With delicate crepes stacked between layers of luscious strawberry cream and juicy fresh strawberries, this crepe cake makes a stunning centerpiece dessert.

by Jeannie DeAngelis, American Thinker: Ever since he dazzled the world with speechifying on behalf of the common man at the 2004 Democrat convention, Barack Obama has been pushing his own brand of “democracy.” Here we are, in 2024, and Joe Biden is parroting the Obama “democracy” talk. The way we know this blather is issuing from the […]

from Mark Dice:  TRUTH LIVES on at https://sgtreport.tv/

In this classic 2013 interview, Ghost mainman Tobias Forge talks ambition, success and Satan

Don’t try this at home. Dean Schneider lives in an animal sanctuary in South Africa. He was born in Switzerland and launched the Hakuna Mipaka project at age 24. Dean says, “I am a member of a lion pride, a hyena’s best friend and a daddy of two monkeys.” Dean Schneider can get away with wrestling with the enormous beasts as a member of the lion pride. So, again, please don’t try this at home. Dean Schneider lives and works with lions and other animals at the Hakuna Mipaka Oasis, which means “No Limits.” The 400-hectare (988.4 acres) oasis is home to Dean and thousands of wild animals. His home is not open to the public. Some species living in the protected African wilderness include giraffes, antelopes, wildebeests, baboons, leopards, hyenas, and a wide variety of snakes, reptiles, and birds. Image from YouTube. Dean lives closely with the animals and has a special relationship with them. He emphasizes that his sanctuary is not like your local petting zoo. The animals are all wild, and there is always a risk during his interactions with them. Dean Schneider has a commitment to educating the world about animals and their importance in our world. His YouTube channel has many videos about his interactions to bring people closer to his world. In each, he stresses that these animals are not pets. It takes a lot of training and patience to get to the level he is at with them. Dean Schneider actively works on conservation and education programs around South Africa. Learn more about Dean Schneider’s projects on the Hakuna Mipaka Oasis website. You can also catch his video presentations on YouTube to relax and enjoy watching him interact with the animals. You can find the source of this story’s featured image here. The post Man Catches Lion Sneaking Up On Him & The “Attack” Is Surprisingly Adorable appeared first on InspireMore.

El Niño, at its worst, can be devastating. It’s the climate phenomenon that sees the Pacific jet stream moved southwards by reduced equatorial winds, causing everything from heatwaves in Canada, to droughts in Africa, to intense storms over the west coasts of the Americas. Well, bad news: according to a new paper, those worst-case scenarios are likely to become very normal – and there’ll be no going back if it happens.“Extreme Eastern Pacific (EP) El Niño events are associated with heavy precipitation events and extreme droughts,” the study begins, adding that “in the observational record, they are quite rare so far.”But should the planet warm past a certain point, that may change dramatically. By modeling the Earth’s climate system under both heated and cooled conditions, the authors discovered that the ENSO, or El Niño-Southern Oscillation – the technical term for the phenomenon, which also includes the cooler “La Niña” phase – may be what’s known as a “tipping element” for the planet’s climate. So, what does that mean? “A tipping element involves a positive feedback that enhances global warming,” explains the paper – “for example, reduced albedo due to reduced ice cover.”And El Niño events can do exactly the same thing. “During extreme El Niño events a huge amount of heat is released to the atmosphere that is otherwise stored in the subsurface ocean,” the authors write – and while previous extreme El Niños have only resulted in short-term heat releases, that can be enough to trigger other tipping elements. “In the worst case, [it can] initiate a tipping cascade, and therefore further enhance global warming,” the paper warns.More worrying is the fact that, should a tipping element be triggered, it’s basically irreversible – “even if global warming would be reversed to 0[C],” the authors explain. According to multiple climate models, a change in the ENSO would take more than a century – potentially up to 200 years, in fact – to return to normal.In other words: if the ENSO changes just a tiny bit too far, then it’ll change hard – and it will take a long, long time for any of us to recover.And here’s the worst part: the paper puts the tipping point at just +3.7°C. Should that limit be reached, they suggest, more than 90 percent of El Niños will be what we now consider extreme.So far, we’re already above +1.5°C, and we’re projected to reach +2.9°C by the end of the century.Of course, the model also predicts dire consequences if the planet cools too far – but let’s face it, that’s not a pressing concern right now. Either way, though, such changes to the ENSO would have “severe socio-economic impacts in the Pacific region and beyond,” the authors warn – not to mention a huge death toll for humans and wildlife alike.So, is there any cause for hope? Just a small one: this is just one study, the authors point out, and it used very slightly different variables from most climate models. Their results “therefore can't answer this question conclusively,” they note, and “have to be considered with some caution.”Still, it paints a less-than-rosy picture of the future. “Four of the five criteria of a tipping element are fulfilled in our experiments for ENSO,” the paper warns – and the fifth one is only discounted through lack of data. “We believe that the discussion on whether ENSO can be considered as a tipping element should be taken up again,” they write, “and addressed in more detail by further experiments and analyses.”The paper is published in the journal Geophysical Research Letters.

