Spins of electrons bound to donor electrons are attractive candidates for exploration of quantum information processing in silicon. We present results from our development of donor electron spin qubit structures. Donors are placed into isotopically enriched 28Si by ion implantation. The coherence properties of donor implants in pre-device structures are probed by pulsed electron spin resonance (ESR). The spin de-coherence time, T2, for 121Sb donors implanted into a peak depth of 50 nm from a thermal oxide interface is 0.3 ms at 5 K, increasing to 0.75 ms when the silicon surface is passivated with hydrogen. A technique for formation of donor arrays by ion implan-tation with scanning force microscope alignment is presented, and we discuss co...
While Si and Si-based materials have dominated classical electronic device technology for 50 years, ...
Spin is a quantum mechanical property that describes the magnetic orientation of elementary and comp...
We investigate multi-qubit device architectures for scalable donor-based quantum computing in silico...
Single donors in semiconductors are promising candidates for spin qubits and have attracted a lot of...
Spin properties of donor impurities in silicon have been investigated by electron spin resonance (ES...
International audienceDopant atoms are ubiquitous in semiconductor technologies, providing the tailo...
© 2020 Danielle HolmesQuantum computers are set to revolutionise technology by harnessing the immens...
Silicon is one of the most promising semiconductor materials for spin-based information processing d...
Given the effectiveness of semiconductor devices for classical computation one is naturally led to c...
Donor-based spin qubits in silicon are promising candidates for solid-state quantum computation as t...
The spins of phosphorus doped in silicon are potential candidates for a quantum computing device, w...
Donors in silicon, which combine an electron and nuclear spin, are some of the most promising candid...
We implanted ultra low doses (0.2 to 2 x 10{sup 11} cm{sup -2}) of Sb ions into isotopically enriche...
Donor spins in silicon provide a promising material platform for large scale quantum computing. Exce...
In this thesis we present single-shot spin readout of precision placed phosphorus donors in silicon....
While Si and Si-based materials have dominated classical electronic device technology for 50 years, ...
Spin is a quantum mechanical property that describes the magnetic orientation of elementary and comp...
We investigate multi-qubit device architectures for scalable donor-based quantum computing in silico...
Single donors in semiconductors are promising candidates for spin qubits and have attracted a lot of...
Spin properties of donor impurities in silicon have been investigated by electron spin resonance (ES...
International audienceDopant atoms are ubiquitous in semiconductor technologies, providing the tailo...
© 2020 Danielle HolmesQuantum computers are set to revolutionise technology by harnessing the immens...
Silicon is one of the most promising semiconductor materials for spin-based information processing d...
Given the effectiveness of semiconductor devices for classical computation one is naturally led to c...
Donor-based spin qubits in silicon are promising candidates for solid-state quantum computation as t...
The spins of phosphorus doped in silicon are potential candidates for a quantum computing device, w...
Donors in silicon, which combine an electron and nuclear spin, are some of the most promising candid...
We implanted ultra low doses (0.2 to 2 x 10{sup 11} cm{sup -2}) of Sb ions into isotopically enriche...
Donor spins in silicon provide a promising material platform for large scale quantum computing. Exce...
In this thesis we present single-shot spin readout of precision placed phosphorus donors in silicon....
While Si and Si-based materials have dominated classical electronic device technology for 50 years, ...
Spin is a quantum mechanical property that describes the magnetic orientation of elementary and comp...
We investigate multi-qubit device architectures for scalable donor-based quantum computing in silico...