Latest news with #universe
UAE Moments
5 hours ago
- Lifestyle
- UAE Moments
♌ Leo Daily Horoscope for July 20, 2025
The full moon hype is fading, and the universe is handing you a bit of breathing room. Today is about refining your energy, not exhausting it. Instead of chasing the spotlight, you're being guided to check in with your goals, your people, and your peace. There's power in being low-key when you need to recharge your roar. 💼 Career & Ambitions: Today's all about fine-tuning the details. You've got the big ideas, but now's your chance to add polish. Double-check your work, review that email before hitting send, and follow up with someone you've been meaning to reconnect with. Slow and steady wins this race. 💖 Love & Relationships: You're feeling more grounded in your relationships today, and it shows. If you're partnered, meaningful conversation > grand gestures. If you're single, don't chase — attract. Someone who values emotional depth may notice your more chill vibe. 💪 Body & Wellness: Your body's craving routine and structure. Keep it simple: hydrate, stretch, and get some sleep. A short walk or a clean meal might feel surprisingly good today. Bonus points if you unplug from screens for an hour. 🧠 Mental Health Check: Your mind is clearer than it's been all week, but don't overload it with new tasks. Use today to reflect, organize your space, or make a small shift in a habit that's been dragging you down.
Sustainability Times
a day ago
- Science
- Sustainability Times
'Quantum Reality Is Crumbling': Scientists Confirm Gravity and Space-Time Dramatically Alter the Quantum World in Astonishing New Findings
IN A NUTSHELL 🔬 Scientists are exploring the interplay between quantum mechanics and gravity using advanced quantum networks. are exploring the interplay between quantum mechanics and gravity using advanced quantum networks. 🌌 Quantum networks could lead to a globally connected quantum internet, utilizing qubits and entanglement for secure communication. and for secure communication. 🔍 Research aims to determine if gravity can alter quantum mechanics, potentially contributing to a unified theory of quantum gravity. can alter quantum mechanics, potentially contributing to a unified theory of quantum gravity. 🚀 These efforts could revolutionize our understanding of the universe and redefine fundamental physics. In a groundbreaking exploration of physics, scientists are delving into the complex relationship between quantum mechanics and gravity. Their efforts could pave the way for a deeper understanding of the universe's fundamental laws. Utilizing advanced quantum networks, these researchers aim to uncover how the interaction between curved space-time and quantum theory might lead us closer to a unified theory of quantum gravity. As they push the boundaries of modern science, the potential implications for technology and our comprehension of the cosmos are profound. This endeavor could revolutionize both scientific theory and practical applications in ways we have yet to imagine. The Interplay Between Quantum Theory and Gravity The relationship between quantum theory and gravity has long intrigued scientists. Quantum networking is rapidly becoming a pivotal tool in this exploration, with the potential to revolutionize global communications. Unlike traditional methods that rely on electrons and photons, quantum networks utilize qubits and entanglement to transfer information. This transformative approach could lead to a globally connected quantum internet, offering unprecedented levels of security and reach. In a recent publication in PRX Quantum, researchers Igor Pikovski, Jacob Covey, and Johannes Borregaard highlighted the potential of quantum networks to test the interplay between quantum theory and gravity. Their work introduces a new protocol leveraging entangled W-states, showcasing how quantum effects can be observed across network nodes. By utilizing advanced techniques like quantum teleportation and entangled Bell pairs, these scientists are testing how quantum theory operates within the framework of curved space-time. 'They're Turning Pollution Into Candy!': Chinese Scientists Stun the World by Making Food from Captured Carbon Emissions Could Gravity Alter the Effects of Quantum Mechanics? The apparent disparity between Einstein's General Theory of Relativity and quantum mechanics presents one of physics' most intriguing challenges. Quantum mechanics focuses on the behavior of matter at atomic and subatomic levels, while classical physics deals with larger objects. This dichotomy raises the question: could gravity influence quantum mechanics in ways we have yet to understand? Current experiments aim to determine if differences in space-time might alter atomic and subatomic behaviors. Igor Pikovski emphasizes that while quantum theory is assumed to be universally applicable, gravity could potentially modify its effects. The research being conducted with quantum networks suggests that these networks could extend beyond future technological applications to become critical tools for exploring fundamental physics in ways previously unattainable with classical computing. 'They Tried to Kick It Down—It Didn't Budge!': China's Two-Legged Robot Dog Defies Terrain, Attacks, and Gravity Quantum Networks: The Path to a Unified Theory Quantum networks are not only technological marvels but also powerful tools for scientific exploration. By facilitating the study of quantum effects within curved space-time, they may help bridge the gap between quantum mechanics and general relativity. This could lead to the long-sought unified theory of quantum gravity, offering insights into the fundamental nature of the universe. The researchers' innovative use of entangled states and advanced quantum techniques underscores the significant potential of quantum networks. These networks allow for the observation and analysis of phenomena that classical methods cannot address, positioning them as a cornerstone in the quest for a unified theory. As these networks evolve, they promise to transform both scientific understanding and practical applications, opening new frontiers in physics and technology. 'They're Making Space Drugs Now': Varda Space Unleashes Orbital Lab to Manufacture Medicines Earth's Gravity Could Never Allow The Future of Quantum Exploration The ongoing research into the relationship between quantum mechanics and gravity is a testament to human curiosity and ingenuity. By harnessing the power of quantum networks, scientists are opening new avenues for exploration and discovery. As they continue to probe the complexities of space-time and quantum theory, the possibilities for technological advancement and scientific insight are limitless. As we stand on the brink of a new era in physics, the potential for quantum networks to reshape our understanding of the universe is both exciting and profound. Will these efforts ultimately lead to a unified theory that reconciles the principles of quantum mechanics with gravity? The journey is just beginning, and the answers may redefine our perception of reality itself. This article is based on verified sources and supported by editorial technologies. Did you like it? 4.3/5 (29)