It wouldn’t be a day ending in “y” without a tourist having a mishap at Yellowstone National Park. The latest snafu comes courtesy of five visitors who accidentally drove their SUV into the Semi-Centennial Geyser – a hot, acidic pond located near the park’s Roaring Mountain, between Mammoth Hot Springs and Norris Junction.The geyser has been inactive since 1922, when it experienced a series of eruptions so violent that water was reportedly ejected more than 300 feet (91 meters) into the air. Nevertheless, falling into it would not be a pleasant experience: with water temperatures of around 105 degrees Fahrenheit (41 degrees Celsius) and a pH only just above three, it would be more akin to jumping into a hot tub full of vinegar than a nice dip in a pool. The car was fully submerged under about nine feet (2.74 meters) of this hot, acidic water, park officials said in a statement released on Friday. Thankfully, all five of the vehicle’s occupants were able to get out on their own, and were taken via ambulance to a nearby hospital with non-life-threatening injuries.The roadway near the accident was closed temporarily the next day in order to retrieve the car, which was extracted with the help of local businesses. It was reopened after about two hours.No details have been released about the people involved, and the incident is currently under investigation by park authorities. Meanwhile, the statement reminds tourists to “stay informed about current road conditions” and “please stay safe.”And with more than 10,000 hydrothermal features in the park – more than anywhere else on Earth – that advice is always welcome. Of course, the water isn’t the only danger in Yellowstone: only this week, the park raised the fire danger to “high”, meaning that wildfires are likely and may be difficult to control. But if history is any indication, the biggest threat to tourists? It may just be themselves. After all – whether it’s a would-be photographer trying to get to the most dangerous geyser in the world for a sweet pic, or a kindly old lady thinking that a massive angry bison looks huggable, one thing is for sure: those Yellowstone park rangers really have their work cut out for them.

Twenty thousand years ago the world was locked into a great ice age. Ice sheets two miles thick covered much of North America, Scandinavia and the British Isles.Greenhouse gas concentrations were much lower, the world was 6°C colder, and because of all the water trapped in ice-sheets, the sea was at least 120 metres lower, exposing land that is submerged today. It would have been possible to walk from France to London via Doggerland or from Russia to Alaska through Beringia.But our research, now published in Nature, has uncovered at least one surprise in the ice age climate: the Gulf Stream, which carries warm water northwards through the Atlantic, was stronger and deeper than it is today.This research came about because as paleoceanographers (scientists who study oceans in the past), we wanted to understand how the oceans behaved during the last ice age to provide insights into how climate change might alter things in future.Warm water – from Mexico to NorwayToday, warm salty water from the Gulf of Mexico flows northward as part of the Gulf Stream. As part of it flows past Europe it gives off lots of heat keeping the climate of western Europe very mild.Then, as the surface water passes north of Iceland, it loses enough heat to increase its density, causing it to sink and form deepwater. This process initiates the global deepwater conveyor belt, which connects all the world’s oceans, slowly moving heat around the planet at depths greater than one mile below the surface.Scientists previously thought the Atlantic meridional overturning circulation – a complex system of deep and surface ocean currents, including the Gulf Stream – was weaker during extreme cold periods such as the last ice age. In theory, more sea ice in the Arctic would have reduced the amount of water sinking from the surface into the deep ocean, slowing down the global deepwater conveyor belt.However, our new study reveals that the Gulf Stream was actually much stronger (and deeper) during the last ice age. This is despite the prevailing cold glacial climate and the presence of enormous ice sheets around the northern parts of the Atlantic.In fact, our research suggests that the glacial climate itself was responsible for driving a stronger Gulf Stream. In particular, the ice age was characterised by much stronger winds over parts of the North Atlantic, which would have driven a stronger Gulf Stream. Therefore, although the amount of water sinking from the surface into the deep ocean was reduced, the Gulf Stream was stronger and still transporting lots of heat northwards, albeit not as far as today.Reconstructing past ocean circulationSince we don’t have any data from weather buoys or satellites, we instead reconstructed how the ocean would have circulated in the last ice age using proxy evidence preserved in marine sediment cores, which are long tubes of mud from the bottom of the ocean.The cores we used contained mud that had been building up on the seafloor for the past 25,000 years and were retrieved from multiple locations along the US east coast using research vessels from Woods Hole Oceanographic Institution in Massachusetts, where some of our team are based.To determine the Gulf Stream’s strength during the ice age, we measured the size of sediment grains within the mud, with larger grains indicating faster flow and vice versa.From the same mud, we also measured the shell chemistry of tiny single-celled organisms called foraminifera. By comparing data from a range of depths at multiple sites in the Northwest Atlantic, we were able to identify the boundary between those foraminifera that once lived in warm subtropical waters and those that lived in colder subpolar waters. This allowed us to determine the depth of the Gulf Stream at the time those organisms were alive.This adds uncertainty to climate projectionsOur research highlights how the Gulf Stream, and the wider system of Atlantic currents, is sensitive to changes in wind strength as well as meltwater from the Greenland ice sheet. This has important implications for future climate change.    How the great ocean conveyor belt works (Video: NASA)Climate models predict the Gulf Stream will weaken over the 21st century, in part due to reduced windiness. This would lead to even higher sea levels along the US east coast and relatively less global warming in Europe. If climate change causes changes in wind patterns in the future, the Gulf Stream will also change, adding to the uncertainty about future climate conditions.Our results also highlight why we should not make simplistic statements about Atlantic currents and future climate change. The Atlantic features a set of interconnected currents, each with own behaviour and unique response to climate change. Therefore, when explaining the impact of anthropogenic climate change on the climate system, we need to be very clear about which part we are discussing and the specific implications for different countries. Jack Wharton, Postdoctoral Research Fellow in Paleoceanography, UCL; David Thornalley, Professor of Ocean and Climate Science, UCL, and Mark Maslin, Professor of Natural Sciences, UCLThis article is republished from The Conversation under a Creative Commons license. Read the original article.