Circa 2017
The suit’s watch is resistant to nuclear blasts, has a self-winding mechanism and operates underwater.
From Blood to Bone (and back)! — Dr. Rhonda Prisby, from University of Texas at Arlington, joins me on ideaXme (http://radioideaxme.com/) to discuss her fascinating research in the Bone Vascular and Micro-Circulation Laboratory, focusing on the unique interaction between vascular and skeletal systems, and novel disease states where vessels become bone-like “dead space”! — https://www.youtube.com/watch?v=PsK-pPjW020&t=1s #Ideaxme #Bone #Microcirculation #Vasculature #Ossification #Atherosclerosis #Parathyroid #Osteoblast #Osteoclast #Health #Wellness #Regeneration #Longevity #Aging #IraPastor #Bioquark #Regenerage
Ira Pastor, ideaXme exponential health ambassador, interviews Dr. Rhonda Prisby, Associate Professor in the Department of Kinesiology, at The University of Texas at Arlington.
Research over the past two decades shows that certain herbal medicines can fight the new Wuhan coronavirus contagion. Let’s review the evidence showing that certain plant medicines can fight similar viral infections such as SARS, MERS and Ebola, and why this can also apply to the Wuhan coronavirus
Let’s review some of the current science on this coronavirus infection. Then we can discuss what plant medicines can offer.
Latest on the Wuhan coronavirus.
As the vice-chair of the Senate Intelligence Committee, he’s also become one of Capitol Hill’s most vocal advocates urging the country to take foreign technology threats seriously, both the possibility of kinetic real-world cyberattacks (such as disabling power plants or water systems) and already-underway information influence operations like the ones that upended the 2016 presidential election, as well as the looming challenges next-generation technologies pose to national security.
A former telecoms entrepreneur, the Virginia senator says that saving the industry (and democracy) might mean blowing up Big Tech as we know it.
So what’s Tesla to do? The answers may come in the Battery Day, a forthcoming explainer that could take place in April. The day is expected to be similar in setup to the Autonomy Day in April 2019, where Musk explained to investors the company’s progress on full self-driving capabilities.
What will they show? One of the standout features may be the company’s Maxwell Technologies acquisition. The $218 million deal, announced February 2019, brings in a firm working on exotic technologies like dry electrodes and ultracapacitors. The firm has also identified a pathway to raising battery density to 500 watt-hours per kilogram. Current batteries tend to weigh around 300 watt-hours, but a jump to 500 could enable advanced uses like an electric plane.
Musk confirmed during Wednesday’s call that Tesla is working with Maxwell, while also stating that its ultracapacitor technology is an “important piece of the puzzle.” This exotic technology could transform how energy is managed within the car, and Musk was actually planning to do his PhD at Stanford University on them before he dropped out.
Scientists and amateur collectors unite to reconstruct vanished ice age landscape inhabited by Neanderthals, other ancient humans.
As they do in many areas of medicine, stem cells hold great potential in treating injured spinal cords, but getting them where they need to go is a delicate undertaking. Scientists at the University of California San Diego (UCSD) are now reporting a breakthrough in this area, demonstrating a new injection technique in mice they say can deliver far larger doses of stem cells and avoid some of the dangers of current approaches.
The research focuses on the use of a type of stem cell known as a neural precursor cell, which can differentiate into different types of neural cells and hold great potential in repairing damaged spines. Currently, these are directly injected into the primary cord of nerve fibers called the spinal parenchyma.
“As such, there is an inherent risk of (further) spinal tissue injury or intraparechymal bleeding,” says Martin Marsala, professor in the Department of Anesthesiology at UCSD School of Medicine.
Researchers were “stunned” when they discovered the remnants of a huge, fossilized shark head in the walls of a cave in Kentucky. The remains of the ancient animal were found in Mammoth Cave National Park, which according to the National Park Service is the world’s longest cave system.
The shark fossil, which was discovered by scientists who were investigating the cave system, is thought to be up to about 330 million years old, according to John-Paul Hodnett, a paleontologist and program coordinator at Dinosaur Park in Maryland.
The scientists sent Hodnett photos of the findings so he could help identify them. He was able to identify most of the fossils, but what got him “really excited” was to see a number of shark teeth associated with large sections of fossilized cartilage.
President Donald Trump is reportedly preparing to roll back established constraints on the U.S. military’s ability to use landmines overseas despite the weapons’ long history of killing and maiming civilians around the world.
More than 160 nations have ratified the Mine Ban Treaty, also known as the Ottawa Treaty, which prohibits the stockpiling, production, and use of landmines. The United States is one of just 32 U.N. member states that have not ratified the treaty.
“Trump’s policy rollback is a step toward the past, like many of his other decisions, and sends exactly the wrong message to those working to rid the world of the scourge of landmines.”
A new method for manipulating the quantum state of particles could one day allow us to observe an object in two places at once. The technique has been used to chill a tiny glass bead into its coldest possible quantum state.
Once you get down to extremely small scales, heat and motion are interchangeable: the more a particle is moving, the hotter it is. So to cool down a small particle, you have to stop it moving. Because the rules of quantum mechanics mean you can never know exactly how fast a particle is moving, there is a limit to how cold a particle can get. When a particle is at that limit, we call it the particle’s ground state.
