internet isn’t just fast, it’s fundamentally different. Where information doesn’t travel through cables in bits and bytes, but dances across space in entangled photons, instantaneously linking quantum computers continents apart. In this shimmering vision of tomorrow, the backbone of communication is no longer copper or fiber; it’s quantum light.

At the heart of this revolution is a peculiar phenomenon known as squeezed light, and a team of researchers from the U.S. Department of Energy’s Fermi National Accelerator Laboratory and the California Institute of Technology believes it may be the key to unlocking scalable quantum networks. Their latest study, led by Fermilab scientist Alexandru Macridin, marks a pivotal step toward building a quantum internet, one that could transform scientific research, cryptography, and computing itself.

Quantum networks rely on entangled qubits: pairs of quantum bits that remain mysteriously connected, no matter how far apart they are. In quantum physics, entanglement is the ghostly thread that links particles across space, such that a change in one instantly affects the other. It’s a phenomenon Einstein famously referred to as “spooky action at a distance,” and it forms the cornerstone of quantum communication.