>
Why Do Good Things Happen to Bad People?
The Student Loan Crisis Is Exploding
The Same Zionist Jews Who Run Israel Run Washington and They Attack the Same Civilian...
Idaho's High Desert Becomes Hot Spot For Nuclear Power Revolution
The World's Largest Electric Aircraft Is About to Take Its First Flight
Tesla Cybercabs and Superchargers Will Act as Mini Cell Towers for SpaceX Starlink
Elon Vows AI-Made 'Odyssey' After Blasting Nolan's Take On Homer
Anthropic is launching its own drug discovery programs for rare diseases using Claude...
SpaceX AI Satellites Will Have 250 Kilowatts of Power
Chinese researchers have developed a sodium-metal battery that can fully charge in just 4 minutes...
SpaceX Starship Flight 13 in 3 Days - Thursday July 13
Chinese Scientists Develop Nuclear Battery Using Carbon-14
Teleoperated humanoid robots complete first-ever live surgery

The researchers have succeeded in transferring the properties of highly fluorescent dyes to solid optical materials, opening up new possibilities in everything from the development of next-generation solar cells to advanced lasers.
The research was carried out by scientists at Indiana University and the University of Copenhagen, who set out to solve a 150-year-old problem involving fluorescent dyes. The problem is known as "quenching" and occurs when dyes are converted to solid states, which causes them to bunch up tightly and become electronically coupled, dulling their fluorescent glow. This issue of quenching plagues the great majority of the more than 100,000 dyes that exist today.
"The problem of quenching and inter-dye coupling emerges when the dyes stand shoulder-to-shoulder inside solids," says study author Amar Flood, a chemist at Indiana University. "They cannot help but 'touch' each other. Like young children sitting at story time, they interfere with each other and stop behaving as individuals."
Flood and his colleagues believe they have found a solution to this problem, through the use of star-shaped macrocycle molecule that stops the fluorescent molecules from interacting with one another.