Building a fault-tolerant quantum computer will require vast numbers of physical qubits. For
qubit technologies based on solid-state electronic devices,–, integrating millions of qubits in …

Highly uniform quantum systems are essential for the practical implementation of scalable
quantum processors. While quantum dot spin qubits based on semiconductor technology …

As quantum processors grow in complexity, new challenges arise such as the management
of device variability and the interface with supporting electronics. Spin qubits in silicon …

Semiconductor quantum dots (QDs) are a promising platform for multiple different qubit
implementations, all of which are voltage controlled by programmable gate electrodes …

We propose a quantum processor architecture, the qubit 'pipeline', in which run-time scales
additively as functions of circuit depth and run repetitions. Run-time control is applied …

Gate-defined quantum dots (QDs) have appealing attributes as a quantum computing
platform. However, near-term devices possess a range of possible imperfections that need …

New approaches such as selective area growth (SAG), where crystal growth is
lithographically controlled, allow the integration of bottom-up grown semiconductor …

Shuttling spins with high fidelity is a key requirement to scale up semiconducting quantum
computers, enabling qubit entanglement over large distances and favoring the integration of …

Quantum computers are nearing the thousand qubit mark, with the current focus on scaling
to improve computational performance. As quantum processors grow in complexity, new …

We have investigated the electrical characteristics of an AlGaAs/GaAs high electron mobility
transistor, in which a layer of InAs self-assembled Quantum Dots (QDs) was inserted below …