Why Germanium? The Case for Hole-Spin Qubits in Scalable Quantum Computing
Germanium hole-spin qubits offer a compelling path to scalable quantum processors. We explain the physics, the advantages over competing platforms, and why it matters for real-world quantum advantage.
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From Lab to Fab: Making Quantum Chips with Standard Semiconductor Manufacturing
How we leverage existing semiconductor foundry infrastructure to produce germanium qubit devices — and what this means for quantum computing's commercial future.
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Quantum Error Correction Explained: The Biggest Obstacle Between Today's Qubits and Commercial Use
Fault-tolerant quantum computing requires quantum error correction — but QEC demands qubits of exceptional quality. Here's why germanium qubits are uniquely positioned to meet that bar.
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Quantum Advantage: What It Actually Means (And When We'll Get There)
Quantum advantage is one of the most misunderstood terms in the industry. We explain what it actually requires, the role of error correction, and a realistic timeline for commercial relevance.
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Understanding Qubit Coherence Time — And Why We're Setting New Records
Coherence time is the lifespan of quantum information in a qubit. We explain what limits it, how we engineer germanium devices to maximize it, and what our latest results mean for scalable quantum computing.
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Cryogenic Systems: Engineering at Millikelvin Temperatures
Operating at 50 millikelvin — colder than deep space — is a defining challenge of quantum hardware. We explain how dilution refrigerators work and how we engineer around the cryogenic constraints at scale.
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Hardware Scaling: The Road to a Million Qubits
The path from 10 to a million qubits is an engineering roadmap, not a physics mystery. We break down each layer of the scaling challenge: qubit density, classical control, fabrication yield, and modular architecture.
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Quantum Computing for Drug Discovery: Near-Term Reality Check
Drug discovery is quantum computing's most-cited near-term application. We cut through the hype and explain what practical quantum chemistry actually requires — and when it will become feasible.
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Two-Qubit Gates: How We Achieved 99%+ Fidelity Across a 10-Qubit Array
Our 2024 Science result in depth: the engineering and physics behind achieving record two-qubit gate fidelity on a multi-qubit germanium array, and why the array-wide result matters more than isolated demonstrations.
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The Quantum Computing Landscape in 2026: Who's Ahead, Who's Bluffing, and What the Benchmarks Show
A frank assessment of where different qubit platforms stand today — and why fidelity benchmarks matter more than raw qubit counts. We break down the real state of the industry.
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