We propose families of protocols for magic-state distillation—important components of fault-tolerance schemes—for systems of odd prime dimension. Our protocols utilize quantum Reed-Muller codes with transversal non-Clifford gates. We find that, in higher dimensions, small and effective codes can be used that have no direct analogue in qubit (two-dimensional) systems. We present several concrete protocols, including schemes for three-dimensional (qutrit) and five-dimensional (ququint) systems. The five-dimensional protocol is, by many measures, the best magic-state-distillation scheme yet discovered. It excels both in terms of error threshold with respect to depolarizing noise (36.3%) and the efficiency measure known as yield, where, for a l...
Magic states are eigenstates of non-Pauli operators. One way of suppressing errors present in magic ...
Leading approaches to fault-tolerant quantum computation dedicate a significant portion of the hardw...
It is an oft-cited fact that no quantum code can support a set of fault-tolerant logical gates that ...
We propose families of protocols for magic-state distillation—important components of fault-toleranc...
Error-correcting codes protect quantum information and form the basis of fault-tolerant quantum comp...
Fault-tolerant protocols enable large and precise quantum algorithms. Many such protocols rely on a ...
Magic state distillation is one of the leading candidates for implementing universal fault-tolerant ...
International audienceA practical quantum computer must not merely store information, but also proce...
Magic state distillation is a resource intensive sub-routine for quantum computation. The ratio of n...
We propose a family of error-detecting stabilizer codes with an encoding rate of 1/3 that permit a t...
Magic state distillation is a fundamental technique for realizing fault-tolerant universal quantum c...
The development of a framework for quantifying ‘non-stabilizerness’ of quantum operations is motivat...
Quantum error correction is the backbone of fault-tolerant quantum computation, a necessary requirem...
To achieve universal quantum computation via general fault-tolerant schemes, stabilizer operations m...
We analyze the resource overhead of recently proposed methods for universal fault-tolerant quantum c...
Magic states are eigenstates of non-Pauli operators. One way of suppressing errors present in magic ...
Leading approaches to fault-tolerant quantum computation dedicate a significant portion of the hardw...
It is an oft-cited fact that no quantum code can support a set of fault-tolerant logical gates that ...
We propose families of protocols for magic-state distillation—important components of fault-toleranc...
Error-correcting codes protect quantum information and form the basis of fault-tolerant quantum comp...
Fault-tolerant protocols enable large and precise quantum algorithms. Many such protocols rely on a ...
Magic state distillation is one of the leading candidates for implementing universal fault-tolerant ...
International audienceA practical quantum computer must not merely store information, but also proce...
Magic state distillation is a resource intensive sub-routine for quantum computation. The ratio of n...
We propose a family of error-detecting stabilizer codes with an encoding rate of 1/3 that permit a t...
Magic state distillation is a fundamental technique for realizing fault-tolerant universal quantum c...
The development of a framework for quantifying ‘non-stabilizerness’ of quantum operations is motivat...
Quantum error correction is the backbone of fault-tolerant quantum computation, a necessary requirem...
To achieve universal quantum computation via general fault-tolerant schemes, stabilizer operations m...
We analyze the resource overhead of recently proposed methods for universal fault-tolerant quantum c...
Magic states are eigenstates of non-Pauli operators. One way of suppressing errors present in magic ...
Leading approaches to fault-tolerant quantum computation dedicate a significant portion of the hardw...
It is an oft-cited fact that no quantum code can support a set of fault-tolerant logical gates that ...