Twitter could see organizational restructuring this week.
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Musk was among the people who were asked to testify to determine if the Tesla CEO had undue influence on the decision. Former Tesla board member, James Murdoch also testified later on Wednesday, The Verge report said.
Posted in climatology, sustainability
A future timeline of the 21st century (updated).
An increasingly globalised humanity is faced with climate change, overpopulation, dwindling resources and technological upheaval.
Commercial deployment could be achieved as early as 2024.
Energy Dome, the Italian company that uses carbon dioxide for long-duration energy storage, has now entered the U.S. energy market, Electrek.
Countries around the world are looking to switch to sources of renewable energy in a bid to reduce their carbon emissions. Recently, the world’s largest floating offshore wind farm went online in Norway and will use the harnessed energy to reduce emissions from its oil and gas production facilities.
The community will offer eight different floor plans, ranging from three to four bedrooms and two to three bathrooms. Homes will be powered by rooftop solar panels, include a Ring Video Doorbell Pro, Schlage Encode Smart WiFi deadbolt, a Honeywell Home T6 Pro WiFi smart thermostat and a Wolf Ranch security package.
RELATED: The Georgetown gem that gleams rich with history: Southwestern University
Prices are expected to start from the mid-$400,000s.
As the world rushes toward “the greatest disconnect between supply and demand in the history of commodities,” Snow Lake Lithium CEO Philip Gross talks us through his company’s plans to open the world’s first all-electric lithium mine in Canada.
Now that we’re starting to see the chaotic and destructive early effects of climate change begin to wreak havoc the world over, the world seems to have finally reached a consensus that we need to decarbonize as rapidly as possible. Which is great – better late than never. But a huge percentage of the push toward net zero carbon by 2050 is going to rely on batteries, and the simple fact is this: there’s not going to be enough lithium.
There’s plenty in the ground, but as we wrote a couple of months ago, there’s nowhere near enough coming out of it, and while everyone seems to be expecting electric vehicles to continue taking over the auto market, the numbers look dire. By 2030, if all existing mines keep producing and everything that’s under construction comes to fruition, there’ll still be barely enough metal to satisfy half of demand. This will be a lithium resource squeeze of epic proportions.
Starship is getting very close to becoming real. Starship just did a 14 engine static fire which is nearly as powerful as the Saturn V that landed people on the moon. A 33 engine static fire should happen within a month.
In addition, NASA just signed up Starship for a third trip to the moon. They have now signed up for one cargo and two crew missions to the moon for a total of over $4 billion. Other customers have signed up with Starship as well.
KENNEDY SPACE CENTER, Fla. — NASA has awarded SpaceX a $1.15 billion contract to develop an upgraded version of its Starship lunar lander and fly a second crewed mission.
NASA announced Nov. 15 it completed a contract modification for what is formally known as Option B of its Human Landing System (HLS) contract with SpaceX. Option B covers upgrades to the Starship lander originally selected for HLS by NASA in April 2021 for $2.9 billion. The option also includes a second crewed demonstration landing mission.
“Continuing our collaborative efforts with SpaceX through Option B furthers our resilient plans for regular crewed transportation to the lunar surface and establishing a long-term human presence under Artemis,” Lisa Watson-Morgan, NASA HLS program manager, said in a statement. “This critical work will help us focus on the development of sustainable, service-based lunar landers anchored to NASA’s requirements for regularly recurring missions to the lunar surface.”
From wearable gadgets to battery separators, the future of sustainable tech is starting to look like a mushroom. A team of researchers from the Institute of Experimental Physics in Linz have completed a proof-of-concept study, testing whether mycelium skin could substitute plastic in the production of soft electronics. The scientists used processed skin from the mushroom Ganoderma Lucidum – a saprophytic fungus native to some parts of Europe and China that grows naturally on dead hardwood.
This works by laying electronic components on the fungal skin through a process called physical vapor deposition, used to produce thin materials. The resulting electronic circuit has high thermal stability and can withstand thousands of bending cycles. The researchers say that combining conventional electronics with the biodegradable material could help reduce waste in the production of wearable electronics and sustainable battery separators, among other uses.
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Things can always get smaller.
That might also be true for one of our much-debated energy sources. Even though experts claim that nuclear energy is a reliable and sustainable energy source, the nuclear energy debate continues, with small-scale nuclear reactors being developed around the world. They are said to be a safer and less expensive form of nuclear power. On the other hand, full-scale nuclear reactors are large, expensive, and take a long time to build, and making them smaller, portable, cheaper, and safer could ensure that solar, wind, and hydro are not getting all the attention.
In this video from the YouTube channel Undecided with Matt Ferrell, you can delve into the world of tiny modular reactors, which are gaining popularity as the first versions come up in China and new facilities open in Canada. The YouTuber even refers to former SpaceX engineers who have scaled things down to the level of a microreactor, and ask whether this could be the future of nuclear energy. If you want to learn more, make sure you watch the video above, and as always, enjoy!
It will be used to power oil and gas production.
Hywind Tampen, the world’s largest floating wind farm, located off the coast of Norway, has become operational, a company press release said. Of the 11 turbines involved in the project, the first turbine began power production on November 13, with another six scheduled to go online this year.
With the impending doom of climate change and the recent upshoot of fuel prices, countries around the world are looking to switch aggressively to renewable energy. While those in the tropics are looking at solar power, others that can access winds over the seas are looking to build offshore wind farms.
Although increasing the size of wind turbines is a straightforward way to increase the energy output of these facilities, it also comes with increased costs for constructing these structures. Floating wind farms are being looked at as a possible solution to this problem, and Hywind Tampen is the first real-world test of this kind.
A team of scientists from the Department of Energy’s Ames National Laboratory has developed a new characterization tool that allowed them to gain unique insight into a possible alternative material for solar cells. Under the leadership of Jigang Wang, senior scientist from Ames Lab, the team developed a microscope that uses terahertz waves to collect data on material samples. The team then used their microscope to explore methylammonium lead iodide (MAPbI3) perovskite, a material that could potentially replace silicon in solar cells.
Richard Kim, a scientist from Ames Lab, explained the two features that make the new scanning probe microscope unique. First, the microscope uses the terahertz range of electromagnetic frequencies to collect data on materials. This range is far below the visible light spectrum, falling between the infrared and microwave frequencies. Secondly, the terahertz light is shined through a sharp metallic tip that enhances the microscope’s capabilities toward nanometer length scales.
“Normally if you have a light wave, you cannot see things smaller than the wavelength of the light you’re using. And for this terahertz light, the wavelength is about a millimeter, so it’s quite large,” explained Kim. “But here we used this sharp metallic tip with an apex that is sharpened to a 20-nanometer radius curvature, and this acts as our antenna to see things smaller than the wavelength that we were using.”
