Myke Payne🔺

If you love to cook, you need to check this recipe for risotto. Do yourself a favor and make one for your fam. Recipe by chef Gordon Ramsay. Ingredients needed for the risotto: 100g Arborio rice (use top quality like Carnroli or Nano) 25g white onion, finely diced 20g coconut oil 125g fresh garden peas 40g fresh garden peas, pureed 350ml vegetable stock Salt and pepper to taste 1 mint sprig Pea shoots For the mint oil: 1 bunch of mint 400ml extra virgin olive oil Recipe for the mint oil: Wash the bunch of mint and pat dry. Strip the leaves from the stalks and lay out onto an oven tray. Heat at around 80°C for 2-3 hours to dry out the leaves. Add the mint leaves and olive oil to a saucepan. On a very low heat, warm the olive oil for 1 hour until the oil is green. Blitz the oil in a blender and pass through muslin or very fine sieve. You will then have a beautiful clear mint oil, which you can drizzle around the risotto. Recipe for the risotto: Add the coconut oil to a saucepan pan and sweat the onions on a medium-low heat until tender and translucent. Do not allow to colour or brown. Add the Arborio rice to the onion and stir to coat the grains in oil. Add half of the stock to the pan and bring to a gentle simmer. Ensure it retains a constant heat and gently stir as it cooks – it should take around 20 minutes. As the rice absorbs the water and begins to swell, add the remaining liquid gradually as it is absorbed. Season with a little salt and pepper. Meanwhile, in a blender, add 40g of the fresh garden peas with a splash of water and pulse into a puree. When the rice is tender, add the mint sprig. Remove from the heat and gently stir in the pea puree, and fresh peas. Mix through, remove the mint sprig and season to taste with salt and pepper. Serve into a bowl and dress with pea shoots, and a drizzle of mint oil.

You cannot watch a powerful computer think without changing its result, and that strange rule shapes modern research today. During operation, observation alters behavior, forcing engineers to work blind. Systems must be sealed, timed, and trusted to finish unseen, then measured only at the end. This limitation feels unsettling, yet it defines how progress advances carefully in challenging conditions worldwide. At the core is a fragile process where information exists in many possibilities at once. Checking mid task collapses those possibilities into a single outcome, ruining the calculation. Researchers design isolation chambers, extreme cooling, and precise timing so computations evolve undisturbed, relying on trust and theory rather than constant monitoring during execution phases across complex experimental environments built today globally. This creates a new relationship between humans and machines. Instead of watching every step, people set conditions and wait. Patience replaces control. Success depends on preparation, not interference. The moment of measurement becomes dramatic, revealing answers all at once. That delay builds tension and respect for processes operating beyond direct human oversight in advanced computing labs worldwide, today still evolving. The limitation also fuels imagination. If observing changes outcomes, then reality itself feels responsive. Engineers must accept uncertainty and design around it. This mindset influences security, optimization, and problem solving. It encourages humility, reminding teams that not everything can be watched, paused, or corrected in real time during complex operations under strict constraints set by physics, hardware, policy, risk, safety. Understanding this rule reshapes expectations for the future. Progress will be quieter, slower, and more deliberate. Breakthroughs arrive as final reveals, not live performances. Trust in setup becomes essential. As tools grow stronger, learning when not to look may matter as much as knowing what to build, test, and deploy responsibly across global research programs, industries, education, ethics, society ahead.

The fight against plastic pollution is showing real results. The Ocean Cleanup project has now removed more than ten million kilograms of plastic from rivers and oceans, marking a significant milestone in the effort to protect marine ecosystems. Every year, millions of tons of plastic enter waterways, threatening wildlife, damaging habitats, and breaking down into microplastics that can eventually enter the food chain. To address this growing crisis, The Ocean Cleanup has developed innovative technologies designed to capture plastic before it spreads across the world's oceans. Their systems operate both in rivers, where much of the pollution originates, and in ocean regions where floating debris accumulates. Removing over ten million kilograms of waste is more than just a number—it represents cleaner beaches, healthier marine environments, and fewer dangers for countless species of fish, seabirds, turtles, and marine mammals. It also demonstrates how engineering, science, and environmental action can work together to tackle one of the planet's most visible pollution challenges. While this achievement is encouraging, experts emphasize that cleanup alone is not enough. Reducing plastic consumption, improving recycling systems, and preventing waste from entering waterways remain essential for long-term success. The ultimate goal is not only to remove existing pollution but also to stop new pollution from reaching the oceans in the first place. The progress made so far proves that large-scale environmental challenges can be addressed through innovation, determination, and global cooperation. Every kilogram removed helps restore ecosystems and brings the world one step closer to cleaner oceans for future generations. Protecting the oceans is not just about preserving nature—it is about safeguarding a resource that supports life, climate stability, food security, and economic activity across the globe.

