>
Canada's MAID CULTURE OF DEATH Just Hit Rock Bottom: KILLING PRISONERS NOW!!!
Weight gain single-handedly prevented by a gut microbe
Doug Casey on 2025's Defining Events and What Comes Next
BREAKING: Officer Tatum & Other Investigators Believe A Potential Suspect In The Brown...
This tiny dev board is packed with features for ambitious makers
Scientists Discover Gel to Regrow Tooth Enamel
Vitamin C and Dandelion Root Killing Cancer Cells -- as Former CDC Director Calls for COVID-19...
Galactic Brain: US firm plans space-based data centers, power grid to challenge China
A microbial cleanup for glyphosate just earned a patent. Here's why that matters
Japan Breaks Internet Speed Record with 5 Million Times Faster Data Transfer
Advanced Propulsion Resources Part 1 of 2
PulsarFusion a forward-thinking UK aerospace company, is pushing the boundaries of space travel...
Dinky little laser box throws big-screen entertainment from inches away
'World's first' sodium-ion flashlight shines bright even at -40 ºF

The overhead cost for error correction improves as gate error rate declines.
The Google Quantum supremacy demonstrations confirmed the quantum world has huge computing resources. We are in the noisy qubit era. We can explore heuristic quantum algorithms. We might get near-term quantum advantage for useful applications but this is not guaranteed.
Near-term algorithms should be designed with noise resilience (noisy qubits) in mind.
We will get good truly random number generation and will explore new quantum simulation of complex systems.
Lower quantum gate error rates will lower the overhead cost of quantum error correction, and also extend the reach of quantum algorithms which do not use error correction.
Dequantization: Practical uses of quantum linear algebra and of quantum-inspired classical algorithms are still unclear.