Lifeboat Foundation

Award-winning architect Lenka Petráková is pioneering a new way to tackle ocean pollution with an ambitious project named “The 8th Continent.” Her innovative design aims to recycle ocean plastic while functioning as a completely self-sustaining floating structure. If realized, it could mark a significant advancement in global conservation efforts.

“The 8th Continent” is an intricate, five-part structure designed to float on the ocean, equipped with greenhouses, living quarters, and biodegradable waste collectors. It represents more than just a plastic-collection unit; it’s a potential catalyst for restoring damaged marine ecosystems.

Continue reading “Majestic ‘8th continent’ collects and recycles plastic from the ocean” »

More than paying lip service, the cells may offer new opportunities to research and treat various lip conditions.

Researchers at Cornell have engineered a groundbreaking porous crystal using a unique fusion of macrocycle and molecular cage structures, enhancing lithium-ion transport in solid-state batteries.

This new crystal design features one-dimensional nanochannels that significantly increase ion conductivity, a development that promises safer batteries and has potential applications in water purification and bioelectronics.

By fusing two contorted molecular structures, Cornell researchers have developed a porous crystal capable of absorbing lithium-ion electrolytes and smoothly transporting them through one-dimensional nanochannels. This innovative design has the potential to enhance the safety of solid-state lithium-ion batteries.

Canadian startup’s approach could make hydrogen an everyday fuel.

Researchers have developed a groundbreaking method for tracking space debris with centimeter-level accuracy, improving space safety.

Optical computing aims to replace electricity with light to achieve faster, energy-saving computing.

Researchers have now developed an optical programmable logic array (PLA) that overcomes key hurdles, running advanced logic operations like Conway’s Game of Life. This breakthrough showcases optical computing’s future potential.

For years, researchers have explored ways to use light for computing, seeking faster speeds and reduced energy consumption compared to conventional electronic systems. Optical computing, which relies on light instead of electricity for calculations, offers promising advantages like high parallelism and efficiency. However, implementing complex logic functions with light has been challenging, limiting its practical applications.

In a new study, an international team of physicists has unified two distinct descriptions of atomic nuclei, taking a major step forward in our understanding of nuclear structure and strong interactions. For the first time, the particle physics perspective – where nuclei are seen as made up of quarks and gluons – has been combined with the traditional nuclear physics view that treats nuclei as collections of interacting nucleons (protons and neutrons). This innovative hybrid approach provides fresh insights into short-range correlated (SRC) nucleon pairs – which are fleeting interactions where two nucleons come exceptionally close and engage in strong interactions for mere femtoseconds. Although these interactions play a crucial role in the structure of nuclei, they have been notoriously difficult to describe theoretically.

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“Nuclei (such as gold and lead) are not just a ‘bag of non-interacting protons and neutrons’,” explains Fredrick Olness at Southern Methodist University in the US, who is part of the international team. “When we put 208 protons and neutrons together to make a lead nucleus, they interact via the strong interaction force with their nearest neighbours; specifically, those neighbours within a ‘short range.’ These short-range interactions/correlations modify the composition of the nucleus and are a manifestation of the strong interaction force. An improved understanding of these correlations can provide new insights into both the properties of nuclei and the strong interaction force.”

This in-depth analysis explores the implications of artificial superintelligence and why we must act now to ensure its development benefits humanity.

Anirban Datta, Head of Discovery Biology at Verseon International Corporation, details how recent breakthroughs are bringing once-distant possibilities, such as testing drugs more efficiently and restoring lost organ function through implantation, closer to reality.

Imagine being able to create an in vitro replica of a diseased organ to study the molecular mechanism underlying the illness. Now take a step further: envision testing drugs in these organoids to identify the ones that can treat disease safely and effectively without needing to run expensive clinical trials first. Further still, think about implanting these mini organs into the patient to restore lost function. With multiple breakthroughs in recent decades, these goals are now much closer to reality.