>
Peter Schiff: War Spending is a Bigger Threat than Iran
Tesla China Launching Sub-$30,000 Standard Model 3 in April-June
Has Trump Let Netanyahu Destroy America?
Hydrogen-powered business jet edges closer to certification
We Build and Test Microwave Blocking Panels - Invisible to Radar
Man Successfully Designs mRNA Vaccine To Treat His Dog's Cancer
Watch: Humanoid robot gets surprisingly good at tennis
Low-cost hypersonic rocket engine takes flight for US Air Force
Your WiFi Can See You. Here's How.
Decentralizing Defense: A $96 Guided Rocket Just Put Precision Warfare into the Hands of the People
Israel's Iron Beam and the laser future of missile defense
Scientists at the Harbin University of Science and Technology have pioneered a sophisticated...
Researchers have developed a breakthrough "molecular jackhammer" technique...
Human trials are underway for a drug that regrows human teeth in just 4 days.

While deep-freezing techniques exist to preserve organs for longer period of times (cryopreservation), they get damaged when being reheated. The UM researchers believe they've solved this problem thanks to tiny microscopic particles.
The process of vitrification involves cooling biological materials to temperatures of between -160 and -196 degrees Celsius. The rapid cooling of tissue to these temperatures along with a cryopreservative causes the tissue to enter a glass-like state without damaging ice forming. While this has proven a successful preservation method, when it's time to bring the tissue out of the deep-freeze, current convection-based warming techniques cause it to heat unevenly, which makes different parts of the tissue expand at different rates and can lead to tears and cracks.