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After decades of fragility, error-corrected quantum computing has crossed a threshold signaling a clear, if cautious, path toward practical quantum advantage and future quantum AI.

Quantum computers have passed a mathematically proven test that no classical computer can ever pass, demonstrating an unconditional quantum advantage for the first time.

A 0.5B-parameter neural tensor-network pre-trained on hundreds of thousands of Hamiltonians generalizes to arbitrary systems—scaling to 8100 qubits.

Quantum Genetic Algorithms promise massive speedups by merging evolution-inspired AI with quantum computing. But fitness evaluation and the “Valley of Death” remain major hurdles.

This breakthrough combines quantum computing and AI to detect movement intentions in the brain, offering hope for better assistive devices for people with paralysis.

A USC study shows quantum annealing beats classical methods in finding near-optimal solutions for complex optimization challenges.

A game for quantum computers demonstrates stable patterns for reliable calculations and potential real-world applications.

Researchers use a 56-qubit quantum computer to create truly random numbers, proving it with supercomputers for cryptography and privacy uses.

Scientists have built a system where small quantum devices can work together by connecting two quantum processors into one.