>
BREAKING: 20-30 Gunshots Heard Near White House - Pool Reporters Run Inside Press Briefing Room
EXCLUSIVE VIDEO: Inside the Successful Operation to Rescue Dogs From Hideous Experimentations
U.S. and Iran are expected to announce the finalization of a draft proposal of a peace deal...
Should You Water Your Garden Every Day? (Most Gardeners Get This Wrong)
Cars Are Fast Becoming Dystopian Prison Pods...
Our Emergency Water Plan Wasn't Good Enough - So We Built This
Sodium Ion Batteries Can Reach 100 Gigawatt Per Hour Per Year Scale in 2027
Juiced Bikes proves capable electric motorcycles don't have to cost a lot
Headlight projectors turn your car into a drive-in theater
US To Develop Small Modular Nuclear Reactors For Commercial Shipping
New York Mandates Kill Switch and Surveillance Software in Your 3D Printer ...
Cameco Sees As Many As 20 AP1000 Nuclear Reactors On The Horizon
His grandparents had heart disease.
At 11, Laurent Simons decided he wanted to fight aging.
Mayo Clinic's AI Can Detect Pancreatic Cancer up to 3 Years Before Diagnosis–When Treatment...

A cubic centimeter of the graphene aerogel weighs just 0.16 milligrams — or, if you're having a problem conceptualizing that, a cubic meter weighs just 160 grams (5.6 ounces). The graphene aerogel is so light that an cube inch of the stuff can be balanced on a blade of grass, the stamen of a flower, or the fluffy seed head of a dandelion (see pictures below).
Most aerogels are produced using a sol-gel process, where a gel is dehydrated until only the aerogel remains. Some aerogels are also produced using the template method — aerographite, for example, is created by growing carbon on a lattice (template) of zinc oxide crystals — and then the zinc oxide is removed in an oven, leaving just the carbon aerogel. To create the graphene aerogel, however, researchers at Zhejiang University use a novel freeze-drying method. Basically, it seems like the researchers create a solution of graphene and carbon nanotubes, pour it into a mold, and then freeze dry it. Freeze drying dehydrates the solution, leaving single-atom-thick layers of graphene, supported by carbon nanotubes. The researchers say that there's no limit to the size of the container: You could make a mini graphene aerogel using this process, or a meter-cubed aerogel if you wish.