Medicine & TechnologyAn ISRO scientist has concluded that energy can be provided by the moon in 2030. India is now finding a way to get Helium 3 in it.
Scientists from Stanford University has discovered a new component that will make batteries cheap, the urea from urine. It will also make solar renewable energy cheaper.
In a nod to the original Tesla, Nikola Labs now announces that they have created a device that can convert radio waves into useable DC power for smart phones. If they are correct, our smart devices may be able to fully transition into the 21st century, no longer stuck with 19th century charging conventions.
With the coming of spring, and the looming global warming ever at our odds, it’s clear that there’s enough heat already out in the world. So why would you want your “green” energy practices to contribute ever more to that heat? Current methods, for example, in the production of solar cells used to capture energy require an intense recrystallization process that comes at the price of a drastic raise in the temperature of the substance—perovskite. But now, thanks to chemists at Brown University, the green energy movement may soon be equated with a cooler movement, as well.
If you’ve ever ventured out into the middle of the desert, you’ve likely encountered a solar field of sorts. On the way to Las Vegas, for example, there exists a solar plant that leverages thousands of glass reflectors to burn hot with the power of the sun. But when it comes to more domesticate uses of the sun, researchers and consumers have been limited by the capabilities of light-absorbing perovskite films used in solar cells. Now, however, thanks to a PhD researcher at Brown University, the tides may have changed.
As stated by the California Fuel Cell Partnership, the primary benefits of operating an FCV are that they provide, "provide customers with a no-compromise electric-drive vehicle with longer range, quick refill, high performance and comfort along with zero emissions and a low-carbon and potentially renewable fuel."
Through the use of simple components, sugar, oxygen and transfer molecules, the mitochondria are able to create and store energy through the simple movement of electrons from one bond to another. And in spite of conflicting theories describing their possible origins, a new study at the University of Virginia is proving that the energy creators weren’t always self-sustaining components.