Why Quantum Fine-Tuning is the Scalable Answer to AI's Power Crisis
IonQ published an article on quantum fine-tuning for AI power consumption.
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Bypassing the Horizon: How Space-Based Laser Networks Are Rewriting the Rules of Satellite Intelligence
IonQ published an article on space-based laser networks for satellite intelligence.
Microsoft’s application of error correction to trapped-ion qubits published in Nature
Microsoft Quantum published research applying error correction to trapped-ion qubits in Nature.
From Wall Street Hypothesis to NYSE Production: The Real-World Arrival ofQuantum Finance
IonQ published on quantum finance applications reaching NYSE production.
Mind the Gaps: Quantum Optimization for Efficient Electric and Autonomous Freight Dispatch with IonQ and Einride
IonQ announced work with Einride on quantum optimization for electric and autonomous freight dispatch.
Blueprint for Fault-Tolerant Trapped-Ion Quantum Computing: The Walking Cat Architecture
IonQ released a blueprint for fault-tolerant trapped-ion quantum computing called the Walking Cat Architecture.
Beyond Qubit Counts: Introducing IonQ’s Application-Centric Benchmarking Framework
IonQ announced an application-centric benchmarking framework for quantum systems.
Scaling Quantum Portfolio Optimization: 64-Qubits vs. S&P 500
IonQ published results comparing 64-qubit quantum portfolio optimization to the S&P 500.
IonQ's Accelerated Roadmap: Turning Quantum Ambition into Reality
IonQ announced its accelerated quantum computing roadmap.
Demystifying Logical Qubits and Fault Tolerance
IonQ released a technical overview covering error correction in quantum systems and the importance of qubit performance.
The Birth of Quantum Computers: How Dr. Chris Monroe Ignited the Quantum Computing Revolution
IonQ published an article on Dr. Chris Monroe's role in quantum computing development.
Breaking the decoding bottleneck: Fast and accurate software decoding for Quantum LDPC codes
IonQ announced software for fast and accurate decoding of Quantum LDPC codes.
Efficient cooling method could enable chip-based trapped-ion quantum computers
MIT researchers developed a cooling technique to support scalability of trapped-ion systems on chips.