>
EXCERPTS: Citigroup Inc. received approval to launch a wholly-owned securities business...
The Crown Wants It Kept Secret: AG Asks the Federal Court to Seal Information...
The Supreme Court Just Denied Your Constitutional Rights
The state is trying to crush the Amish with ruinous penalties.
Modular phone promises total privacy at the flick of a switch
Genetically Engineered War Dogs for 134 Pound Cyborg Dire Wolves Now – Later 600 Pound Wolves
They're Quietly REPLACING Our Food With THIS… And Nobody Is Talking About It!
Chicago Opens First "Teacher-Free" AI School as Global Push Accelerates
Solar Panels Are Doing Something Nobody Expected
DeLorean climbs skyward to race electric flying cars
Atari's 800XL returns with a keyboard, cartridges and BASIC
Bioinspired robot airdrops into remote waters via morphing wing-sail
Anduril interceptor adapts to emerging threats via swappable stages

Now, researchers from Harvard have shown that thin layers of silica aerogel could warm the surface and block UV radiation while still letting visible light through. That could be enough to keep water liquid and let plants photosynthesize within a given region.
While Mars was once a lush, watery world that could have supported life, that's definitely not the Red Planet we know today. Modern Mars is a dried-up husk, with the only water still there locked away in either the polar ice caps or salty lakes deep underground. The thin atmosphere means that there's very little oxygen, it's extremely cold and there's no protection from UV radiation from the Sun.
The new Harvard study could solve at least a few of those problems, thanks to silica aerogel. It's one of the lightest materials ever created, transparent, and an excellent thermal insulator. All of this means that, at least in theory, a thin layer of silica aerogel in the Martian sky could effectively terraform a small patch of ground below it. This would make the surface warmer, and reflect UV radiation away without blocking visible light.