Pasqal Benchmarks Error-Detected Logical Qubits Against Physical Counterparts Using Quantum Kernels
Pasqal Holding SAS has published application-level hardware research comparing the performance of logical and physical qubits executing a machine learning algorithm. Conducted in collaboration with the Université Paris-Saclay and the Institut d’Optique, the benchmark evaluated a quantum kernel-based differential equation solver. The experiment represents a transition for neutral-atom hardware from executing isolated code subroutines to [...] The post Pasqal Benchmarks Error-Detected Logical Qubits Against Physical Counterparts Using Quantum Kernels appeared first on Quantum Computing Report .
The quantum computing industry is rapidly progressing towards error correction and the validation of logical qubits, making this benchmark a timely advancement in demonstrating practical quantum applications.
This development signals a crucial step towards building fault-tolerant quantum computers, moving beyond noisy intermediate-scale quantum (NISQ) devices and enabling more robust and complex quantum algorithms.
The ability to benchmark error-detected logical qubits against physical counterparts for real applications validates a key theoretical hurdle for quantum computing and accelerates the path to commercial utility.
- · Pasqal
- · Quantum hardware developers
- · Quantum algorithm researchers
- · High-performance computing sector
- · Classical supercomputing for specific problems
- · Early-stage quantum companies focused solely on NISQ applications
Demonstrated performance of logical qubits accelerates investment and research in fault-tolerant quantum computing.
Increased confidence in quantum computing could lead to broader industry adoption and the exploration of new application domains beyond current expectations.
Successful development of reliable logical qubits could eventually lead to quantum advantage in fields like materials science and drug discovery, disrupting existing research paradigms.
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