Target: We the People | Battleground LIVE with Sean Parnell

Three Things Donald Trump Must Do During the Debate, and One Thing He Shouldn’t – The JD Rucker Show

by Kerry Lutz, Financial Survival Network: In this exclusive interview, Martin Armstrong delves into the current economic and political landscape. Armstrong expresses concerns about the elites’ potential actions to prevent Trump from winning the upcoming election and the desire for war as a political tool. He forecasts a decline in the economy until 2028, citing consumer distrust […]

Biden’s climate czar John Podesta has joined forces with former California Gov. Arnold Schwarzenegger to plot ways to trick the public into buying the globalist climate change narrative. The two teamed up at the Hollywood [...] The post Schwarzenegger Teams Up With John Podesta In Attempt To Rebrand ‘Climate Change’ appeared first on The People's Voice.

Would Artificial Intelligence lie? would it intentionally deceive? The answer is yes! AI systems known as large language models (LLMs) can exhibit “Machiavellianism,” or intentional and amoral manipulativeness, which can then lead to deceptive behavior, [...] The post AI Systems Have Learned How To Lie And Deceive appeared first on The People's Voice.

The 2019 Swift and St. Vincent co-write Cruel Summer got a new lease of life when fans demanded its release as a single in 2023

Did you know gorillas have sibling rivalry, too? These funny clips are proving that it’s not just humans who bicker with their brothers and sisters. When Mom has a new baby, this older brother is seriously jealous. While it’s easy to think only humans are capable of complex feelings like jealousy, these animals are proving that it’s not so true. This big brother isn’t happy to see his new baby sibling — and his mom isn’t pleased at his behavior! Young gorillas can be extremely jealous of younger siblings. Watch this mother dealing with her eldest son's jealousy of his baby brother.pic.twitter.com/60obgy0Fgw— Massimo (@Rainmaker1973) June 10, 2024 The compilation starts with the oldest brother taking a swing at his baby brother who is napping peacefully in their mom’s arms. She swats him away and he runs off, brooding and embarrassed. It happened again moments later, and Mom blocked him once again. She’s trying to get this gorilla sibling rivalry under control. Then, in perhaps the most movie-perfect moment of this entire video, the older brother comes up to his mom to swing, once more, at his baby bro. Instead of pushing him off, this mom timed a perfectly aimed spit-take right at this gorilla’s face! This image is from X. He was obviously frustrated, but that kind of behavior couldn’t be tolerated. These gorillas have some serious sibling rivalry, but this mom seems like she’s navigated this sort of bad behavior before! Why is this brother so mad? Whenever animals display this sort of behavior, it’s interesting to ponder why that would be. This image is from X. Maybe this gorilla feels like he needs to compete for Mom’s attention so he has plenty of resources available. Or, of course, maybe he’s just needy and looking for his mommy to hold him like she’s holding his new brother. Whatever the reason is, it’s fascinating and hilarious to watch this intense gorilla sibling rivalry on video. I didn’t know these creatures were this emotional! What an amazing sight. The featured image for this post is from X. The post Mother Gorilla Puts Son In His Place When He Takes Sibling Rivalry Too Far appeared first on InspireMore.

