>
US Telecoms Slide On Starlink Mobile Threat; Bernstein Sees It As A "Jab, But No Knockout Yet**
Iran Set To Emerge With More Hormuz Leverage Than Before The War Under Draft US-Oman Deal
Health Ranger Report: The Collapse Is Already Here and Americans Are Unaware Of It, Bracken Warns
Ranked: Countries With the Most Government Debt in 2026
Voyager 1 approaches one light day from Earth
Renewable Energy Breakthrough! World's Most Efficient Tesla Turbine System
Meet Sunbird, a nuclear fusion-powered space tug concept from Pulsar Fusion.
China and Russia launch 29-nation AI alliance to rival western control of technology
BREAKING: China has begun manufacturing domestically developed Immersion Deep...
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

This new camera literally makes it possible to freeze time to see phenomena—and even light!—in extremely slow motion.
In recent years, the junction between innovations in non-linear optics and imaging has opened the door for new and highly efficient methods for microscopic analysis of dynamic phenomena in biology and physics. But to harness the potential of these methods, there needs to be a way to record images in real time at a very short temporal resolution—in a single exposure.
Using current imaging techniques, measurements taken with ultrashort laser pulses must be repeated many times, which is appropriate for some types of inert samples, but impossible for other more fragile ones. For example, laser-engraved glass can tolerate only a single laser pulse, leaving less than a picosecond to capture the results. In such a case, the imaging technique must be able to capture the entire process in real time.