Future quantum computers capable of solving relevant problems will require a large number
of qubits that can be operated reliably. However, the requirements of having a large qubit …

The spin of an electron confined in semiconductor quantum dots is currently a promising
candidate for quantum bit (qubit) implementations. Taking advantage of the existing CMOS …

Preserving qubit coherence and maintaining high-fidelity qubit control under complex noise
environment is an enduring challenge for scalable quantum computing. Here we …

Donor dots realized with phosphorus atoms in silicon have proven to be excellent hosts for
electron spin qubits as they provide a strong confining potential that results in small wave …

Engineered spin-electric coupling enables spin qubits in semiconductor nanostructures to
be manipulated efficiently and addressed individually. While synthetic spin-orbit coupling …

On-chip micromagnets enable electrically controlled quantum gates on electron spin qubits.
Extending the concept to a large number of qubits is challenging in terms of providing large …

There is a growing demand for quantum computing across various sectors, including
finance, materials, and studying chemical reactions. A promising implementation involves …

Recent experiments have demonstrated two-qubit gate fidelities above 99% for
semiconductor spin qubits. However, theoretically, the fidelity of controlled-not (cnot) …

The scaling up of semiconductor quantum dots to two-dimensional arrays is attracting
considerable interest for use in large-scale spin-based quantum computation. One of the …

Research to realize full electrical spin manipulation and spin–photon coupling on silicon
using micromagnets has been prevalent. To realize spin–photon coupling, micromagnets …