We propose a spin-selective coherent electron transfer in a silicon quantum dot array. Oscillating magnetic fields and temporally controlled gate voltages are utilized to separate the electron wave function into different quantum dots depending on the spin state. We introduce a nonadiabatic protocol based on π pulses and an adiabatic protocol which offer fast electron transfer and robustness against the error in the control-field pulse area, respectively. We also study a shortcut-to-adiabaticity protocol which compromises these two protocols. We show that this scheme can be extended to multielectron systems straightforwardly and used for nonlocal manipulations of electrons.Peer reviewe
The electron spin is a natural two-level system that allows a qubit to be encoded. When localized in...
Over the past several decades, quantum information science research has proven its importance to the...
We have studied theoretically the possibility of ultra-fast manipulation of a single electron spin i...
We propose a spin-selective coherent electron transfer in a silicon quantum dot array. Oscillating m...
Recently, we proposed the spin-selective coherent electron transfer in a silicon-quantum-dot array. ...
The ability to coherently transport electron-spin states between different sites of gate-defined sem...
Abstract An electron spin qubit in silicon quantum dots holds promise for quantum information proces...
Single electron confined in a quantum dot is studied. A special emphasis is laid on the spin propert...
We provide an alternative means of electric field control for spin manipulation in the abs...
The electrical control of single spin qubits based on semiconductor quantum dots is of great interes...
A quantum computer utilizes the laws of quantum mechanics and performs logic operations on quantum t...
The electrical control of single spin qubits based on semiconductor quantum dots is of great interes...
The electrical control of single spin qubits based on semiconductor quantum dots is of great interes...
We propose schemes for generating spin currents into a semiconductor by adiabatic or non-adiabatic p...
Abstract We present a set of concrete and realistic ideas for the implementa-tion of a small-scale q...
The electron spin is a natural two-level system that allows a qubit to be encoded. When localized in...
Over the past several decades, quantum information science research has proven its importance to the...
We have studied theoretically the possibility of ultra-fast manipulation of a single electron spin i...
We propose a spin-selective coherent electron transfer in a silicon quantum dot array. Oscillating m...
Recently, we proposed the spin-selective coherent electron transfer in a silicon-quantum-dot array. ...
The ability to coherently transport electron-spin states between different sites of gate-defined sem...
Abstract An electron spin qubit in silicon quantum dots holds promise for quantum information proces...
Single electron confined in a quantum dot is studied. A special emphasis is laid on the spin propert...
We provide an alternative means of electric field control for spin manipulation in the abs...
The electrical control of single spin qubits based on semiconductor quantum dots is of great interes...
A quantum computer utilizes the laws of quantum mechanics and performs logic operations on quantum t...
The electrical control of single spin qubits based on semiconductor quantum dots is of great interes...
The electrical control of single spin qubits based on semiconductor quantum dots is of great interes...
We propose schemes for generating spin currents into a semiconductor by adiabatic or non-adiabatic p...
Abstract We present a set of concrete and realistic ideas for the implementa-tion of a small-scale q...
The electron spin is a natural two-level system that allows a qubit to be encoded. When localized in...
Over the past several decades, quantum information science research has proven its importance to the...
We have studied theoretically the possibility of ultra-fast manipulation of a single electron spin i...