Scientists may have seen strange effects in a quantum experiment that seemed to change when observed. Researchers at CERN recently shared results from advanced quantum simulations that have sparked debate in the physics community. While studying complex quantum interactions, scientists built a highly detailed simulation. During testing, the system showed pattern changes that appeared linked to measurement and observation. It is important to clarify that no confirmed parallel universe was discovered. In quantum mechanics, particles can behave differently when measured. This is known as the observer effect. In the simulation, outcomes shifted when researchers measured certain parts of the system. This does not mean the system was aware. Instead, it reflects how quantum systems respond to interaction during measurement.

The Future of Batteries May Come From the Most Unexpected Places. For more than 20 years, lithium batteries have powered the modern world, from phones and laptops to electric vehicles and renewable energy systems. But researchers are now exploring surprising new battery chemistries that could make energy storage safer, cleaner, and longer lasting. One reported breakthrough involves a battery inspired by tofu brine chemistry, using water-based materials instead of rare or toxic components. The idea is attracting attention because it could reduce fire risks linked to thermal runaway, the dangerous overheating problem that can affect conventional lithium-ion batteries. The claim that such batteries could last up to 300 years should be treated carefully, because many long-lifespan estimates are based on laboratory material stability rather than real-world daily use. But even if the final commercial lifespan is much shorter, safer and more sustainable batteries could still transform homes, electric vehicles, and renewable energy grids. What makes this innovation exciting is how simple and unexpected it sounds. A material connected to tofu production could help inspire cleaner energy storage, reduce electronic waste, lower replacement costs, and support solar and wind power. The next battery revolution may not come from rare minerals, but from safer chemistry hiding in everyday life.

Humanity is building a final witness before disaster fully unfolds. In a remote part of Australia, scientists and engineers are constructing what many call Earth's Black Box, a massive steel structure designed to survive floods, fires, cyberattacks, and even civilization level collapse. Inspired by the flight recorders used in airplanes, this system will continuously store scientific data about climate change, environmental destruction, energy consumption, rising temperatures, political decisions, and major global events. Its purpose is both chilling and deeply important. If humanity fails to stop escalating global crises, future generations may one day discover exactly what happened and why. - The project is powered by solar energy and built using thick steel plates capable of surviving extreme conditions for decades. Researchers say the system will collect information from satellites, climate reports, news sources, and scientific databases to create a permanent timeline of human activity on Earth.

When Vladimir Putin was captured by a hot mic telling Xi Jinping that humans could achieve immortality by replacing their organs, some dismissed the exchange as eccentric small talk between aging autocrats. In fact, during the conversation at a Beijing military parade last September, Putin appeared to be describing a Kremlin-backed longevity initiative that has become one of Russia’s flagship scientific projects. Like Silicon Valley billionaires including Jeff Bezos, Sam Altman and Peter Thiel, Putin has long been fascinated with antiaging research. But in Russia, Putin’s quest to stave off decline is now a state priority relying on methods as wide-ranging as organ printing, harvesting mini-pigs and exposure to ultralow temperatures. Last month, Russia’s government announced that scientists are developing a gene-therapy treatment aimed at slowing cellular aging as part of “New Health Preservation Technologies,” Putin’s $26 billion longevity initiative.

A former NASA engineer says his team has developed a propulsion system capable of generating thrust without expelling propellant, a claim that, if verified, could reshape the future of space travel and challenge long-standing assumptions about physics. The technology comes from Exodus Propulsion Technologies, a private company led by Charles Buhler, an electrostatics specialist who helped establish the Electrostatics and Surface Physics Laboratory at NASA’s Kennedy Space Center. Buhler claims his team has discovered what he calls a “New Force,” generated by electric fields, that can produce enough thrust to counter Earth’s gravity without ejecting mass. The extraordinary claim has attracted attention but has not yet been independently verified. Details of the project have been discussed publicly, according to Popular Mechanics. The announcement has drawn comparisons to the controversial EmDrive, a propulsion concept introduced in 2001 by British engineer Roger Shawyer. The EmDrive gained attention because it appeared to generate thrust without propellant, seemingly violating the conservation of momentum, a fundamental law of physics. While early experiments produced promising signals, later studies failed to confirm the effect, and researchers ultimately concluded that measurement errors were responsible for the observed thrust.