Globe and Mail
2 days ago
- General
- Globe and Mail
Your daily horoscope: July 18, 2025
There will be times this year when you get caught in the middle of other people's fights and feuds but the universe is putting you in that position for a reason. If you can help others resolve their issues your own issues won't seem so bad. Your services will be much in demand today but there is a danger you could agree to do too much and overextend yourself. You should know by now that the most useful word in the dictionary is 'No'. Don't feel bad about using it occasionally. You can easily make a good impression on people in positions of power today, simply by being yourself and refusing to settle for second best in anything you do. Your commitment to excellence means you will stand out from less motivated colleagues. It's not like you to avoid the spotlight but as your ruling planet Mercury begins its retrograde phase today you probably won't be much in the mood to draw attention to yourself. Even a Gemini needs to hang back in the shadows now and again. Keep things simple over the next 24 hours. The more complicated you allow your tasks to become the less likely you are to finish them before the sun leaves your sign next Tuesday. A step at a time can still take you a very long way. The more advice you get from other people the more inclined you will be to ignore it, and that's no bad thing. Deep down you suspect that some of those people may be telling you half-truths, so believe nothing you cannot prove for yourself. Mars in your sign makes you super confident but with Mercury, your ruler, beginning its retrograde phase today there will also be moments when self-doubt creeps in. Maybe it would pay you to be a bit more cautious, but don't switch off altogether. A more outgoing phase will begin when the sun moves into the friendship area of your chart early next week, but between now and then it won't hurt to hold back a little. There is no cosmic law that says you have to be best pals with everyone. You don't have time to watch the world go by – you have important matters to take care of and you know if you don't resolve them now they may never get done. The key to success is to keep moving once you have got some momentum going. If you are on the move today you must watch where you put your feet. The planets warn there is a danger that in your rush to get ahead of your rivals you could overlook a small obstacle that could bring you down in a very big way. You have never been the sort to waste money on unnecessary treats and you are not about to start now. Keep your cash in your pocket today and ignore those who say you should loosen the purse strings a bit – if anything you should be tightening them. The most important thing today is that you get back as much as you put in. That applies mainly to the amount of time and energy you invest to get things done for other people but also to how much it costs you financially. Don't worry too much if you find it hard to get inspired today. As mind planet Mercury moves into its retrograde phase there will be times when you doubt if your efforts make much of a difference but that negative outlook won't last for long. Discover more about yourself at
The Independent
3 days ago
- Science
- The Independent
Scientists make antimatter discovery that could unlock secrets of big bang
Why didn't the universe annihilate itself moments after the big bang? A new finding at Cern on the French-Swiss border brings us closer to answering this fundamental question about why matter dominates over its opposite – antimatter. Much of what we see in everyday life is made up of matter. But antimatter exists in much smaller quantities. Matter and antimatter are almost direct opposites. Matter particles have an antimatter counterpart that has the same mass, but the opposite electric charge. For example, the matter proton particle is partnered by the antimatter antiproton, while the matter electron is partnered by the antimatter positron. However, the symmetry in behaviour between matter and antimatter is not perfect. In a paper published this week in Nature, the team working on an experiment at Cern, called LHCb, has reported that it has discovered differences in the rate at which matter particles called baryons decay relative to the rate of their antimatter counterparts. In particle physics, decay refers to the process where unstable subatomic particles transform into two or more lighter, more stable particles. According to cosmological models, equal amounts of matter and antimatter were made in the big bang. If matter and antimatter particles come in contact, they annihilate one another, leaving behind pure energy. With this in mind, it's a wonder that the universe doesn't consist only of leftover energy from this annihilation process. However, astronomical observations show that there is now a negligible amount of antimatter in the universe compared to the amount of matter. We therefore know that matter and antimatter must behave differently, such that the antimatter has disappeared while the matter has not. Understanding what causes this difference in behaviour between matter and antimatter is a key unanswered question. While there are differences between matter and antimatter in our best theory of fundamental quantum physics, the standard model, these differences are far too small to explain where all the antimatter has gone. So we know there must be additional fundamental particles that we haven't found yet, or effects beyond those described in the standard model. These would give rise to large enough differences in the behaviour of matter and antimatter for our universe to exist in its current