>
Woman flies to Seattle to show how all the businesses have left their downtown...
James Freeman ILLEGAL ARREST DROPPED & HUGE LAWSUIT
Jamie Kennedy blasts LA mayoral election swing: 'Literal crime scene'
Here we go, the Los Angeles Times is admitting that yes, tens of thousands of mail in ballots...
World's longest-range airliner takes to the skies
Batteries That Use Sodium Instead of Lithium Could Be Low-Cost Rival to Tesla's
Elon and SpaceX Have Made AI Training 10 Times Faster
Oklo COO Says Nuclear Waste Could Power America For 150 Years
SpaceX Announces LARGEST Starship Mission Ever! They've never done this before!
Cars Are Fast Becoming Dystopian Prison Pods...
Our Emergency Water Plan Wasn't Good Enough - So We Built This
Sodium Ion Batteries Can Reach 100 Gigawatt Per Hour Per Year Scale in 2027
Juiced Bikes proves capable electric motorcycles don't have to cost a lot

The rise of quantum computing may be as important a shift as John von Neumann's stored program-and-data concept.
Here are some of the scientists and breakthroughs that will enable this shift.
Robert Schoelkopf (Yale, Quantum Circuits inc) claims a number of "world's firsts," the latest of which is the longest "coherence time" for a quantum superposition.
Multilayer microwave integrated quantum circuit (left) uses silicon wafers with features etched using MEMS techniques to create enclosures that serve as high-Q resonators as well as providing shielding. Superconducting metalization (blue) covers the walls of these enclosures to provide low-loss wafer-to-wafer bonding. A cross-section of the rectangular cavity resonator (upper right) shows interlayer aperture coupling between the cavity and transmission lines above. 3D superconducting transmission lines (lower right) could be constructed using membranes (green) in the MEMS structure where qubits and act as a compact low-loss quantum bus.
(Source: Yale)