Active quantum error correction using qubit stabilizer codes has emerged as a promising,
but experimentally challenging, engineering program for building a universal quantum …

Spanning a range of hardware platforms, the building-blocks of quantum processors are
today sufficiently advanced to begin work on scaling-up these systems into complex …

Quantum computing becomes viable when a quantum state can be protected from
environment-induced error. If quantum bits (qubits) are sufficiently reliable, errors are sparse …

The ability to detect and deal with errors when manipulating quantum systems is a
fundamental requirement for fault-tolerant quantum computing. Unlike classical bits that are …

The exceptionally long quantum coherence times of phosphorus donor nuclear spin qubits
in silicon, coupled with the proven scalability of silicon-based nano-electronics, make them …

Solid-state qubits have recently advanced to the level that enables them, in principle, to be
scaled up into fault-tolerant quantum computers. As these physical qubits continue to …

We introduce an exactly solvable model of interacting Majorana fermions realizing Z 2
topological order with a Z 2 fermion parity grading and lattice symmetries permuting the …

We present ScaffCC, a scalable compilation and analysis framework based on LLVM
(Lattner and Adve, 2004), which can be used for compiling quantum computing applications …

We discuss different ways of generating entanglement in the original picture of circuit QED
(XcQED) and several restrictions that arise in the context of a large-scale quantum …

We review various features of interacting Abelian topological phases of matter in two spatial
dimensions, placing particular emphasis on fractional Chern insulators (FCIs) and fractional …