form. Revealing new particles Highly precise measurements of the differences between matter and antimatter are a key topic of research because they have the potential to be influenced by and reveal these new fundamental particles, helping us discover the physics that led to the universe we live in today. Differences between matter and antimatter have previously been observed in the behaviour of another type of particle, mesons, which are made of a quark and an antiquark. There are also hints of differences in how the matter and antimatter versions of a further type of particle, the neutrino, behave as they travel. The new measurement from LHCb has found differences between baryons and antibaryons, which are made of three quarks and three antiquarks respectively. Significantly, baryons make up most of the known matter in our universe, and this is the first time that we have observed differences between matter and antimatter in this group of particles. The LHCb experiment at the Large Hadron Collider is designed to make highly precise measurements of differences in the behaviour of matter and antimatter. The experiment is operated by an international collaboration of scientists, made up of over 1,800 people based in 24 countries. In order to achieve the new result, the LHCb team studied over 80,000 baryons ('lambda-b' baryons, which are made up of a beauty quark, an up quark and a down quark) and their antimatter counterparts. Crucially, we found that these baryons decay to specific subatomic particles (a proton, a kaon and two pions) slightly more frequently – 5 per cent more often – than the rate at which the same process happens with antiparticles. While small, this difference is statistically significant enough to be the first observation of differences in behaviour between baryon and antibaryon decays. To date, all measurements of matter-antimatter differences have been consistent with the small level present in the standard model. While the new measurement from LHCb is also in line with this theory, it is a major step forward. We have now seen differences in the behaviour of matter and antimatter in the group of particles that dominate the known matter of the universe. It's a potential step in the direction of understanding why that situation came to be after the big bang. With the current and forthcoming data runs of LHCb we will be able to study these differences forensically, and, we hope, tease out any sign of new fundamental particles that might be present.
The National
3 days ago
- Science
- The National
Mysterious black hole spotted between colliding galaxies confounds researchers
A mysterious black hole spotted between two galaxies that are crashing into each other is challenging existing theories on how these powerful cosmic objects are formed. Researchers behind the study were surprised as black holes are typically found at the centre of galaxies, not floating between them. The discovery was made using Nasa's James Webb Space Telescope (JWST), which captured images of two distant galaxies merging in a collision. Released on Tuesday, the image shows the black hole appearing as a bright glow between the galaxies. 'Finding a black hole that's not in the nucleus of a massive galaxy is in itself unusual, but what's even more unusual is the story of how it may have gotten there,' said Dr Pieter van Dokkum, professor of astronomy and physics at Yale University and lead author of the study. 'It likely didn't just arrive there, but instead it formed there, and pretty recently. 'In other words, we think we're witnessing the birth of a supermassive black hole, something that has never been seen before.' Scientists have been studying black holes and how they form for decades as they remain one of the most mysterious objects in the universe and are so powerful that not even light can escape them. In this latest discovery, researchers believe that the black hole was formed without the usual step of a dying star collapsing. There are some leading theories on how supermassive black holes found in the centre of galaxies are formed. One says that they begin as leftovers of massive stars and when a star starts dying, it explodes and collapses under its own gravity to form a black hole. The newly formed small black holes then feed on gas and merges with others to become a supermassive, a process that can take billions of years. But this theory does not explain how some black holes appear fully formed in the early universe. This led scientists to consider the 'direct collapse' theory, a rare situation where a dense cloud of gas collapses directly into a black hole, skipping the usual step of a dying star. This latest discovery by the JWST could be the strongest evidence yet of that process. 'By looking at the data from the Infinity Galaxy, we think we've pieced together a story of how this could have happened here,' said Prof van Dokkum. 'Two disk galaxies collide, forming the ring structures of stars that we see. During the collision, the gas within these two galaxies shocks and compresses. 'This compression might just be enough to form a dense knot, which then collapsed into a black hole. 'We can't say definitively that we have found a direct collapse black hole. But we can say that these new data strengthen the case that we're seeing a newborn black hole, while eliminating some of the competing explanations.' The findings are part of a growing list of discoveries made by the telescope since its launch on Christmas Day in 2021. It is a joint project by Nasa and the European and Canadian space agencies to study the early universe and learn more about the Solar System. The telescope has already captured detailed images of galaxies forming less than 400 million years after the Big Bang. It has also provided new clues on the atmospheres of exoplanets, planets that orbit stars outside the Solar System. Other Nasa telescopes have made breakthrough discoveries, including the TESS space telescope, which observed a 'super-Earth planet' that has been flashing a repeated signal from 154 light-years away. The planet, named TOI-1846 b, is almost twice the size of Earth. It orbits a red dwarf, small and cool stars, that is about 40 per cent smaller in size and mass than the Sun. Scientists are hoping to use the JWST to study the planet's atmosphere, as its unique instruments would be capable of detecting any possible signs of water, vapour, methane, carbon dioxide or other gases.
