>
Has A Global Catastrophe Been Averted, Or Is This Just A Very Temporary Reprieve?
Blocking The Internet Archive Won't Stop AI, But It Will Erase The Web's Historical Record
Here is why Nasdaq and owner of NYSE are putting the $126 trillion equity market on blockchain
JFK: The Memo That Might Have Stopped Israel's War on Iran
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.

Currently, all proposals for the quantum version of machine learning utilize the finite-dimensional substrate of discrete variables. Here we generalize quantum machine learning to the more complex, but still remarkably practical, infinite-dimensional systems. Researchers present the critical subroutines of quantum machine learning algorithms for an all-photonic continuous-variable quantum computer that achieve an exponential speedup compared to their equivalent classical counterparts. Finally, they also map out an experimental implementation which can be used as a blueprint for future photonic demonstrations.
One of the biggest advantages of having a quantum machine learning algorithm for continuous variables is that it can theoretically operate much faster than classical algorithms. Since many science and engineering models involve continuous variables, applying quantum machine learning to these problems could potentially have far-reaching applications.