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This partnership bridges the gap between theoretical quantum algorithms and physical silicon spin-qubit constraints by offering a hardware-aware emulator within the qBraid ecosystem. By incorporating empirical noise models and non-Markovian decoherence, Quobly enables developers to validate applications on realistic semiconductor architectures before their 10-qubit Pioneer QPU reaches commercial availability. This infrastructure advancement is critical for accelerating the development roadmap toward large-scale VLSI silicon quantum processors.

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Quobly Integrates Alloy Forge Emulator with qBraid Cloud to Accelerate Silicon Spin-Qubit Application Development

Quantum Computing ReportSeptember 23, 20262 min read

Quobly has partnered with qBraid to integrate its Alloy Forge emulator into the qBraid Cloud, allowing developers to test silicon spin-qubit applications under realistic semiconductor constraints. This collaboration provides a platform for validating quantum applications before Quobly's 10-qubit Alloy Pioneer QPU is commercially released, utilizing a 15-qubit emulation with a native RZZ gate set and empirical noise models. This initiative is a strategic step towards Quobly's long-term goal of developing VLSI silicon quantum processors with one million qubits by 2032. The post Quobly Integrates Alloy Forge Emulator with qBraid Cloud to Accelerate Silicon Spin-Qubit Application Development appeared first on Quantum Computing Report.

French silicon quantum computer developer Quobly and quantum software platform qBraid have expanded cloud access to Alloy Forge, Quobly’s hardware-aware quantum emulation environment. Integrated directly into the qBraid ecosystem, the platform enables global…

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