>
NatGas Spikes As Major West Virginia Pipeline Declares Force Majeure
White House Restores Access For Banned Media Outlets After Judge's Ruling
Iran Media Reports Tehran Stance 'Unchanged' Amid US Talks At UN
This "ETFE" Dome Costs $4,200 and Resists High Heat, UVs and Weathering. Why It's Ide
Tesla Model 3 killer charges from 10 to 97% in just 9 minutes
World-first unpowered DNA computer sets speed record
I Power 5 Buildings Off-Grid. Here's How
The US government is pushing hard to get a working nuclear fission reactor into space by late 2028
SpaceX Starmind AI in Space Radiator
China Will Dominate Global Nuclear Energy Through 2035, Analyst Says
These Absolutely Wild-Looking EVs Are Saudi Arabia's First Homegrown Cars
BEYOND THE MOON: NASA plans a nuclear-powered fleet to push DEEPER into space
Big Oil Backs Mazama's $135 Million Bet On Superhot Geothermal

Developed by a research team at MIT, the proprietary system incorporates what are described as "well-known and standard chemical processes." These include a nanofiltration process to initially remove unwanted compounds from the brine, followed by one or more stages of electrodialysis. As a result, the brine is converted into useful chemicals such as sodium hydroxide.
More commonly known as caustic soda, sodium hydroxide is often utilized to change the acidity of seawater entering desalination plants, which in turn helps to prevent fouling of the filtration membranes that are used to remove the salt. Ordinarily, plant operators have to buy the chemical. With the MIT system, though, they would be able to produce even more than they need, on-site. The excess could then be sold for use in other applications.
Other chemicals that could be produced from the brine include hydrochloric acid, sales of which would likewise be a source of revenue. And as an added bonus, the scientists suggest that plants could save money by no longer needing to pump their brine out into the ocean.