>
SpaceX will launch next Starship flight in 'about 3 weeks,' Elon Musk says
Nicotine pouch poisoning in young children surges 760% as FDA-approved products raise...
How America's entertainment industry manufactured silence on Gaza
Organ harvesting exposed: The chilling reality of 'brain death' and how hospitals profit...
Magic mushrooms may hold the secret to longevity: Psilocybin extends lifespan by 57%...
Unitree G1 vs Boston Dynamics Atlas vs Optimus Gen 2 Robot– Who Wins?
LFP Battery Fire Safety: What You NEED to Know
Final Summer Solar Panel Test: Bifacial Optimization. Save Money w/ These Results!
MEDICAL MIRACLE IN JAPAN: Paralyzed Man Stands Again After Revolutionary Stem Cell Treatment!
Insulator Becomes Conducting Semiconductor And Could Make Superelastic Silicone Solar Panels
Slate Truck's Under $20,000 Price Tag Just Became A Political Casualty
Wisdom Teeth Contain Unique Stem Cell That Can Form Cartilage, Neurons, and Heart Tissue
Hay fever breakthrough: 'Molecular shield' blocks allergy trigger at the site
(Natural News) While much has been written about nanomaterials and the benefits they will give humans, not as much thought has been given to how they can benefit plants. A recent study looks to change that, exploring how nanomaterials may be able to give plants "super" abilities.
The researchers, who presented their study at the American Chemical Society's Spring 2019 National Meeting & Exposition, compare it to how humans have been introducing foreign materials to plants for thousands of years.
"One example of this is flower dyeing," says lead researchers Dr. Joseph Richardson. "You'd immerse a cut flower stem into some dye, and the dye would be taken up through the stem and penetrate into the flower petals, and then you'd see these beautiful colors."
Using nanomaterials takes this into a more high-tech direction, with benefits that are more than just aesthetic.
Putting nanomaterials inside plants
Plants are readily able to absorb water and molecules dissolved in fluids thanks to their extensive vascular networks. That said, it's much harder for larger materials and nanoparticles, such as metal-organic frameworks (MOF), to penetrate a plant's roots.
With this in mind, Richardson and his colleagues at the University of Melbourne wondered if they could feed MOF precursors to the plants, which the latter would then convert into finished nanomaterials.