Our planet was born around 4.5 billion years ago. To understand this mind-bendingly long history, we need to study rocks and the minerals they are made of.The oldest rocks in Australia, which are some of the oldest on Earth, are found in the Murchison district of Western Australia, 700 kilometres north of Perth. They have been dated at almost 4 billion years old.In a new study, we have found evidence of rocks of a similar age near Collie, south of Perth. This suggests the ancient rocks of Western Australia cover a far greater area than we knew, buried deep in the crust.The ancient continental crustThe ancient crust of Australia is crucial for understanding the early Earth, because it tells us about how the continental crust formed and evolved.Continental crust forms the foundation of landmasses where humans live, supporting ecosystems, and providing essential resources for civilisation. Without it there would be no fresh water. It is rich in mineral resources such as gold and iron, making it economically significant.However, exploring the ancient continental crust is not easy. Most of it is deeply buried, or has been intensely modified by its environment. There are only a few exposed areas where researchers can directly observe this ancient crust.To understand the age and composition of this hidden ancient crust, scientists often rely on indirect methods, such as studying eroded minerals preserved in overlying basins, or using remote sensing of sound waves, magnetism or gravity.However, there may be another way to peer into the deep crust and, with luck, even sample it.Dragging crystals up from the depthsThe crust of our planet is frequently cut by dark fingers of magma, rich in iron and magnesium, which can stretch from the upper crust all the way down to Earth’s mantle. These structures, known as dykes, can come from depths of at least 50 kilometres (much deeper than even the deepest borehole, which stretches a mere 12 kilometres).These dykes can pick up tiny amounts of minerals from the depths and transport them all the way up to the surface, where we can examine them.Dykes in Norway cutting into older layered sandstone rocks. Cato Andersen/Mapillary, CC BY-SAIn our recent study, we have uncovered evidence of ancient buried rock by dating grains of zircon from one of these dykes.Zircon contains trace amounts of uranium, which over time decays to lead. By precisely measuring the ratio of lead to uranium in zircon grains, we can tell how long ago the grain crystallised.This method showed that the zircon crystals from the dyke date back 3.44 billion years.Titanite armourThe zircons are encapsulated in a different mineral, called titanite, which is more chemically stable than zircon in the dyke. Think of a grain of salt, trapped inside a hard-boiled sugar sweet, dropped into a cup of hot tea.Microscope image of titanite grain with zircon crystals trapped inside and protected. The scale bar in the right bottom of image is 100 microns, about the width of a human hair. Credit: Kirkland et al., Communications Earth & Environment, 2024 (CC BY 4.0)The stability of the titanite armour protected the ancient zircon crystals through changes in the chemical, pressure and temperature conditions as the dyke travelled upward. Unshielded zircon crystals in the dyke were strongly modified during the journey, obliterating their isotopic records.However, the grains armoured in titanite survived intact to provide a rare glimpse into Earth’s early history.The dyke, itself dated to around 1.4 billion years old, has offered up a unique window into ancient crust that would otherwise have remained hidden. We also found similar ancient zircon grains further north in sand from the Swan River, which runs through Perth and drains the same region, further corroborating the age and origin of these ancient materials.Cross-section of the crust south of Perth showing dykes picking up 3.4 billion-year-old zircon from depth and bringing it to the surface. The inset zoom-in shows the armouring of this ancient zircon by a shield of the mineral titanite.  Credit: Kirkland et al., Communications Earth & Environment, 2024 (CC BY 4.0)The results extend the known area of ancient crust, previously recognised in the Narryer area of the Murchison district.One reason it’s important to understand the deep crust is because we often find metals at the boundaries between blocks of this crust. Mapping these blocks can help map out zones to investigate for mining potential.Remnants of deep timeSo next time you pick up a rock and some mineral grains rub off on your hand, spare a thought for how long those grains might have been around.To come to grips with the time scale, imagine the history of our planet was a year long. Earth formed from swirling dust 12 months ago. Any handful of sand you pick up around Perth will contain a grain or two from about ten months ago. Most of Australia’s gold formed seven months ago, and land plants arrived only one month ago.Two weeks ago, dinosaurs showed up. All of humanity has come in the past 30 minutes. And you? Soberingly, on this scale, your life would last about half a second.Chris Kirkland, Professor of Geochronology, Curtin UniversityThis article is republished from The Conversation under a Creative Commons license. Read the original article.

A German-Polish collaboration successfully conducted the first video recording of a space-time crystal. The recurring material structure was micrometer-sized and at room temperature, representing a significant step forward in finding applications for these intriguing objects.A crystal is by definition a material whose constituents are arranged in a lattice, a highly ordered microscopic structure. A time crystal is the same but the order is not seen in space but rather in time. The structure changes and oscillates returning to a specific configuration periodically.Put the two together and you have a space-time crystal. The crystal in this study was created using a strip of permalloy (an iron-nickel alloy) and placed on a tiny antenna through which they sent a radio-frequency current.   This process produced specific excitation states in the electrons of this material. These behave like a particle (despite not being one) so they are referred to as the quasi-particle magnon. The magnons in this material can be seen coming in and out of their arrangement periodically in both space and time: a quintessential space-time crystal."We were able to show that such space-time crystals are much more robust and widespread than first thought," co-lead author Pawel Gruszecki, a scientist at the Faculty of Physics of the Adam Mickiewicz University in Pozna, said in a statement. "Our crystal condenses at room temperature and particles can interact with it – unlike in an isolated system. Moreover, it has reached a size that could be used to do something with this magnonic space-time crystal. This may result in many potential applications."What was extremely exciting was that their space-time crystal is capable of interacting with other magnons thrown into the system by the researchers. Two time crystals were recently made interact but this is the first time that we are looking at the interaction of quasi-particles with a space-time crystal."We took the regularly recurring pattern of magnons in space and time, sent more magnons in, and they eventually scattered. Thus, we were able to show that the time crystal can interact with other quasiparticles. No one has yet been able to show this directly in an experiment, let alone in a video," explained the other co-lead author Nick Träger, a doctoral student at Max Planck Institute for Intelligent Systems.Crystals are useful in a wide variety of technologies so there is a lot of interest in how time crystal structures could be employed for communication or imaging technologies. The study is published in Physical Review Letters.An earlier version of this article was published in February 2021.

If dinosaurs were reptiles, then why aren't birds cold blooded?