Single-qubit operations on singlet-triplet qubits in GaAs double quantum dots have not yet reached the fidelities required for fault-tolerant quantum information processing. Considering experimentally important constraints and using measured noise spectra, we numerically minimize the effect of decoherence (including high-frequency 1/f-like noise) and show, theoretically, that quantum gates with fidelities higher than 99.9% are achievable. We also present a self-consistent tuning protocol which should allow the elimination of individual systematic gate errors directly in an experiment
Fault-tolerant quantum computers that can solve hard problems rely on quantum error correction1. One...
The promise of quantum information technology hinges on the ability to control large numbers of qubi...
The exchange interaction between spins poses considerable challenges for high-fidelity control of se...
A key ingredient for fault-tolerant quantum computers are sufficiently accurate logic gates on singl...
A key ingredient for a quantum computer is the accurate manipulation of qubits in order to generate ...
Practical Quantum computing hinges on the ability to control large numbers of qubits with high fidel...
Abstract The implementation of high fidelity two-qubit gates is a bottleneck in the progress toward ...
The implementation of high fidelity two-qubit gates is a bottleneck in the progress toward universal...
Semiconductor spin qubits have recently seen major advances in coherence time and control fidelities...
Singlet-triplet spin qubits in six-electron double quantum dots, in moderate magnetic fields, can sh...
Practical Quantum computing hinges on the ability to control large numbers of qubits with high fidel...
High-fidelity control of quantum bits is paramount for the reliable execution of quantum algorithms ...
Electron spin qubits confined in GaAs quantum dots are among the most established and well understoo...
High-fidelity control of quantum bits is paramount for the reliable execution of quantum algorithms ...
The spin of an electron confined in semiconductor quantum dots is currently a promising candidate fo...
Fault-tolerant quantum computers that can solve hard problems rely on quantum error correction1. One...
The promise of quantum information technology hinges on the ability to control large numbers of qubi...
The exchange interaction between spins poses considerable challenges for high-fidelity control of se...
A key ingredient for fault-tolerant quantum computers are sufficiently accurate logic gates on singl...
A key ingredient for a quantum computer is the accurate manipulation of qubits in order to generate ...
Practical Quantum computing hinges on the ability to control large numbers of qubits with high fidel...
Abstract The implementation of high fidelity two-qubit gates is a bottleneck in the progress toward ...
The implementation of high fidelity two-qubit gates is a bottleneck in the progress toward universal...
Semiconductor spin qubits have recently seen major advances in coherence time and control fidelities...
Singlet-triplet spin qubits in six-electron double quantum dots, in moderate magnetic fields, can sh...
Practical Quantum computing hinges on the ability to control large numbers of qubits with high fidel...
High-fidelity control of quantum bits is paramount for the reliable execution of quantum algorithms ...
Electron spin qubits confined in GaAs quantum dots are among the most established and well understoo...
High-fidelity control of quantum bits is paramount for the reliable execution of quantum algorithms ...
The spin of an electron confined in semiconductor quantum dots is currently a promising candidate fo...
Fault-tolerant quantum computers that can solve hard problems rely on quantum error correction1. One...
The promise of quantum information technology hinges on the ability to control large numbers of qubi...
The exchange interaction between spins poses considerable challenges for high-fidelity control of se...