\cite{Gambetta_2017} give are review on "Building logical qubits in a superconducting quantum computing system". In this review, they "present a view of what a medium-sized quantum computing system will comprise, as well as a discussion on the current state of coherent control and readout of superconducting qubits. We also detail some of the main challenges that the community will face in building a device of O(100) qubits so as to further the state-of-the-art of QEC and approach a useful fault-tolerant quantum memory". A few important points from this review are:
- One of the most promising approaches to achieve quantum fault-tolerance is the two-dimensional surface code.
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Zhukov et al. \cite{Zhukov_2017} implement several algorithms of a five-qubit IBM-q device to perform quantum computation of the dynamics of spin-1/2 particles interacting through a bosonic field.
\cite{Potocnik_2017}: Studying Light-Harvesting Models with Superconducting Circuits.
Quantum algorithms
\cite{ElWazan_2017}: A Quantum Algorithm for Testing Junta Variables and Learning Boolean Functions via Entanglement Measure.
Measurement-based QC
\cite{Raussendorf_2001}: A One-Way Quantum Computer.